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Author SHA1 Message Date
Julian Sommer 0ee9b46e38 chore: rebuild ui 2026-06-05 14:12:47 +10:00
Julian Sommer 92d76b5bce fix(ui): auto-recover from stale credentials with login redirect (#297)
(cherry picked from commit 2d21232d02)
2026-06-05 14:10:19 +10:00
Josh Siviour cf8597a18e feat(ui): VPC-create AWS-flow alignment — SG launch step, public-IP, NAT Gateway + Elastic IP (#294)
(cherry picked from commit dc1b87f191)
2026-06-05 14:10:11 +10:00
Julian Sommer 044d35737e feat: remove bash e2e for e2e-go 2026-06-03 10:32:30 +10:00
Julian Sommer 2dada2cf9d release: update go.mod for v1.6.0 2026-06-03 09:15:38 +10:00
Julian Sommer 9508aaacce chore: bump go 1.26.4 2026-06-03 08:59:25 +10:00
joshsiv-mulga 40deb1e4c2 fix(e2e): add explicit IGW default route in run-lb-e2e
After PR #270 the VPC-LR-wide 0.0.0.0/0 -> IGW static route is no longer
installed implicitly at attach-internet-gateway. Subnets whose effective
route table lacks an internet-bound route get an OVN drop policy at
SubnetEgressPriorityDrop (1100), which kills LB target reply traffic
before un-DNAT can fire and stalls the LB internal-client probe until
job timeout.

Add the standard AWS pattern: describe-route-tables -> create-route
0.0.0.0/0 -> IGW. This fires vpc.add-igw-route + vpc.ungate-subnet-egress,
removing the drop policy and installing a reroute policy at
SubnetEgressPriorityIGW (1000).
2026-06-02 23:49:23 +10:00
joshsiv-mulga 7cd054cbf1 chore(e2e): dump Logical_Router_Policy + Logical_Router_Static_Route in W5 diag 2026-06-02 22:15:22 +10:00
joshsiv-mulga 41f840ee85 fix(setup): grant spinifex-vpcd sudo for ovn-appctl (siv-167)
The W2 inject-garp fix landed in 72a6a59d adds a shellout to
`ovn-appctl -t ovn-controller inject-garp <port>` via the L0
execRunner, which prefixes `sudo` when not running as root.
spinifex-vpcd runs as user spinifex-vpcd, so every emission was
hitting `sudo: a password is required` and silently returning a
WARN that nobody read until W5 diag capture surfaced the journal.

Net: W2 has been a complete no-op since it shipped. Every
recycled-EIP scenario has continued to leave stale upstream ARP.

Evidence: diag bundle from run 26813235295 — 12/12 GARP attempts
denied by sudo, 0 successful emissions; pcap shows runner ARP for
recycled EIP .232 stuck on the prior VPC's gw chassisredirect MAC
(02:75:d9:ef:d8:4b) while OVN NB has handed .232 to a new VPC
with a different gw MAC; pcap also shows runner sending 174 SYNs
to recycled EIP .233 with 0 SYN+ACKs received.

Fix: add /usr/bin/ovn-appctl to the spinifex-vpcd NOPASSWD grant.
Trivial; ovn-appctl is already trusted via the existing NB/SB
read-write grants.

Follow-ups (separate change): tighten host.InjectGARP error
classification so sudo-deny is loud (Error or fatal) rather than
silently warn-and-continue; add a boot-time self-check that
verifies sudo permissions for every host-tool the daemon will
shell out to.
2026-06-02 21:00:20 +10:00
joshsiv-mulga ba7253e2c6 ci(e2e): fix Start Packet Capture EACCES + PID-tracking on tcpdump (siv-167)
Two bugs in afd63ed9:

1. `sudo mkdir` makes /tmp/spinifex-diag root-owned 0755. The
   subsequent `> /tmp/spinifex-diag/tcpdump.log` is performed by
   the calling tf-user shell BEFORE sudo gets the command, failing
   with Permission denied. action shell runs with `set -e` so the
   step aborts.

2. `sudo nohup ... &; echo $!` captures the wrong PID — `$!` is the
   backgrounded sudo, which may exit when its target dies, leaving
   stale tcpdump.pid.

Fixes:
- chmod 0777 on /tmp/spinifex-diag after creating it (next steps'
  redirects from tf-user shell now work).
- Wrap the tcpdump launch in `sudo bash -c '...'` so backgrounding
  and `$!` happen inside the sudo'd shell — `$!` is the actual
  tcpdump PID (nohup execs, sudo bash holds it). Captures stdin
  to /dev/null, stdout/stderr to /tmp/spinifex-diag/tcpdump.log.
- sleep 2 (was 1) — gives tcpdump time to fully init pcap header.
- Hard fail (exit 1) if PID is missing or process dead, so the
  step's failure is visible instead of a silent green.

bash -n verified.
2026-06-02 19:45:53 +10:00
joshsiv-mulga afd63ed967 ci(e2e): Phase 1 diag — tcpdump br-wan + bridge fdb + hairpin modes (siv-167)
Mulga-siv-167 Phase 1. Adds evidence-capture for the LB
single-host return-path drop class:

e2e_single only:
- New step 'Start Packet Capture' between Bootstrap and Run E2E
  Tests. SSHes to test VM and starts background tcpdump on br-wan
  capturing TCP/22/80/443/9999 + ARP into /tmp/spinifex-diag/br-wan.pcap.
  PID stored at /tmp/spinifex-diag/tcpdump.pid.

All three jobs (single, pseudo-multi, real-multi):
- Collect Diagnostics: kill tcpdump (single only — PID file
  guarded) -INT for graceful flush, falls through to -KILL after 5s.
- Adds journal-spinifex-full.log (no -n truncation) alongside
  the existing -n 10000 capped one.
- Adds bridge fdb show, bridge link, and hairpin_mode/learning/flood
  for every br-wan brif — needed to confirm/disconfirm the
  hairpin-loss hypothesis in the plan doc.
- Adds 'chmod -R a+r /tmp/spinifex-diag' before tar to ensure pcap
  (created by sudo tcpdump as root) is readable by tf-user.

bash -n verified on all four rendered scripts. YAML parses.
Zero new gold-image deps (tcpdump, bridge present in base image).
2026-06-02 19:28:54 +10:00
joshsiv-mulga 2574956f08 ansible cluster-bootstrap 2026-06-02 15:38:56 +10:00
joshsiv-mulga 3f4613c28b ci(e2e): capture OVN/OVS/journal diagnostics on every run
Adds a Collect Diagnostics + Upload Diagnostics step pair to all three
E2E jobs (single, pseudo-multi, real-multi). Runs before Teardown,
if: always() so green runs produce baselines too. SSHes to test
VM(s), dumps:

- journalctl for spinifex-*, ovn-*, openvswitch-*
- ovs-vsctl/ofctl/appctl: bridge state, br-int + br-ex flows,
  dpctl flow + conntrack tables
- ovn-nbctl/sbctl: show, Port_Binding, Chassis, NAT, Logical_Router
- ovn-appctl ct-zone-list (LR -> ct_zone mapping)
- ip addr/route/neigh, iptables-save, nft list, dmesg, virsh list

Tarred, scp'd back, uploaded as e2e-diag-{single,pseudo,multi}-<run>
artifact (14-day retention).

OVS-native ovs-appctl dpctl/dump-conntrack — no new gold-image deps.
Multi-node job writes script to RUNNER_TEMP then ssh-stdin's it
per-node (avoids YAML/heredoc indent traps inside for-loop). bash -n
verified on all three rendered scripts.

Unblocks siv-111 debug loop: bash LB driver does not emit an
analysis bundle on failure, so post-W2 recurrences have been blind.
Workflow-level capture is hypothesis-free.
2026-06-02 14:56:41 +10:00
joshsiv-mulga 72a6a59d80 fix(network): inject GARP after AddEIP to refresh upstream ARP on EIP recycle
ovn-controller emits gratuitous ARPs automatically when a NAT-bound LSP
migrates chassis, but not when an external IP is reassigned to a different
LR whose chassisredirect MAC differs from the prior occupant's. In CI
single-host runs the WAN pool slice is small enough that the same EIP
recycles across VPCs within the 60-300s kernel ARP timeout, so upstream
caches keep pointing at the dead chassis-redirect MAC and packets to the
new VM never arrive.

Fix: add a post-AddEIP hook that runs `ovn-appctl -t ovn-controller
inject-garp <port>` (OVN 22.09+). Port is the EIP's LSP in distributed
NAT or "cr-gw-<vpcID>" in centralized NAT. Best-effort — failure logs a
warning and the NAT install still succeeds.

- network/host/garp.go: new L0 shell-out helper InjectGARP.
- network/policy/nat.go: GARPEmitter option type, called after the
  flows-ready barrier in AddEIP.
- vpcd: wire the production emitter that derives the right OVN port
  from the EIPSpec.
- invariants: add ovn-appctl to the host-tool ban list so future
  callers are forced into network/host/.
2026-06-02 13:38:52 +10:00
Josh Siviour dd65a2dfa6 feat(elbv2): ListenerRules CRUD with HAProxy ACL routing (#275)
* feat(elbv2): ListenerRules CRUD with HAProxy ACL routing

Implement CreateRule, ModifyRule, DeleteRule, DescribeRules, and
SetRulePriorities for ALB listeners. Rules support host-header,
path-pattern, http-header, http-request-method, source-ip, and
query-string condition fields. Actions limited to forward (single
target group); redirect and fixed-response deferred.

HAProxy frontends emit per-rule ACLs with `use_backend ... if <acls>`
ordered by priority. Wildcards in host/path map to HAProxy match
modes (`-m beg/end/sub/str`). Condition values are validated at
store-time and re-validated at render-time to prevent config
injection. Target groups referenced by rule actions are protected
against deletion. Deleting a listener cascades its rules.

Frontend adds a Rules tab beneath each listener row showing rules
with conditions and target groups, plus add/edit/delete dialogs
with field-typed condition inputs.

mulga-950

* test(elbv2): rule CRUD e2e + render coverage for all condition fields

Adds Internal_ALB_ListenerRules subtest exercising CreateRule, ModifyRule,
DeleteRule, and DescribeRules over a real ALB with HAProxy. Two TGs with
disjoint backends (app#0 -> tgA, app#1 -> tgB) let the probe responder
identify which TG actually served the request, so path-pattern routing
can be asserted without inspecting internal state.

Extends app-userdata.sh with alpha/ and beta/ sub-paths and extends
client-userdata.sh trigger to accept optional http_path and host fields
so probes can target specific paths and Host headers. Both changes are
backward-compatible: existing callers default to / with no Host override.

Adds unit-test coverage for every condition-field render path
(http-header, http-request-method, query-string with and without key,
source-ip) plus error-path validation tests for CreateRule, ModifyRule,
DeleteRule, DescribeRules, and SetRulePriorities. Lifts diff coverage
above the 60% gate.

* test(elbv2): wait for tgB healthy after rule creation, not before

Spinifex only health-checks a target group once it is referenced by a
listener default action or a rule action. The previous ordering waited
for tgB healthy before CreateRule wired it, so health checks never ran
and the wait timed out. Move the WaitForTargetsHealthy(tgB) call after
createPathRule.

* fix(elbv2): include rule-action TGs in TargetGroupsForLB

healthChecker uses Store.TargetGroupsForLB to map HAProxy server
statuses back to TargetGroupRecord entries. The previous implementation
walked only listener DefaultActions, so a target group referenced only
by a CreateRule action was invisible to the health checker — HAProxy
probed its backends but the resulting health never propagated to the
store. DescribeTargetHealth reported the targets as 'initial' forever.

Extend TargetGroupsForLB to walk rule actions per listener as well.
Adds a unit test that wires a TG via CreateRule and asserts the
resolver returns it.

* test(elbv2): fix wait-for-rule logic to poll away from default backend

waitForPathRouted required the caller to name the expected new host, but
at the post-CreateRule wait point we only know the default host (appA);
the rule target hostname (appB) is discovered by the subsequent probe.
The previous code passed appA as both "new" and "old", so the wait
checked "see appA" against "/alpha/" responses — which never matched
because the rule had successfully routed appA out.

Replace with two narrower helpers: waitForPathRoutedAway (poll until
host X stops appearing) and waitForPathRoutedTo (poll until host Y
appears). Update the three call sites to use the variant that matches
what the caller actually knows at that point.

* fix(elbv2): IAM-style error envelope + ModifyTargetGroup + listener attr stubs

ELBv2 success responses use the IAM-style XML envelope (<ErrorResponse>),
but error responses were emitted with the EC2 envelope (<Response>),
which aws-sdk-go-v2 cannot deserialize for ELBv2 and surfaces as
"UnknownError: UnknownError" — defeating provider-side InvalidAction
ignores (e.g. terraform-provider-aws v5.100's DescribeCapacityReservation
swallow). Route elasticloadbalancing errors through GenerateIAMErrorResponse.

Add ModifyTargetGroup end-to-end (interface, impl, NATS shim, daemon
handler, gateway dispatch) so terraform-provider-aws can set health-check
fields after CreateTargetGroup without infinite drift. Persist
HealthCheckEnabled on TargetGroupRecord and emit it in tgRecordToSDK so
the provider sees the configured value across refresh cycles.

Stub DescribeListenerAttributes / ModifyListenerAttributes with
hand-rolled input/output structs (aws-sdk-go v1.55 lacks these types).
Returns empty attribute list — sufficient for default-config workflows.

* test(elbv2): cover ModifyTargetGroup + listener attribute stubs

Extend handler tests with all-fields, invalid path/matcher, wrong-account
ModifyTargetGroup cases plus HealthCheckEnabled assertion on
CreateTargetGroup. Add gateway-layer validation tests for the new
DescribeListenerAttributes, ModifyListenerAttributes, and ModifyTargetGroup
dispatchers. Raises diff coverage from 58.8% to 63.7%.
2026-06-02 12:15:42 +10:00
brynmailer-mdc 0c577da6e2 test: cover encryption wiring on feat/encryption-at-rest
Lifts diff-coverage on PR #276 from 37.5% to 63.5% (threshold 60%) so
CI's Check Diff Coverage step passes.

- utils: LoadViperblockMasterKey — empty path, happy path + cache reuse,
  load error, and bad-perm failure-not-cached.
- handlers/ec2/image: clusterEncryptionEnabled — nil config, empty key
  file, masterkey load error (warn + false), and key-loaded (true).
- handlers/ec2/volume:
  - GetVolumeConfig surfaces "failed to unmarshal config" when the body
    is neither a valid VBState nor a wrapper.
  - mergeVolumeConfig refuses to re-marshal an encrypted VBState (would
    strip the AES-GCM tag and brick the volume).
  - CreateVolume returns ServerInternal when EncryptionKeyFile is set
    but unreadable.
2026-06-02 11:03:58 +10:00
brynmailer-mdc 557d3e4d59 feat: derive Encrypted from VBState.EncryptionEnabled, drop IsEncrypted reads
VolumeMetadata.IsEncrypted is being removed from viperblock — it was
hardcoded false everywhere in spinifex and misrepresented the per-volume
encryption status to AWS SDK callers. The authoritative flag is now
VBState.EncryptionEnabled, persisted by viperblock at New() when
MasterKey != nil.

- volume CreateVolume drops the dead IsEncrypted struct member and
  surfaces Encrypted=(mkey != nil) on the EC2 response.
- volume getVolumeByID now decodes the full VBState (falling back to a
  wrapper-only blob for legacy pre-encryption volumes) so it can read
  state.EncryptionEnabled directly.
- snapshot CreateSnapshot pulls Encrypted from the source volume's
  VBState.EncryptionEnabled (already loaded one level up).
- image synthesizeRootBlockDeviceMapping takes the cluster encryption
  posture (mkey != nil) since AMI metadata carries no per-image flag;
  cached masterkey load keeps the hot path cheap.
- Test fixtures drop the now-defunct IsEncrypted lines; the volume
  fixture that asserts Encrypted=true switches to a full VBState seed
  with EncryptionEnabled=true.
2026-06-02 11:03:58 +10:00
brynmailer-mdc b5220996e1 fix: only clone AMI on os.ErrNotExist in prepareRootVolume
LoadStateRequest can fail for many reasons — HMAC integrity, key
mismatch, transient backend 5xx, JSON parse failure. The previous
fall-through treated every error as "volume doesn't exist, clone from
AMI", which would overwrite the legitimate encrypted volume's
config.json with AMI base-map state on a tamper or transient backend
fault. Discriminate os.ErrNotExist explicitly and abort otherwise.
2026-06-02 11:03:58 +10:00
brynmailer-mdc ef50392f9e feat: wire viperblock at-rest encryption key through daemon and AWS handlers
Adds EncryptionKeyFile to ViperblockConfig (cluster config) and
viperblockd.Config. viperblockd loads the master key once at
launchService start via masterkey.LoadShared and passes
MasterKey + EncryptionEnabled into the VB constructed for every
mounted volume.

AWS handlers (volume.CreateVolume, instance.newViperblock,
image.snapshotStoppedVolume) and the spx admin AMI-import path now
resolve the key via utils.LoadViperblockMasterKey — a process-wide
cache keyed by path so the per-VB lookup is one map hit after the
first load.

volume.mergeVolumeConfig: switch from json.Unmarshal to json.Decoder
so a trailing AES-GCM tag cannot route the body to the wrapper-only
path, and refuse outright when state.EncryptionEnabled — re-marshaling
an encrypted VBState here would strip the tag and brick the volume.

cmd/spinifex viperblock CLI grows a --encryption-key-file flag (env
SPINIFEX_VIPERBLOCK_ENCRYPTION_KEY_FILE) under a distinct viper key
so it does not collide with predastore's identically-named flag.
2026-06-02 11:03:58 +10:00
Josh Siviour 8883984f3f feat(eks): eks-server + eks-agent AMI manifests (#273)
* feat(eks): eks-server + eks-agent AMI manifests + builder INSTALL_FILES

Manifest-driven AMI build for the two EKS image variants (eks-v1.md Q12).
Lifted forward from cs-eks-6b so the K3s boot path can be smoke-tested in
isolation before CreateCluster orchestration lands.

Builder:
- build-system-image.sh gains optional INSTALL_FILES (src:dst pairs,
  mode 0644, parent dirs auto-created). Symmetric with INSTALL_BINARIES.
- ENABLE_SERVICES moves after INSTALL_FILES + SETUP_SCRIPT so init scripts
  the manifest references are on disk before rc-update enables them.

eks-server image (Alpine 3.21.7, q35, 4G):
- K3s v1.32.5+k3s1 (downloaded at bake time, SHA256 verified against the
  upstream sha256sum-amd64.txt trust anchor).
- nats-cli v0.4.0 (not in Alpine main/community — pulled from upstream
  release zip; unzip installed + purged in same setup step).
- OpenRC init scripts: k3s, eks-token-webhook, k3s-first-boot.
- Cron periodics under /etc/periodic/{15min,daily}/ for state-report +
  etcd-snapshot.
- k3s-first-boot publishes node-token + admin kubeconfig over NATS on
  first successful K3s healthz, then self-disables (sentinel + rc-update
  del).
- config.yaml.skel without webhook-token-auth — wiring it before the real
  webhook lands (cs-eks-6c) would block anonymous probes against /healthz.
  Orchestrator drops the live config + restarts k3s.

eks-agent image (Alpine 3.21.7, q35, 2G):
- Same pinned K3s release for server/agent lock-step.
- k3s-agent OpenRC service refuses to start without K3S_URL+K3S_TOKEN —
  fail-closed pre-orchestration.

eks-token-webhook stub (cmd/eks-token-webhook/main.go):
- 503 + Retry-After:30 on every path. Statically linked. Lets the AMI
  build succeed and kube-apiserver boot cleanly. Replaced wholesale by
  cs-eks-6c.

Init system divergence from spec wording: Alpine ships OpenRC, not
systemd. Unit files use .initd extensions and cron periodics instead of
.service / .timer. Bead-level intent (auto-enable on boot, periodic
execution) preserved.

Smoke-tested:
- eks-server: builds 300M qcow2; qemu q35 boot reaches K3s apiserver on
  6443 within ~120s; HTTPS probes return valid k8s Status JSON (the 401
  is K3s v1.32 default RBAC behaviour against anonymous, not a regression).
- eks-agent: builds 280M qcow2; qemu boot mounts root cleanly.

* feat(eks): make targets for eks-server + eks-agent AMI builds

- build-system-image gains subdir-manifest fallback: tries
  scripts/images/$(IMAGE).conf first, then scripts/images/$(IMAGE)/manifest.conf
  so the new EKS layout works alongside the existing flat lb manifest.
- build-eks-server-image / build-eks-agent-image — explicit convenience
  targets that delegate to the generic one.
2026-06-01 16:24:49 +10:00
Josh Siviour 785a5655e4 feat(sts): EKS Q4 — AssumeRoleWithWebIdentity + presigned GetCallerIdentity verify (#272)
* feat(sts): EKS Q4 STS extensions — interface + JWKS reader + stubs

Lays the structural slice of AssumeRoleWithWebIdentity + presigned-URL
GetCallerIdentity verify for IRSA. The verify-path bodies (JWT signature
check against fetched JWKS, claims validation, Federated-principal trust
policy evaluation, SigV4 presigned-URL canonical-request reconstruction)
land in follow-up commits on this branch.

Adds:
- handlers/sts/oidc_jwks.go — JWK/JWKS types, ParseEKSIssuerURL (defensive
  iss parsing), FetchClusterJWKS (KV-backed read from
  eks-account-{accountID}/clusters/{name}/oidc-jwks.json via the EKS store
  helpers).
- handlers/sts/oidc_jwks_test.go — unit tests over a real JetStream
  test fixture.
- handlers/sts/assume_role_with_web_identity.go — interface entry, stub
  returns ErrorNotImplemented.
- handlers/sts/presigned_url_verify.go — PresignedCallerIdentity type +
  VerifyPresignedGetCallerIdentity stub.
- gateway/sts/AssumeRoleWithWebIdentity.go — dispatch shell.

Modifies:
- handlers/sts/service.go — STSService interface gains
  AssumeRoleWithWebIdentity + VerifyPresignedGetCallerIdentity.
- gateway/sts.go — registers AssumeRoleWithWebIdentity in stsActions +
  stsSkipPolicyCheck (anonymous; trust-policy-gated in handler).
- gateway/sts_request_test.go, gateway/sts/handler_test.go,
  gateway/auth_test.go — stub implementations updated to satisfy
  extended STSService interface.

Anonymous routing for AssumeRoleWithWebIdentity (eks-v1.md Q5 mux rework)
lands in Sprint 6e — for now the action is registered on the standard STS
gateway and rejects non-SigV4 requests upstream.

Refs: cs-eks-sts-q4 (mulga monorepo bead)

* feat(sts): AssumeRoleWithWebIdentity + presigned GetCallerIdentity verify

Implements EKS Q4 STS extensions for IRSA + EKS token-webhook flows.

AssumeRoleWithWebIdentity:
- ES256 JWT verification against per-cluster JWKS (eks-account-{accountID}
  KV bucket), keyed by issuer host-path.
- Federated trust-policy evaluator (explicit-deny-wins, exact-match
  Principal.Federated, fail-closed on Principal: "*").
- Condition support scoped to StringEquals on {iss}:sub (exact) and
  {iss}:aud (set-membership). All other operators rejected at validator.
- OIDC provider registry check against iam-account-{roleAccountID}; v1
  does not support cross-account registration.
- New awserrors: InvalidIdentityToken, IDPRejectedClaim,
  IDPCommunicationError.

VerifyPresignedGetCallerIdentity:
- Hand-rolled SigV4 canonical-request reconstruction (no sdk dep).
- Mandatory X-K8s-Aws-Id in SignedHeaders + value pinned to
  expectedClusterName during canonicalisation — cross-cluster replay
  surfaces as a signature mismatch.
- AKID-prefix dispatch (ASIA → session credential, AKIA → IAM user).
- Strict envelope checks: algorithm, credential scope service/terminator,
  X-Amz-Date / credential-scope date agreement, expiry within
  X-Amz-Expires, 5-minute wire skew.

Tests:
- 14 web-identity scenarios (happy paths, tampering, expiry, wrong aud,
  unknown kid, HS256 rejection, federated-wildcard fail-closed,
  explicit-deny-wins, provider-not-registered).
- 12 presigned-URL scenarios including cross-cluster replay defence,
  missing-x-k8s-aws-id, tampered query, bad service in credential, AKIA
  + ASIA happy paths.
- Cross-cluster anti-replay invariant test (rejects matrix of variant
  cluster names — case-different, prefix, suffix).
- AWS SigV4 known-vector test for deriveSigningKey.

Gateway:
- TODO documents that AssumeRoleWithWebIdentity is currently dispatched
  on the SigV4-gated path; a pre-auth route is needed so a projected
  ServiceAccount token alone can authenticate the caller.

IAM:
- Relaxes trust-policy Condition validator: now permitted only when
  Action is exactly [sts:AssumeRoleWithWebIdentity] and operator is
  StringEquals. Preserves loud failure for sts:AssumeRole.
2026-06-01 14:29:35 +10:00
tomnewton-mulga 9d8597317a Feat/mig capable (#271)
* feat(gpu): add NVIDIA MIG multi-instance GPU support

Partitions MIG-capable GPUs (A100, A30, H100) into isolated slices exposed
as mdev devices instead of whole-GPU VFIO passthrough. VMs attach via
-device vfio-pci,sysfsdev=<mdev-path> using the GPUAttachment discriminated
union (PCIAddress for whole-GPU, MdevPath for MIG).

Key changes:
- gpu: new MIGProfile/MIGInstance types, IsMIGCapable model map, mig.go ops
  (EnableMIGMode, DisableMIGMode, CreateInstances, ListInstances,
  DestroyAllInstances, enrichMdevPaths)
- gpu.Manager: Claim() returns (*GPUDevice, *MIGInstance, error); AddMIGInstances,
  ReclaimByMdev for restart recovery; MarkMIGFailed per-slice
- daemon: buildGPUPool helper partitions devices into whole-GPU vs MIG pools;
  MIGProfile config field selects profile per node or per GPU override
- vm.VM: GPUAttachments []gpu.GPUAttachment replaces GPUPCIAddresses []string
- admin CLI: spx admin gpu mig status/enable/disable subcommands with
  admin.SetMIGProfile for spinifex.toml writes
- docs: COMMANDS.md updated with three new MIG management command rows

* test(gpu): unit tests for MIG parsers and pool manager

Cover all pure parsing functions (parseMIGMemory, isCapacityExhaustedError,
extractProfileFields/GIFields, parseMIGProfiles, parseMIGInstances,
parseCreatedGIID/CIID) with realistic nvidia-smi fixture output.

Manager MIG tests cover AddMIGInstances, Claim/Release on mdev-backed entries,
MarkMIGFailed, ReclaimByMdev, and interaction with whole-GPU MarkFailed — all
using fake mdev directories in t.TempDir() so no GPU hardware is required.

* feat(gpu): dynamic MIG profile-per-request with on-demand GI/CI lifecycle

Replaces static config-driven MIG pre-carving with a dynamic model where
the MIG profile is specified per RunInstances call via mig.<profile>
instance type names (e.g. mig.1g.10gb) that mirror nvidia-smi nomenclature
directly.

- Manager.Claim(instanceID, profileName): fast path claims a pre-carved
  slice; slow path dequeues a free MIG GPU, releases the lock, calls
  nvidia-smi mig -cgi/-cci to carve all slices, then reclaims the lock to
  commit and return the first slice
- Manager.Release: last release on a dynamically-carved GPU calls
  DestroyAllInstances and returns the GPU to freeMIGGPUs, allowing a
  different profile on the next claim
- AddMIGGPU(dev): registers a fresh MIG GPU for dynamic allocation;
  AddMIGInstances (restart recovery) keeps its no-destroy semantics
- GenerateMIGTypes: produces mig.<profile> InstanceTypeInfo entries from
  gpu.ListProfiles at daemon startup; IsMIGType/MIGProfileFromType let
  callers inspect these names
- buildGPUPool: calls ListInstances for recovery, AddMIGGPU for fresh
  GPUs, ListProfiles to collect MIG profile specs for type generation;
  removes setupMIGInstances and migProfileForDevice
- GPUClaimer.Claim gains profileName param; daemonGPUClaimer, service_impl
  call sites, and fakeGPUClaimer all updated

* fix(gpu): correct mdev parent detection and make --profile optional for mig enable

enrichMdevPaths was using os.Readlink on "parent_bus_0" (a non-existent
sysfs attribute) and then on ".." (a directory, not a symlink) — both
would fail on real NVIDIA hardware, breaking CreateInstances and
ListInstances on daemon restart recovery. Fix: read the mdev UUID's own
symlink target, which always encodes the parent GPU's PCI address in its
path (e.g. .../0000:01:00.0/<uuid>).

Make basePath injectable in enrichMdevPaths so the fix is covered by a
new set of unit tests using temp-dir symlinks (TestEnrichMdevPaths_*).

Remove the MarkFlagRequired("profile") from "spx admin gpu mig enable":
Phase 2 is fully dynamic — the daemon carves slices on demand at
RunInstances time. Without --profile, the command just enables MIG mode
and destroys any pre-carved slices so the daemon starts with a free GPU.
With --profile, behaviour is unchanged (pre-carve a static pool).

* chore: writeups for smci and arcee

* test: add coverage for MIG exec, manager slow-path, instancetypes and admin

- Add mig_exec_test.go with fake nvidia-smi harness covering Enable/Disable MIGMode,
  IsMIGModeEnabled, DestroyAllInstances, ListProfiles, CreateInstances, ListInstances
- Extend manager_mig_test.go with slow-path Claim/Release tests using fake nvidia-smi
- Add generate_test.go coverage for IsMIGType, MIGProfileFromType, GenerateMIGTypes
- Add admin_test.go coverage for SetMIGProfile (create, update, idempotent, error paths)
- Make mdevBasePath a var to allow sysfs injection in tests
- Add json tags to GPUAttachment fields to satisfy musttag linter

Diff coverage: 75.6% (threshold: 60%).

* fixed gpu passthrough doc

* Revert "fixed gpu passthrough doc"

This reverts commit 1e20f5ab13.

* feat: Added RTX 6000 GPU MIG support and fixed docs

* feat: expose GPU/MIG inventory in GetNodes and GetVMs admin API

Add Manager.Snapshot() for lock-safe pool inspection. Extend
NodeStatusResponse with GPUs []GPUInfo (per-physical-GPU inventory
with per-slice detail for MIG) and VMInfo with GPU *VMGPUInfo
(model, VRAM, profile, mdev path for the attached GPU). Populate
both in handleNodeStatus and handleNodeVMs via buildGPUInventory,
buildPoolLookup, and resolveVMGPU helpers.

* feat: surface GPU info on EC2 instance detail page (mulga-new-03)

Admin users see a GPU card (model, VRAM, attachment type, MIG profile/mdev
path or PCI address) populated from the GetVMs admin API.  Adds formatVRAMMiB
helper and VMGPUInfo/GPUInfo/GPUSliceInfo types to the frontend.

* feat: GPU columns + inventory card on Nodes page (mulga-new-04)

Adds GPU column to VMsTable (model/VRAM or MIG profile) and ResourceTable
(alloc/total GPUs). Section 4 GPU Inventory card shows per-node GPU state with
per-slice MIG drill-down. Also adds total_gpus/alloc_gpus to NodeInfo type.

* feat: grouped GPU-aware instance type picker in Run Instances (mulga-new-05)

Splits the flat instance type dropdown into Standard and GPU-Accelerated groups.
GPU items show total VRAM alongside the type name. Selecting a GPU type surfaces
an info line with GPU name and VRAM.

* testing image builder scripts

* fixed nvidia build script

* more descriptive errors for image build script

* more fixes

* more fixes

* fix: surface PCI address in whole-GPU VMGPUInfo and rebuild frontend dist

Add PCIAddress to VMGPUInfo, populate it in resolveVMGPU for whole-GPU
passthrough, and fix the instance detail page which was incorrectly
showing instance type in the PCI address field. Rebuilt frontend dist
to include GPU UI changes (inventory card, resource columns, GPU-aware
instance type picker).

* fix: improve kernel version detection in nvidia image build script

Fall back to /lib/modules when /boot/vmlinuz-* is absent, and add
diagnostic output to help debug kernel detection failures.

* fixing nvidia image build script

* fix ami name issue

* correct kernel versions

* another fix

* image build works, added docker and nvidia toolkit for QoL

* fix: add gpg

* fixing amd image builder

* add universe

* another fix

* nvm

* fix docker user group issues

* make rocm land where it is supposed to

* fix docker groups

* feat: add Ubuntu 26.04 GPU AMI catalog entries and fix build script parted detection

Add ubuntu-26.04-nvidia-gpu-x86_64 and ubuntu-26.04-amd-gpu-x86_64 to AvailableImages,
hosted on iso.mulgadc.com/system-ami/ with SHA256 checksums. Fix build-system-image.sh
to detect parted in /usr/sbin when not on PATH. Suppress gosec false positives in DHCP
manager (cancel stored in leaseLoop) and promisc ioctl (standard syscall uintptr pattern).

* Updated passthrough doc regarding GPU images

* fix: remove orphaned nolint directives (golangci-lint v2.12.2 no longer flags G115/G118)

* chore: remove stale spinifex@192.168.3.107 directory

Scripts were accidentally committed with a node hostname as the path
prefix during initial testing. Correct copies live in scripts/images/.
2026-06-01 13:48:13 +10:00
Josh Siviour e7a25316f0 feat(eks): gateway + handler scaffolding for EKS control plane (#267)
* feat(eks): gateway + handler scaffolding for EKS control plane

Lands the EKS service contract — gateway REST-JSON dispatcher, handler
interface + stub impl, JetStream KV bucket layout, and daemon wiring —
ahead of the K3s control-plane bodies.

Every action currently returns NotImplemented (HTTP 501 + JSON
NotImplementedException) so downstream work can call into a stable
contract while real bodies land sprint by sprint.

- Gateway: 34-action REST-JSON routing table under svc=eks, per-action
  closures dispatch to handlers_eks.NATSEKSService. ErrorHandler /
  writeClusterUnavailable / writeThrottleError gain EKS JSON branches so
  clients see application/x-amz-json-1.1 envelopes.
- Handler: EKSService interface + NATS wrapper + stub impl with
  var _ EKSService compile checks on both implementations.
- KV: eks-account-{accountID} lazy per-account bucket factory plus the
  shared spinifex-eks-leader bucket (TTL 60s, History 1) bootstrapped
  at daemon start. Key-path helpers cover the full Q2 layout
  (cluster meta, nodegroups, access entries, OIDC providers + signing
  key + JWKS, admin kubeconfig, K3s node-token, events).
- Daemon: 34 eks.<Action> subscriptions on the spinifex-workers queue
  group, init via initServiceWithRetry, mirrors the ELBv2 layout.
- awserrors: new ErrorNotImplemented constant (HTTP 501).
- tags: ManagedByEKS constant for downstream SG/NLB/VM tagging.

* test(eks): cover scaffolding wrappers + daemon NATS handlers

Adds two test files closing the diff-coverage gap on the EKS
scaffolding commit:

- spinifex/gateway/eks/wrappers_test.go drives every per-action
  gateway wrapper (cluster, nodegroup, access, addons, oidc, tags —
  34 actions, 50+ subtest invocations) through an embedded NATS
  server with a `eks.>` catch-all stub responder. Covers the
  wrappers themselves plus handlers/eks/service_nats.go via the
  NewNATSEKSService construction inside each wrapper. Bad-JSON
  branches in unmarshalIfBody are also covered.

- spinifex/daemon/daemon_handlers_eks_test.go constructs a minimal
  Daemon{eksService: real impl} and dispatches each of the 34
  handleEKS* handlers via embedded NATS, asserting the NotImplemented
  error code rides back through handleNATSRequest.

Lifts diff coverage from 27.3% to 62.6%, above the 60% threshold.
2026-06-01 10:47:23 +10:00
Josh Siviour 3415d9f3de fix(network): IGW route-table AWS parity + per-subnet egress gating (#270)
* fix(network): IGW default route AWS-parity via per-subnet LR policy

ADR-0006's IGWManager.AttachIGW installed a VPC-router-wide 0.0.0.0/0
static route at attach time, violating AWS semantics: every subnet on
the LR saw egress to the IGW regardless of its route table. Private
subnets that should be IGW-isolated were not.

Move IGW egress lifecycle onto the route-table API. CreateRoute(IGW,
0.0.0.0/0) emits vpc.add-igw-route per associated subnet; the network
subscriber installs an OVN Logical_Router_Policy matching
`inport == "rtr-<subnetID>" && ip4.dst == 0.0.0.0/0` with action
`reroute` via the IGW gateway port. DeleteRoute / DisassociateRouteTable
/ ReplaceRouteTableAssociation tear it down. AssociateRouteTable emits
add events so the terraform ordering (CreateRoute -> Associate) is
honored.

Additions:
- nbdb.LogicalRouterPolicy + Logical_Router_Policy registration
- ovn.Client {Add,Delete,Find,List}LogicalRouterPolicy + live + mock
- policy.RouteManager.{Add,Delete}SubnetEgress with priority constants
- external.IGWManager.{Ensure,Remove}SubnetEgress resolving nexthop +
  output port from the gateway state
- subscribers handleAddIGWRoute / handleDeleteIGWRoute on
  vpc.{add,delete}-igw-route
- routetable publishIGWRouteEvents / *ForAssociation / *ForSubnet

Test updates:
- network/policy: AddSubnetEgress idempotency, drift-replace, per-subnet
  separation, DeleteSubnetEgress
- network/external: AttachIGW must NOT install a router-wide default
  route; EnsureSubnetEgress installs the per-subnet policy with the
  resolved nexthop (link-local fallback + allocator override paths)
- handlers/ec2/routetable: CreateRoute(IGW), Associate, DeleteRoute,
  Disassociate publish events with the expected subnetID + igwID
- ovn/nbdb: table-count + Logical_Router_Policy presence
- subscribers: TestSubscribe_RegistersAllTopics covers the two new topics

* fix(network): NATGW per-subnet egress + DeleteRoute event symmetry

handlers/ec2/routetable:
- DeleteRoute now publishes vpc.delete-nat-gateway per associated subnet
  (mirror of the IGW DeleteRoute path) so the subscriber tears down both
  the SNAT rule and the per-subnet egress policy.
- publishNatGatewayEvent* signatures carry SubnetId + DestinationCidr so
  the subscriber can install the matching Logical_Router_Policy.

network/external:
- IGWManager: EnsureNATGatewaySubnetEgress / RemoveNATGatewaySubnetEgress
  install/remove a per-subnet LR policy at priority SubnetEgressPriorityNATGW.
  Same nexthop and output port as the IGW priority sibling; lower priority
  so an IGW route wins when both apply to the same subnet.
- EnsureSubnetEgress delegates to ensureSubnetEgressAtPriority for shared
  validation, lookup, and slog tagging.

network/subscribers:
- handleAddNATGateway: after SNAT install, parse DestinationCidr (defaults
  to 0.0.0.0/0) and call EnsureNATGatewaySubnetEgress. Without this the LR
  has no route to egress NAT'd packets and private-subnet traffic is
  dropped (E2E Phase 8d regression).
- handleDeleteNATGateway: remove the per-subnet policy FIRST, then detach
  SNAT, so packets are never routed unmasqueraded after SNAT removal.
- NATGatewayEvent gains SubnetId + DestinationCidr.

Tests:
- policy.AddSubnetEgress validation + drift-replace + propagation paths.
- mock LR-policy methods reject missing routers and tolerate dangling UUIDs.
- subscribers cover NATGW add/delete with invalid CIDR, bad JSON, missing
  router, IGW-route bad JSON + invalid CIDR. Full end-to-end add+delete
  via NATS asserting policy lifecycle.
- IGW manager covers RemoveSubnetEgress / RemoveNATGatewaySubnetEgress
  empty-arg rejection + delete error propagation.
- routetable: DeleteRoute(NATGW) publishes per associated subnet.

* fix(network): exclude VPC CIDR from per-subnet egress reroute predicate

In-VPC traffic (e.g. bastion -> private SSH) was being intercepted by the
NATGW per-subnet egress LR policy on `ip4.dst == 0.0.0.0/0` and forwarded
out the gateway with SNAT, breaking peer-subnet connectivity. Append
`&& ip4.dst != <vpcCIDR>` to the match so in-VPC destinations skip the
reroute and follow the directly-connected route. Apply to both IGW (1000)
and NATGW (900) priorities. CIDR is read from the LR ExternalIDs label
populated at VPC create.

DeleteSubnetEgress takes the same excludes so the match string is
identical on cleanup. igwManager.vpcExcludeCIDRs fetches from the router
each call; lookup failure returns nil and the policy installs without
exclusions (preserves prior behaviour as fallback).

* fix(routetable): publish per-subnet events for implicit main-RT membership

E2E run 26620082197 RCA: subnets with no explicit RT association inherit
the VPC main route table per AWS semantics, but publishIGWRouteEvents and
publishNatGatewayEvents iterated only record.Associations and skipped
Main:true/SubnetId:"" sentinels. Main RT carries exactly one such
sentinel, so CreateRoute(igw)/CreateRoute(natgw) on the main RT fanned
out to ZERO subnets — subscriber never called EnsureSubnetEgress, OVN
LR policy never installed, ping 8.8.8.8 from default-VPC VMs dropped at
the VPC router. Caused TestVPCSubnetE2E, TestNATGateway,
TestMultinodeSpread/NATGatewayInternet to fail.

Add subnetsImplicitlyOnMainRT helper that enumerates VPC subnets
without explicit non-main associations, and fan publish to them when
record.IsMain. Apply to all three publish helpers (IGW, NATGW,
NATGW-delete).

Symmetric fixes for effective-RT changes:
- AssociateRouteTable: subnet leaves implicit main → emit deletes for
  main RT's routes before adds for explicit RT
- DisassociateRouteTable: subnet returns to implicit main → emit adds
  for main RT's routes after deletes for departing RT

* chore(e2e): capture per-LR lr-route-list/lr-policy-list/lr-nat-list

ovn-nbctl show does not dump static routes or policies. Adds three
per-LR captures so RCA can verify policy/route install state after
the IGW per-subnet refactor.

* chore(e2e): tcpdump br-wan + neigh/fdb/conntrack capture during tests

EIP egress regression on feat/igw-route-table-aws-parity shows SNAT
packets present (n_packets>0) but pings still time out. Post-teardown
ovn.* snapshots can't tell whether replies actually arrived on br-wan
or got dropped at L2 / by upstream router.

start-net-capture.sh: nohup tcpdump on br-wan filtered to 192.168.0.0/23
(EIP pool) + ARP for same range, 200-byte snaplen, 64 MiB cap. Pair:
capture-net-diag.sh stops it via /tmp/spinifex-e2e-tcpdump.pid and copies
wan.pcap into net-diag/.

Also added neigh/bridge-fdb/conntrack dumps to capture-net-diag.sh so
L2/L3 binding state is visible alongside the existing OVN dumps.

Wired both single-VM and multinode workflows to start capture before
the e2e run; teardown step picks up the pcap automatically.

* fix(reconcile): rebuild IGW/NATGW per-subnet egress from KV

Publisher fires vpc.add-igw-route during default-VPC bootstrap before the
subscriber daemon attaches to the topic. NATS core pub/sub drops the
message, leaving the LR without a 0.0.0.0/0 policy and off-subnet egress
broken on the affected VPC for the lifetime of the process. Reproduced
in CI: TestVPCSubnetE2E bastion EIP could ARP and DNS its on-LAN
neighbour but never reach 8.8.8.8.

LoadIntentFromKV now fans every IGW or NAT-gateway RT route out over
its explicit + implicit-main subnets and the reconcile pass invokes
EnsureSubnetEgress / EnsureNATGatewaySubnetEgress for each one. Same
shape as publishIGWRouteEvents so the bootstrap and the runtime event
path produce identical OVN state.

* fix(routes): serialize OVN egress wiring via request-reply

vpc.igw-attach, vpc.add-igw-route and vpc.add-nat-gateway were fire-and-forget
Publish, racing the subscriber's AttachIGW barrier. AttachInternetGateway
returned before vpcd finished wiring the OVN gateway LRP, so a follow-up
CreateRoute(IGW) published an add-igw-route event that the subscriber
processed in a parallel goroutine — installing a Logical_Router_Policy with a
nexthop the LRP didn't yet expose. northd compiled an inert reroute that
never recovered, leaving the bastion's egress traffic blackholed (no packets
dst 8.8.8.8 from the failing VPC's EIP even though local DNS succeeded).

Switch the three add-* publishers to utils.RequestEvent. The subscriber ACKs
once OVN state is committed, so the gateway handler can't issue subsequent
route events against a half-wired router. delete-* paths stay Publish —
teardown ordering doesn't matter.

handleAddNATGateway now calls respond() at every exit so requesters don't
hang. Route-table tests gain an ackSub wrapper (async subscribe + auto-Reply)
so request-based publishers complete during unit tests.

* Revert "fix(routes): serialize OVN egress wiring via request-reply"

This reverts commit bf6f77d5bc8b21f72ed5867175d5a67c010066c8.

* fix(igw): restore default static route in AttachIGW/DetachIGW

OVN 25.03 LR pipeline runs lr_in_ip_routing (table 15) BEFORE lr_in_policy
(table 17). When this branch swapped the per-VPC default static route for
the per-subnet Logical_Router_Policy reroute installed by EnsureSubnetEgress,
external destinations started dropping at routing priority-0 before the
policy table ran. Reproduced locally: ovn-trace stops at table 15 drop, ping
8.8.8.8 from inside a fresh-VPC bastion produced zero packets on br-wan
until `ovn-nbctl lr-route-add <router> 0.0.0.0/0 <wan-gw> <gw-port>` was
issued manually — after which the same ping succeeded immediately. dev still
green because dev calls AddDefaultRoute on AttachIGW.

Restore the original AddDefaultRoute / DeleteDefaultRoute calls; keep the
per-subnet EnsureSubnetEgress machinery intact so future per-subnet egress
gating (DROP policies for subnets whose RT lacks a 0.0.0.0/0 route) can
layer on top. Flip the two TestAttachIGW assertions that pinned the
"AttachIGW must not install a default static route" expectation.

Pairs with revert of bf6f77d5 in the previous commit (request-reply
serialization treated a non-existent race; real bug was missing routing
fallback).

* feat(network): per-subnet egress drop gating for AWS RT parity

VPC LRs carry a router-wide 0.0.0.0/0 default static route while an IGW is
attached (lr_in_ip_routing runs before lr_in_policy on OVN 25.03, so per-
subnet reroute alone is insufficient). Subnets whose effective route table
lacks 0.0.0.0/0 were previously able to egress via that default route,
violating AWS semantics.

Install an LR_Policy DROP at SubnetEgressPriorityDrop=1100 (above IGW=1000
and NATGW=900) for unrouted subnets. Match excludes VPC CIDR, link-local
(169.254/16) and multicast (224/4) so intra-VPC, DHCP/metadata and
multicast still flow.

Wiring:
- policy.RouteManager gains AddSubnetEgressDrop / DeleteSubnetEgressDrop.
- external.IGWManager gains EnsureSubnetEgressDrop / RemoveSubnetEgressDrop.
- New events: SubnetEgressGateEvent / SubnetEgressUngateEvent on topics
  vpc.gate-subnet-egress / vpc.ungate-subnet-egress.
- routetable handler publishes gate/ungate alongside existing add/delete
  IGW/NATGW route events on every CreateRoute/DeleteRoute/Associate/
  Disassociate/Replace mutation, based on subnet's recomputed effective RT.
- reconciler bootstrap path emits DropGates intent for subnets in IGW-
  attached VPCs whose effective RT lacks 0.0.0.0/0.

Tests cover primitive idempotency, drift recovery, event publishing per
mutation surface, implicit-main fan-out, and intent computation.

* fix(igw): fan out subnet egress gate decisions on IGW attach/detach

The reconciler computes per-subnet DROP policies for any subnet in an
IGW-attached VPC whose effective route table lacks 0.0.0.0/0, but those
decisions were only re-evaluated by the periodic drift tick (every
5 min). AttachInternetGateway / DetachInternetGateway now publish
gate/ungate events for every subnet in the VPC immediately, closing
the window where a freshly-attached IGW could leave unrouted subnets
unprotected.

Wiring: IGWServiceImpl gains a nil-safe GatePublisher hook satisfied
by RouteTableServiceImpl. Daemon installs the hook once both services
exist. RouteTableServiceImpl.PublishGateDecisionsForVPC enumerates the
VPC's subnets and reuses publishSubnetEgressGateDecision per subnet.

Also fixes the LB e2e suite, which built VPC + IGW + subnet without
ever creating a 0.0.0.0/0 → IGW route — relying on the pre-DROP-gate
behaviour where unrouted subnets still had silent egress via the
router-wide static route. The fixture now installs the explicit
public route on the main RT (AWS-faithful semantics for a public
subnet).

* fix(igw): skip gate fan-out on attach to avoid bootstrap race

AttachInternetGateway fan-out races with the default-VPC bootstrap path
in ensureDefaultVPCInfrastructureFor, which attaches the IGW and
immediately publishes a 0.0.0.0/0 → IGW CreateRoute event. The two
events land on distinct NATS subjects (vpc.gate-subnet-egress vs
vpc.ungate-subnet-egress) with no cross-subject ordering guarantee.
When ungate arrived first the subscriber became a no-op and the
subsequent gate installed a permanent DROP on the default subnet,
killing the return path for guest SSH probes
(TestMultinodeGuestSSH connect timeout to the instance public IP).

Detach fan-out is retained — no follow-up CreateRoute fires after
DetachInternetGateway so the path is race-free.

Subnets without a default route still get DROPped during the
reconciler's periodic drift pass (loadSubnetDropGates). The window is
re-opened to ≤5 min on user-driven AttachInternetGateway, which is
the original behaviour pre-mulga-siv-163. A follow-up bead can close
that gap properly by converting the gate/ungate subjects into a
single recompute trigger that re-reads effective RT state.

* fix(vpc): prevent duplicate main route table from bootstrap race

Concurrent multi-node daemons running EnsureDefaultVPC for the admin
account (bootstrap-pinned VpcId) each minted a fresh random rtb-ID and
Put it with IsMain=true. The KV ended up with two main route table
records for the same VPC.

CreateRoute's post-write gate recompute (per-subnet egress drop gating)
then resolved effectiveRouteTable non-deterministically across the two
IsMain=true records; when the orphan (route-less) RT won, the gate
decision became "no default egress" and vpc.gate-subnet-egress fired.
The subscriber installed a Priority-1100 DROP on the default subnet's
egress, killing the return path for guest SSH probes
(TestMultinodeGuestSSH connect timeout to 192.168.0.161 in run
26699045536).

Two-part fix:

1. createMainRouteTable scans rtbKV for an existing IsMain=true record
   on the same VPC before Put-ing a new one. Race window narrows from
   "always duplicates under concurrent bootstrap" to a sub-ms TOCTOU
   between scan and Put.

2. effectiveRouteTable / mainRouteTable use a deterministic preferMain
   tiebreak when multiple IsMain=true records exist: more routes >
   oldest CreatedAt > smaller RouteTableId. Defensive — any duplicate
   that slips through (cross-AZ restore, manual KV edit, residual race)
   still produces consistent egress gate decisions instead of flapping
   on KV scan order.

* fix(policy): atomic ACL replacement for SG mutations

Add ovn.Client.ReplaceACLs — detach + delete existing ACL rows and
attach freshly-created rows in one OVSDB transaction. EnsureSG and
UpdateSG now funnel through ReplaceACLs instead of ClearACLs +
AddACLs, closing the mid-flight window where the port group held
zero ACLs and tenant LSP traffic defaulted to drop (observable on
ICMP and on TCP SYNs that miss conntrack).

Mock client exposes ClearACLCalls / ReplaceACLCalls counters so
tests can assert atomicity. New TestSGManager_UpdateSG_AtomicReplace
fails if SG mutations ever fall back to the split path.
2026-06-01 09:54:29 +10:00
Josh Siviour 287487a4f2 feat(elbv2): implement ModifyListener (#268)
* feat(elbv2): implement ModifyListener

Adds AWS-compatible ModifyListener to the spinifex ELBv2 stack so
listeners can be edited in place — port, protocol, and default
actions — without the current delete+create dance that briefly drops
the listener from HAProxy.

- Handler interface, impl, and NATS wrapper get ModifyListener;
  validation mirrors CreateListener (LB type ↔ protocol, dup-port
  excluding self, target-group existence + protocol compatibility).
- Daemon subscribes to elbv2.ModifyListener on the spinifex-workers
  queue and a new gateway action dispatches it.
- Frontend exposes a per-row edit button that pre-fills a dialog from
  the existing listener and calls ModifyListenerCommand, replacing
  the "Listeners cannot be edited" note.
- Unit + NATS round-trip + frontend tests cover the new flow.

Cert / SslPolicy / Alpn handling stays out of scope and lands with
HTTPS listener support.

* test(e2e): cover ModifyListener in lb harness

Adds an Internal_ALB_ModifyListener subtest to TestLoadBalancer that
exercises in-place listener edits end-to-end:

- Provisions tgA + tgB sharing the same app instances.
- Brings up an internal ALB with HTTP:80 → tgA, baselines round-robin.
- ModifyListener port=8090, asserts DescribeListeners shows the new
  port and that probes on 8090 still round-robin — proves HAProxy is
  reconciled without dropping the listener (the regression mulga-944
  fixes; the frontend previously delete+created on every edit).
- ModifyListener DefaultActions → tgB, asserts traffic still flows.

Also factors a probeAtPort helper so the order JSON can target any
listener port, and updates TEST_COVERAGE.md with phase 3e.

* fix(ui): widen listener add/edit dialog so content stays inside the box

AlertDialogContent defaults to max-w-xs (20rem) which clipped the listener
form on the right edge. Use a 32rem cap with grid-cols-[minmax(0,1fr)] +
min-w-0 on the form so CSS grid tracks shrink instead of expanding to
max-content.

* test: cover ModifyListener + system instance dispatch

Lifts ModifyListener diff coverage by exercising nil/empty arn paths,
NLB protocol acceptance + rejection, protocol-only revalidation against
existing target groups, and the launcher-nats wire format error paths
(missing input, missing instance type, decode failures, no responder,
default timeout fallback).

Adds a new spinifex/daemon/daemon_system_dispatch_test.go covering
splitSubjectTail edge cases, respondWithSystem{Launch,Terminate}{Output,
OK,Error} envelope shape, handler entry points for invalid JSON and
missing instance ID, and subscribeSystemTerminate nil-conn + idempotent
re-subscribe behaviour.

Fixes the flaky TestHandleEC2DescribeInstanceTypes/NoFilter… subtest by
selecting a 2-vCPU instance type that also fits schedulable memory, so
hosts with smaller schedulableMem (CI 4 vCPU / ~13 GiB) don't pick a
16 GiB-mem type that fails allocation.

* test(e2e): wait for tgB after listener swap, not before

Spinifex health-checks only target groups wired into a listener's
HAProxy config. Waiting for tgB to report healthy before
modifyListenerDefaultTG attaches it to the listener is impossible —
the agent never probes its targets, so they stay in initial and the
2m EventuallyErr trips.

Drop the pre-swap tgB wait. After modifyListenerDefaultTG, replace
the fixed 3s sleep with WaitForTargetsHealthy on tgB (post-swap),
which is now the listener's DefaultAction.

* test(e2e): derive LB name from ARN in lbENI/deleteLB ENI filter

The ENI description filter was building the LB-name token from a
hard-coded "alb"/"nlb" template (e.g. `ELB app/lb-e2e-alb-int/<id>`),
which only matched LBs whose name happened to be `lb-e2e-alb-*` or
`lb-e2e-nlb-*`. The ModifyListener suite names its LB `lb-e2e-mod`,
so lbENI's EventuallyErr could never find the ENI and tripped after
30s. deleteLB had the same bug: sysInstanceID stayed empty and
WaitForENICleanup waited for a non-existent filter, allowing the
next suite's createLB to race the sys.micro VM reclaim.

Parse the LB name straight out of lb.ARN (penultimate path segment,
same shape createLB already relies on) so the filter matches any
caller-chosen name. Drop the now-redundant scheme arg from lbENI.

* test(e2e): poll for listener serving on new port after ModifyListener

The post-modifyListenerPort settle was a hard 3s sleep, but lb-agent
polls for new HAProxy config on a 5s tick. After the API returns, the
agent has typically not yet detected the config-hash change, so
HAProxy is still bound to the old port — every probe to the new port
RSTs and probeAtPort sees 0/0 successful.

Replace the sleep with waitForListenerServing: a polling loop that
fires 2 probes via the shared trigger client every 2s until at least
one returns a parsable instance_id, with a 60s ceiling. Factor the
trigger-and-fetch out of probeAtPort into probeOnce so the polling
helper can reuse it without the require.* asserts.
2026-05-30 09:18:52 +10:00
Josh Siviour c1f44b36da feat: vendor-agnostic instance types + sys.* NATS fan-out (#269)
* feat(instancetypes): emit cross-vendor sibling families on x86_64 hosts

Each x86_64 cpuGeneration's family list is now extended at generate time
with its cross-vendor counterpart family (Intel t3 ↔ AMD t3a,
c5 ↔ c5a, m6i ↔ m6a, etc.) via the new vendorSiblingFamily map in
definitions.go. Sibling families share an identical vCPU/memory shape
per size (same instanceFamilyDef size tables) and the same x86_64 arch
tag, so any host can schedule either vendor's request without changes
to canAllocate or the subscription path.

ResourceManager.updateInstanceSubscriptions iterates the type catalog
unchanged; it now picks up both vendors automatically and subscribes to
ec2.RunInstances.t3.* AND ec2.RunInstances.t3a.* on the same node.
RunInstances for either family load-balances across mixed Intel + AMD
clusters via the existing spinifex-workers queue group.

ARM (Graviton t4g/c?g/m?g/r?g) and legacy Intel-only families (t2, c4,
m4, r4) have no cross-vendor sibling and are unaffected.

Bead: mulga-siv-157 (vendor aliasing portion). sys.* NATS fan-out for
ALB-VMs is a separate change in the same plan.

* feat(daemon,elbv2): NATS fan-out for system instance launch/terminate

ELBv2 ALB-VMs (sys.micro) previously launched via a direct Go method call
from ELBv2ServiceImpl into the local Daemon, so every ALB-VM piled on
whichever node handled the upstream CreateLoadBalancer call. Mixed
clusters tripped 'insufficient capacity for sys.micro' once that node's
host-reserve trimmed schedulable vCPU below the next launch.

Route system-instance lifecycle through a dedicated NATS subject root:

  system.LaunchInstance.{type}            (queue group spinifex-workers)
  system.LaunchInstance.{type}.{nodeID}   (targeted)
  system.TerminateInstance.{instanceID}   (owning-node only)

ResourceManager.updateInstanceSubscriptions now treats sys.* types under
the new subject root with a separate handler hook (systemHandler) and
the same capacity-aware subscribe/unsubscribe behaviour customer types
already have — sys.micro subscriptions drop when the host saturates,
naturally re-distributing load.

The daemon side keeps LaunchSystemInstance / TerminateSystemInstance as
local methods; the new handleSystemLaunchInstance / handleSystemTerminate
handlers decode the JSON envelope, invoke the local method, and reply
with output or error. The terminate subscription is bound on launch
success so future terminate requests reach the owning node, and dropped
on terminate success.

ELBv2ServiceImpl now consumes a NATSSystemInstanceLauncher (handlers/elbv2/
system_instance_launcher_nats.go) instead of a direct daemon pointer, so
any node in the cluster can carry an ALB-VM.

SystemInstanceInput / Output / NICConfig / ExtraENIInput get explicit
JSON tags because the wire crosses NATS.

Tests cover JSON round-trip, remote-error propagation, terminate routing,
and no-responder failure mode.

Bead: mulga-siv-157 (sys.* fan-out portion completes the bead).
2026-05-29 23:24:24 +10:00
Julian Sommer fbd5e3a607 fix: reconciler emits configured dns_server instead of hardcoded 8.8.8.8 (#265) 2026-05-29 12:23:03 +10:00
Julian Sommer 10728391af chore: revert test-cover Makefile 2026-05-29 11:38:42 +10:00
Julian Sommer e4b7834b2b chore: move input validation into gateway (#264) 2026-05-29 11:17:12 +10:00
Julian Sommer 94aa482931 feat: sts v1 (#261) 2026-05-29 10:42:37 +10:00
Josh Siviour 65ba60e8bc fix(gateway/ec2): fan out DescribeInstanceAttribute across daemons (#263)
* fix(gateway/ec2): fan out DescribeInstanceAttribute across daemons

DescribeInstanceAttribute was queue-grouped on `spinifex-workers`, so each
request landed on one daemon at random. The handler only consults per-daemon
state (vmMgr / stoppedStore), so 1/N requests succeeded and the rest returned
InvalidInstanceID.NotFound. Terraform's AWS provider refreshes aws_instance
with three attribute reads per cycle, which on a 5-node cluster fails ~99% of
the time.

Move the daemon subscription into the fan-out block (no queue group) and
rewrite the gateway to mirror DescribeInstances: inbox + N replies + drop
NotFound. The aggregator returns the first parsed success, falls back to
NotFound only when every daemon confirms absence, and propagates deterministic
client errors (InvalidParameterValue, MissingParameter) when no daemon
succeeds.

Tests:
- New: MultipleNodes_OwnerWins, AllNodesNotFound, ClientErrorPropagates,
  NoResponders, SingleNode (rewritten without queue group).
- daemon_handlers_test.go: drop the `spinifex-workers` queue-group string from
  the ten DescribeInstanceAttribute subscriptions so the tests match the new
  production wiring.

* fix(ec2): DescribeInstanceTypes returns supported set, not capacity-gated

The no-filter DescribeInstanceTypes response was filtered to types with
at least one free slot. AWS-compatible callers (e.g. the Terraform AWS
provider's post-RunInstances metadata lookup) expect a stable supported
set: when a launch consumes the last free slot of its type, the next
DescribeInstanceTypes for that type must still return it, or the apply
fails with "reading EC2 Instance Type (X): empty result".

Split the API into two ResourceManager methods so capacity semantics
stay strict for the capacity=true filter (used for cluster aggregation)
while default callers get the supported answer:

- GetAvailableInstanceTypeInfos(showCapacity bool) — unchanged; gates on
  remaining schedulable CPU/memory and (for GPU types) free GPU pool
  slots. Used when capacity=true is requested.
- GetSupportedInstanceTypeInfos() — new; lists every loaded instance
  type once, regardless of current allocation or GPU pool state. Still
  skips system types ("sys.*") and entries with incomplete CPU/memory
  metadata.

The handler picks between the two based on the capacity filter. The
gateway aggregator (DescribeInstanceTypes.go) needs no change — it
already deduplicates by type name when capacity=false, so requesting a
specific name now resolves from whichever node supports it.

Tests:
- Daemon unit tests for the new method cover the three filter rules
  (no free slots, system/incomplete skip, GPU without manager).
- Handler tests assert the supported path is hit by default and the
  capacity-gated path is hit only when capacity=true.
- The NATS-driven integration test is split into two subtests: one
  proves the no-filter response is invariant under allocation, the
  other proves capacity=true still gates on remaining resources.

* fix: persist API device name in volume metadata on AttachVolume

aws_volume_attachment polls DescribeVolumes with
attachment.device=/dev/sd[f-p], the API-form name. Spinifex was
persisting the in-guest virtio path (/dev/vd*) via UpdateVolumeState
after AttachVolume, so the filter rejected every attached volume and
the post-attach wait loop failed with "couldn't find resource".

UpdateVolumeState now receives the API-form device name and the
daemon's AttachVolume response echoes DeviceName instead of
GuestDevice. BlockDeviceMappings continues to carry the guest path
(mulga-599 / PR #55) since UpdateGuestDeviceNames re-applies that
convention on every Launch/Start; only the volume-metadata path
diverges to the API form for the AWS-spec round-trip.

Adds fakeVolumeStateUpdater to manager_deps_test.go and a regression
test that asserts the API-form name flows through
UpdateVolumeState while BDM keeps the guest path.

Resolves mulga-siv-154.
2026-05-28 23:43:39 +10:00
Josh Siviour f877f5edef feat(network/external): restore source=dhcp on external pools (#262)
* refactor(network/external): introduce Allocator interface + StaticPoolAllocator

Carve external IP allocation out of handlers/ec2/vpc/external_ipam.go into
network/external/static_pool.go behind a typed Allocator interface. The KV
bucket name, schema, CAS retry count, and gateway-IP reservation semantics
are unchanged so existing static-pool data carries over with no manual
migration.

ExternalIPAM stays in handlers/ec2/vpc (L5 cleanup deferred per plan) but
becomes a thin facade that constructs a StaticPoolAllocator and delegates
Allocate / Release / GetPoolRecord through the new interface. Q4 will plug
DHCPPoolAllocator into the same Allocator slot.

Plan: docs/development/improvements/external-pool-dhcp-source.md (Q1).

* feat(network/external/dhcp): package skeleton — Client + Fake + KV store

New network/external/dhcp/ package, restored from the structure deleted
in Slice C (commit 7ff013a) but rehomed under the ADR-0006 layer tree:

- client.go      Client interface + AcquireRequest + Lease (with
                 RenewAt/RebindAt/ExpiresAt helpers).
- nclient4.go    NClient4Client — AF_PACKET DORA / Renew / Release
                 backed by insomniacslk/dhcp/dhcpv4/nclient4.
- fake.go        In-memory test fake with per-step hooks for fault
                 injection and acquire/renew/release call counters.
- kv.go          Store over the per-AZ spinifex-dhcp-leases-<az> KV
                 bucket: Put / Get / Delete / List. Schema matches the
                 plan (absolute timestamps for acquired/t1/t2/expiry).
- *_test.go      Lease-timer arithmetic, fake lifecycle, nclient4 input
                 validation, KV roundtrip + version-key isolation.

Not yet wired into vpcd, ExternalIPAM, or any allocator — Q3/Q4 plug
it in. Plan: docs/development/improvements/external-pool-dhcp-source.md (Q2).

* feat(network/external/dhcp): DHCPManager + daemon-side NATSClient

Adds the per-vpcd DHCPManager that owns active lease state: KV scan on
startup (re-issues RENEW for non-expired entries, drops the rest),
per-lease renewal goroutines with jittered T1/T2/expiry timers and
post-expiry re-DORA, and NATS request/reply subscribers on
vpc.dhcp.acquire / vpc.dhcp.release. Acquire is idempotent on client-id,
coalesced via singleflight so concurrent retries do not produce
duplicate wire DORAs.

Adds the daemon-side dhcp.NATSClient wrapper (RequestAcquire /
RequestRelease) that ExternalIPAM will route DHCP-sourced allocations
through in Q4. Still no allocator wiring — vpcd does not yet construct
the manager.

* feat(network/external/dhcp): wire DHCP allocators; re-allow source=dhcp

Adds DHCPGatewayLRPAllocator and DHCPPoolAllocator, the two consumers
of the Q3 DHCPManager. The gateway-LRP allocator runs in-process inside
vpcd and DORAs once per VPC (client-id `dhcp-gw-lrp-<vpcID>`, used in
centralized NAT). The pool allocator runs daemon-side and routes
per-EIP / ENI / instance acquisitions through vpcd over the restored
vpc.dhcp.acquire / vpc.dhcp.release topics.

ExternalIPAM now dispatches per-pool: static pools keep the existing
StaticPoolAllocator + KV bucket; DHCP-sourced pools attach a
DHCPPoolAllocator via EnableDHCP. vpcd constructs the dhcp.Manager
when any pool has Source="dhcp" and selects the DHCPGatewayLRPAllocator
for IGWManager; everything else keeps StaticRangeAllocator /
LinkLocalAllocator.

Config validator re-allows source="dhcp", requires bind_bridge, and
rejects range_* / gw_lrp_range_* keys on DHCP pools. Unknown sources
are rejected with the supported list. Allocator.Release uses a
server-side IP→client-id lookup so the existing (pool, ip) signature
keeps working for both static and DHCP pools.

Plan: docs/development/improvements/external-pool-dhcp-source.md (Q4)

* feat(spx admin init): restore --external-source=dhcp + --external-bind-bridge

Source defaults to dhcp when --external-pool is omitted; static remains the
default when a pool range is supplied. Adds PoolBindBridge propagation through
ConfigSettings + formation.NetworkConfig + spinifex.toml template so vpcd's
DHCPManager finds the bridge to DORA on across single-node and joiner paths.

* fix(network/external/dhcp): derive chaddr from client-id when HWAddr unset

DHCPGatewayLRPAllocator and DHCPPoolAllocator (first acquire) own no NIC
and pass an empty HWAddr to the manager. nclient4 rejected the request
with "dhcp acquire: hw_addr is required", breaking nightly cells 1/3/8/10
at AttachIGW. Derive the chaddr from the client-id via utils.HashMAC so
the upstream DHCP server sees a stable 02:xx:xx:xx:xx:xx MAC per AWS
identifier, matching the OVN-side MAC scheme operators already grep for.

* fix(network/external/dhcp): enable IFF_PROMISC on bind_bridge across DORA

Nightly cell 1 timed out at OFFER step with "no matching response packet
received". Upstream router replied unicast to the derived 02:xx chaddr
which the Linux bridge had never learned, so the kernel dropped the
frame before nclient4's AF_PACKET socket could see it.

Reference-counted IFF_PROMISC toggle around every Acquire/Renew/Release
so overlapping leases on the same bridge share one flag flip and the
last release restores prior state. Soft-fails to a warn log when
CAP_NET_ADMIN is unavailable — operator may already have promisc set.

* fix(network/external/dhcp): RFC 2131 retransmission — retry DISCOVER 3×

NClient4 was configured with WithRetry(1) + WithTimeout(60s), meaning a
single DISCOVER per Acquire. When the first frame is lost (STP convergence
on a freshly-up bridge, upstream packet loss) the call blocks the full
60s and fails. Nightly cell 1 hit this at startup: gw-lrp Acquire for two
VPCs timed out back-to-back before any e2e step ran.

Switch to WithRetry(3) with a 5s per-attempt seed; nclient4 doubles the
deadline on each retransmission (5s, 10s, 20s) and sends a fresh DISCOVER
each round. Total budget ~35s, three frames on the wire — recoverable
without the higher layer noticing.

* fix(network/external): three CI-blocking extdhcp bugs

DHCP-source pools failed e2e-nightly cells 1/3/8/10 (net: dhcp) after
the restore-dhcp-source branch landed. Three independent root causes:

* gateway nexthop dropped: GatewayIPAllocator.Allocate had no return
  channel for the upstream router learned from lease.Routers. igw fell
  back to link-local 169.254.0.2, unreachable on the WAN subnet, so
  instance egress and SSH-in died silently. Widen the interface to
  return nexthop; DHCP impl pulls Routers[0]; empty Routers is now a
  hard error. Static impl returns pool.Gateway as before.

* DORA budget shrunk 6x: WithTimeout(5s) x WithRetry(3) gave a 15 s
  wallclock for the full DORA, no outer backoff. Restore the deleted
  dhcp_manager.go schedule [4s, 8s, 16s, 32s] under a 90 s budget with
  +/- 1 s per-attempt jitter; drop nclient4Retries to 1 so the leaf
  stays single-shot and the budget arithmetic lives in one place.

* every vpcd subscribed to vpc.dhcp.acquire: plain nc.Subscribe meant
  every vpcd in real-multi cells DORA'd in parallel with the same
  derived chaddr, causing upstream-server NAK / lease leak. Switch to
  QueueSubscribe with per-AZ queue "vpcd-dhcp-workers-<az>".

Plan: docs/development/bugs/extdhcp-pool-fixes.md (mulga).
Bead: mulga-siv-150.
2026-05-28 20:48:11 +10:00
Julian Sommer 621e49405e fix: UI bug fixes 2026-05-28 15:08:17 +10:00
tomnewton-mulga 88881ba04c fix: Updated Trinity and SMCI docs 2026-05-28 14:42:03 +10:00
Julian Sommer 7ff02a6020 fix: consistent UI capitlisation 2026-05-28 14:27:35 +10:00
tomnewton-mulga 624c3180ea docs: fix gpu-passthrough doc sections and image tags for docs site 2026-05-28 11:41:00 +10:00
tomnewton-mulga 78d703da78 Feat/mig capable (#260)
* feat(gpu): add NVIDIA MIG multi-instance GPU support

Partitions MIG-capable GPUs (A100, A30, H100) into isolated slices exposed
as mdev devices instead of whole-GPU VFIO passthrough. VMs attach via
-device vfio-pci,sysfsdev=<mdev-path> using the GPUAttachment discriminated
union (PCIAddress for whole-GPU, MdevPath for MIG).

Key changes:
- gpu: new MIGProfile/MIGInstance types, IsMIGCapable model map, mig.go ops
  (EnableMIGMode, DisableMIGMode, CreateInstances, ListInstances,
  DestroyAllInstances, enrichMdevPaths)
- gpu.Manager: Claim() returns (*GPUDevice, *MIGInstance, error); AddMIGInstances,
  ReclaimByMdev for restart recovery; MarkMIGFailed per-slice
- daemon: buildGPUPool helper partitions devices into whole-GPU vs MIG pools;
  MIGProfile config field selects profile per node or per GPU override
- vm.VM: GPUAttachments []gpu.GPUAttachment replaces GPUPCIAddresses []string
- admin CLI: spx admin gpu mig status/enable/disable subcommands with
  admin.SetMIGProfile for spinifex.toml writes
- docs: COMMANDS.md updated with three new MIG management command rows

* test(gpu): unit tests for MIG parsers and pool manager

Cover all pure parsing functions (parseMIGMemory, isCapacityExhaustedError,
extractProfileFields/GIFields, parseMIGProfiles, parseMIGInstances,
parseCreatedGIID/CIID) with realistic nvidia-smi fixture output.

Manager MIG tests cover AddMIGInstances, Claim/Release on mdev-backed entries,
MarkMIGFailed, ReclaimByMdev, and interaction with whole-GPU MarkFailed — all
using fake mdev directories in t.TempDir() so no GPU hardware is required.

* feat(gpu): dynamic MIG profile-per-request with on-demand GI/CI lifecycle

Replaces static config-driven MIG pre-carving with a dynamic model where
the MIG profile is specified per RunInstances call via mig.<profile>
instance type names (e.g. mig.1g.10gb) that mirror nvidia-smi nomenclature
directly.

- Manager.Claim(instanceID, profileName): fast path claims a pre-carved
  slice; slow path dequeues a free MIG GPU, releases the lock, calls
  nvidia-smi mig -cgi/-cci to carve all slices, then reclaims the lock to
  commit and return the first slice
- Manager.Release: last release on a dynamically-carved GPU calls
  DestroyAllInstances and returns the GPU to freeMIGGPUs, allowing a
  different profile on the next claim
- AddMIGGPU(dev): registers a fresh MIG GPU for dynamic allocation;
  AddMIGInstances (restart recovery) keeps its no-destroy semantics
- GenerateMIGTypes: produces mig.<profile> InstanceTypeInfo entries from
  gpu.ListProfiles at daemon startup; IsMIGType/MIGProfileFromType let
  callers inspect these names
- buildGPUPool: calls ListInstances for recovery, AddMIGGPU for fresh
  GPUs, ListProfiles to collect MIG profile specs for type generation;
  removes setupMIGInstances and migProfileForDevice
- GPUClaimer.Claim gains profileName param; daemonGPUClaimer, service_impl
  call sites, and fakeGPUClaimer all updated

* fix(gpu): correct mdev parent detection and make --profile optional for mig enable

enrichMdevPaths was using os.Readlink on "parent_bus_0" (a non-existent
sysfs attribute) and then on ".." (a directory, not a symlink) — both
would fail on real NVIDIA hardware, breaking CreateInstances and
ListInstances on daemon restart recovery. Fix: read the mdev UUID's own
symlink target, which always encodes the parent GPU's PCI address in its
path (e.g. .../0000:01:00.0/<uuid>).

Make basePath injectable in enrichMdevPaths so the fix is covered by a
new set of unit tests using temp-dir symlinks (TestEnrichMdevPaths_*).

Remove the MarkFlagRequired("profile") from "spx admin gpu mig enable":
Phase 2 is fully dynamic — the daemon carves slices on demand at
RunInstances time. Without --profile, the command just enables MIG mode
and destroys any pre-carved slices so the daemon starts with a free GPU.
With --profile, behaviour is unchanged (pre-carve a static pool).

* chore: writeups for smci and arcee

* test: add coverage for MIG exec, manager slow-path, instancetypes and admin

- Add mig_exec_test.go with fake nvidia-smi harness covering Enable/Disable MIGMode,
  IsMIGModeEnabled, DestroyAllInstances, ListProfiles, CreateInstances, ListInstances
- Extend manager_mig_test.go with slow-path Claim/Release tests using fake nvidia-smi
- Add generate_test.go coverage for IsMIGType, MIGProfileFromType, GenerateMIGTypes
- Add admin_test.go coverage for SetMIGProfile (create, update, idempotent, error paths)
- Make mdevBasePath a var to allow sysfs injection in tests
- Add json tags to GPUAttachment fields to satisfy musttag linter

Diff coverage: 75.6% (threshold: 60%).

* fixed gpu passthrough doc

* Revert "fixed gpu passthrough doc"

This reverts commit 1e20f5ab13.
2026-05-28 11:38:40 +10:00
Josh Siviour fa09228a36 feat: ENI hot-plug Sprint 3b — live QMP pipeline + AttachENI wiring (stage 2) (#258)
* feat: ENI hot-plug Sprint 3a scaffolding

Lays the Sprint 3a Tier 0 groundwork from
docs/development/feature/enihotplug-v1.md so the live QMP pipeline in 3b
can plug in without further plumbing changes.

- types.ENIRequests: per-VM PCIe slot allocator state (free-list +
  eniID→slot reverse map), mirrors EBSRequests pattern.
- instancetypes.MaxENIsForType / HotPlugENISlotsForType: instance-type →
  ENI cap lookup with explicit-type-then-family-then-default precedence.
- vm.DeviceController interface + QMPDeviceController (real) +
  StubDeviceController (in-memory): unit-testable QMP device_add /
  device_del / netdev_add / netdev_del surface. QueryPCI body lands in
  Sprint 3b alongside the live response parser.
- buildBaseVMConfig now accepts the instance type and emits two distinct
  PCIe root-port pools at boot: hotplug-ebs{1..11} (fixed, /dev/sd[f-p])
  and hotplug-eni{1..N} (per-type, N = MaxENIs - 1).
- volumes.go bus id renamed hotplug%d → hotplug-ebs%d; query-block QDev
  regex narrowed to hotplug-ebs(\d+) so future virtio-net devices on
  hotplug-eni ports cannot collide with the EBS ordering.
- restore + ResetNodeLocalState reset ENIRequests.Mu alongside the EBS
  mutex so restored VMs start with a fresh allocator.

Closes mulga-cs-enihotplug-3a.

* feat: ENI hot-plug Sprint 3b — live QMP pipeline + AttachENI wiring

Lands the Sprint 3b Tier 1 deliverables from
docs/development/feature/enihotplug-v1.md so AttachNetworkInterface /
DetachNetworkInterface AWS APIs drive the host-side QMP pipeline against
a running VM.

- vm/qmp_device.go: real QueryPCI parser. Walks the per-bus query-pci
  response and recurses into pci_bridge.devices so virtio-net devices
  attached under hotplug-eni{N} root ports surface in the flat result.
- vm/eni_hotplug.go (new): HotPlugENI / HotUnplugENI on Manager. 4-step
  pipeline (tap → ovs-add-port → netdev_add → device_add + query-pci
  poll) with full rollback on step-N failure. Tap + OVS calls are
  stubbed in Sprint 3b; Sprint 3c drops in real NetworkPlumber /
  ovs-vsctl invocations against the same call-site interface.
- vm/eni_hotplug_test.go (new): unit tests with StubDeviceController —
  success path, rollback on each step, AttachmentLimitExceeded,
  idempotent re-attach, non-running rejection, force-detach semantics,
  concurrent serialization, query-pci timeout.
- types/ec2.go: EC2InstanceCommand gains AttachENI / DetachENI attrs +
  AttachENIData / DetachENIData payloads, mirroring the AttachVolume
  command surface.
- handlers/ec2/vpc/eni.go: ENIRecord gains AttachmentStatus,
  HotPlugSlot, LastAttachError, DetachInFlight, DetachForce fields per
  plan §State machine. New helpers: GetENIRecord, UpdateENI (CAS
  patcher), FindENIByAttachment (used by DetachNetworkInterface lookup
  by attachmentId).
- gateway/ec2/vpc/{Attach,Detach}NetworkInterface.go (new): AWS SDK
  request decoders that route via the per-instance ec2.cmd.{id}
  channel; DetachNetworkInterface resolves attachmentId →
  instanceId via DescribeNetworkInterfaces first.
- gateway/ec2.go: registers the two new EC2 actions in the dispatcher.
- daemon/daemon_handlers.go: handleEC2Events dispatches the two new
  attribute flags to per-instance handlers.
- daemon/daemon_handlers_eni.go (new): composes vpcService.AttachENI
  (KV) with vmMgr.HotPlugENI (QMP) and publishes
  vpc.eni-hotplug.{attached,detached}.{instanceID} on success. KV
  state machine: available → attaching → attached → detaching →
  available. On QMP failure: KV rolls back to available with
  LastAttachError persisted for DescribeNetworkInterfaces visibility.
- vm/errors.go: ErrENINotAttached, ErrENIPipelineTimeout,
  ErrQMPUnavailable.

The Sprint 3c bead lands the real tap + ovs-vsctl wiring on the same
pipeline; 3d adds the reconciler that converges the attaching /
detaching KV states left behind by a daemon crash mid-pipeline.

Closes mulga-cs-enihotplug-3b.

* Update ec2.go

* Update ec2.go
2026-05-27 22:54:46 +10:00
Josh Siviour a8e356b3d2 feat: ENI hot-plug Sprint 3a scaffolding (#257)
Lays the Sprint 3a Tier 0 groundwork from
docs/development/feature/enihotplug-v1.md so the live QMP pipeline in 3b
can plug in without further plumbing changes.

- types.ENIRequests: per-VM PCIe slot allocator state (free-list +
  eniID→slot reverse map), mirrors EBSRequests pattern.
- instancetypes.MaxENIsForType / HotPlugENISlotsForType: instance-type →
  ENI cap lookup with explicit-type-then-family-then-default precedence.
- vm.DeviceController interface + QMPDeviceController (real) +
  StubDeviceController (in-memory): unit-testable QMP device_add /
  device_del / netdev_add / netdev_del surface. QueryPCI body lands in
  Sprint 3b alongside the live response parser.
- buildBaseVMConfig now accepts the instance type and emits two distinct
  PCIe root-port pools at boot: hotplug-ebs{1..11} (fixed, /dev/sd[f-p])
  and hotplug-eni{1..N} (per-type, N = MaxENIs - 1).
- volumes.go bus id renamed hotplug%d → hotplug-ebs%d; query-block QDev
  regex narrowed to hotplug-ebs(\d+) so future virtio-net devices on
  hotplug-eni ports cannot collide with the EBS ordering.
- restore + ResetNodeLocalState reset ENIRequests.Mu alongside the EBS
  mutex so restored VMs start with a fresh allocator.

Closes mulga-cs-enihotplug-3a.
2026-05-27 22:15:20 +10:00
Josh Siviour fd3dc6b680 feat(network): ADR-0006 layer redesign + IPsec/OVN hardening (#255)
* refactor(vpcd): remove macvlan bridge mode

Macvlan was a single-NIC SSH-safe hack that predated veth mode and was
never selected by any active config path. Deletion is Phase 0 item 1 of
the network layer redesign (mulga-siv-125.1).

Removed:
- BridgeModeMacvlan const + setMacvlanMAC + ifaceIsMacvlan probe
- Macvlan MAC alignment block in launchService (only fired on dead path)
- Macvlan branch in detectBridgeMode + matching tests
- Macvlan duplicates of IGW/AddNAT centralized-NAT tests (veth versions
  already cover the same path)
- --macvlan flag + macvlan case branch in setup-ovn.sh

Refactored:
- useCentralizedNAT() now == BridgeModeVeth (was != BridgeModeDirect);
  verifyBridgeMode already rejects empty/unknown at startup
- Three IGW-pool tests now explicitly WithBridgeMode(BridgeModeVeth)
  (previously relied on empty-mode defaulting to centralized)

Kept intentionally:
- Deprecation notes in docs/compute/vpc-networking/README.md
- Legacy macvlan-interface cleanup in reset-dev-env.sh + ansible
  teardown role (migration for operator systems with stale spx-ext-*
  interfaces from pre-veth installs)

* feat(vpcd): resolve external CIDR at startup with bounded retry

Block service start until the WAN bridge has an IPv4 address, with a 30s
retry window. Phase 0 item 2 of the network layer redesign
(mulga-siv-125.1). Guards the boot race where vpcd starts before
systemd-networkd finishes DHCP on br-wan, or before netplan applies a
static config.

Skipped when ExternalMode is empty (overlay-only deployments).

Forward-compatible with ADR-0006: the new resolveExternalCIDR /
externalCIDRFromBridge helpers become the backing implementation of
HostWiring.ExternalCIDR() once the network/host package lands in Phase 1.
Until then the resolved value is only used to fail-start on missing
uplink.

* fix(vpcd): cover external CIDR startup paths

Extract launchService's CIDR-resolve block to ensureExternalCIDRReady
helper so it's unit-testable, and add direct tests for
externalCIDRFromBridge (loopback + unknown-interface) to exercise the
original literal body. Closes the diff-coverage gap on Phase 0 commit
15b564d which left these paths unreachable from unit tests.

* refactor(network/ovn): extract L1 OVN client to network/ovn package

Move OVNClient interface, LiveOVNClient, ACLSpec, ErrNATNotFound and
namedUUID helper from services/vpcd to a new spinifex/network/ovn
package. The mock relocates to spinifex/network/ovn/mock as a
sub-package. Storage fields on the mock become exported so vpcd tests
can continue to seed/inspect state across the new package boundary.

services/vpcd retains thin type-alias and var-alias shims so existing
callers compile unchanged; Phase 2 removes those shims as vpcd is torn
down.

Adds -coverpkg=./spinifex/... to test-cover so cross-package test
exercise of mock methods continues to count toward coverage now that
the mock lives outside vpcd.

First sub-step of Phase 1 of docs/development/feature/spinifex-network-redesign.md
(bead mulga-siv-125.2). Pure refactor; no functional change. All
existing tests pass; preflight green.

* feat(network/topology): TopologyManager interface + vpcd adapter

Add spinifex/network/topology with Manager interface, VPC/Subnet/Port
specs, and OVN object naming helpers covering the L2 stable contract
(§7 of the redesign plan). Phase 1 keeps existing in-tree OVN names
(rtr-, ext-port-, sg_) and notes the §7.3 targets for a later
reconciliation migration.

TopologyHandler in services/vpcd grows EnsureVPC / DeleteVPC /
EnsureSubnet / DeleteSubnet / EnsurePort / DeletePort /
SetPortSecurityGroups methods that mirror the corresponding NATS
handlers' OVN ops with Spec inputs instead of nats.Msg envelopes,
satisfying topology.Manager via a compile-time check. Existing handlers
are unchanged; the duplication is short-lived (Phase 2 collapses them).

Smoke tests in topology_manager_test.go cover the idempotent create
path, delete cascade, and declarative SG membership move. Deliverable:
TopologyManager.EnsureVPC/Subnet/Port callable; all existing tests
green.

Second sub-step of Phase 1 of docs/development/feature/spinifex-network-redesign.md
(bead mulga-siv-125.2).

* feat(network/host): L0 HostWiring interface + physical/veth impls

Phase 1 deliverable for mulga-siv-125.2. Introduces network/host (L0 of
ADR-0006): UplinkMode enum, Wiring interface, and Physical/Veth
implementations with injectable Runner + InterfaceReader for testability.
Not yet wired into daemon/vpcd — Phase 2 replaces daemon.SetupComputeNode
and vpcd's resolveExternalCIDR with calls through this package.

* feat(network/policy): L3 SecurityGroup/NAT/Route managers

Introduce network/policy as the data-plane policy layer (ADR-0006 L3).
Three managers, all backed by network/ovn:

- SecurityGroupManager: clear+add ACL replacement on an existing port
  group; port group lifecycle stays with L2 (topology.Manager).
- NATManager: bound to one NATMode at construction (derived from
  host.UplinkMode). Distributed sets logical_port/external_mac on EIP
  dnat_and_snat rules; centralised leaves them unset. Per-EIP, NAT GW,
  and IGW-default SNAT entrypoints; all deletes idempotent.
- RouteManager: AddStaticRoute is read-then-decide so retries no longer
  duplicate rows (closing the long-standing non-idempotency bug in
  vpcd/topology.go's IGW default-route path).

ACL priority constants and infrastructure ACL builders move from
vpcd/{security,acl}.go into policy/acl.go with their semantics preserved
(default-deny 900/800 logged, DHCP-allow 1050, tenant 1000). No vpcd
wiring changes here — additive only; the reconciler (bead .3.2) and
network/external (bead .3.4) will consume these managers.

bead: mulga-siv-125.3.1

* feat(network/external): L5 IGW/EIP/NATGW managers

Pure additive — new package, no topology.Manager changes, no rewiring of
existing vpcd handlers. IGWManager builds the external switch + localnet +
gateway LRP + default route + chassis HA, with a flows barrier callers can
inject (production: ovn-nbctl --wait=hv sync). EIP/NATGW are thin L5
wrappers over policy.NATManager. GatewayIPAllocator interface lets the
DHCP-backed allocator stay in vpcd until the DHCP-mgr removal bead lands;
LinkLocalAllocator + StaticRangeAllocator ship here.

* feat(network/reconcile): L6 intent-actual reconciler replaces 5-pass startup

Build spinifex/spinifex/network/reconcile/ package per Phase 2.2 of the
network layer redesign. Reads desired state from NATS KV filtered by
vpc.AZ (with legacy empty-AZ matches-all rule), scans actual state from
OVN NB DB, diffs and applies with VPC → Subnet → Port → SG → IGW →
EIP/NATGW topological ordering.

Atomic port-group join via CreateLogicalSwitchPortInGroups closes the
racy gap the legacy scanENIPortMembership pass used to revive 30s later.
A 5-minute drift goroutine (leader-gated via JetStream KV CAS) replaces
the old 30s ReconcileSGsLoop.

Adds AZ field to VPCRecord stamped at create time. Empty AZ on pre-Phase
2.2 records matches every local AZ, so no migration pass is required.

Replaces and removes the 5-pass startup sequence in services/vpcd:
  - Reconcile + ReconcileFromKV
  - ReconcileSGsOnce + ReconcileSGsLoop
  - RetrofitAllExternalLocalnetOptions
  - RetrofitAllGatewayPortNetworks

IGW fresh-create continues to flow through the legacy NATS handler path
(handleIGWAttach) so the dhcpManager wiring stays intact until Phase
2.3; the reconciler only rebinds gateway-chassis on existing IGW
topology.

Closes mulga-siv-125.3.2.

* refactor(network/topology): promote live Manager impl to network/topology

Move the topology.Manager implementation out of services/vpcd/topology_manager.go
into network/topology/manager_live.go as a standalone liveManager constructed
via NewLiveManager(ovn.Client, opts...). Inputs that varied per-handler
(DNS server resolution from the external pool) are now passed as functional
options (WithDNSServer).

TopologyHandler still satisfies topology.Manager but its methods delegate
to a cached liveManager. The shim stays until the rest of mulga-siv-129
routes NATS subscribers through topology.Manager directly.

Also exports SubnetGatewayCIDR + FormatDNSServerList from network/topology
so the reconciler in network/reconcile can share helpers with the live
manager (audit pass to follow per plan §6).

Test cases ported one-for-one from services/vpcd/topology_manager_test.go
to network/topology/manager_live_test.go; the vpcd-side test file is
deleted. New WithDNSServer test asserts the option propagates into
DHCPOptions rows.

Refs mulga-siv-129 (Phase 2.6 vpcd subscriber migration, Slice 1 of N).

* refactor(vpcd): collapse SG subscribers onto network/{topology,policy} managers

Phase 2.6 / mulga-siv-129 slice 2. Rewrites the vpc.create-sg /
vpc.update-sg / vpc.delete-sg NATS subscribers in services/vpcd as
thin wrappers over topology.Manager (port group lifecycle) and
policy.SecurityGroupManager (ACL programming). Deletes the ~1000
lines of duplicated ACL builder and provisioning logic — its
authoritative copy lives in network/policy.

Surface additions:

- ovn.ErrPortGroupNotFound sentinel; mock + live GetPortGroup wrap
  not-found via fmt.Errorf("%w: ...") so callers can use errors.Is.
- topology.Manager grows EnsureSGPortGroup / DeleteSGPortGroup
  (resolves the apply.go TODO from §2.1 of the redesign plan).
  liveManager implements them with GetPortGroup-then-Create /
  GetPortGroup-then-Clear+Delete idempotency.

Behaviour delta: the old provisionSG rolled back the OVN port group
on AddACLs failure ("all-or-nothing"). The new path lets the port
group survive and relies on network/reconcile to retry EnsureSG on
its next sweep. The all-or-nothing fail-fast test cases are dropped;
ACL emission semantics are covered by network/policy/sg_test.go.

* refactor(vpcd): migrate VPC/Subnet/ENI subscribers to topology.Manager

Phase 2.6 / mulga-siv-129 slice 3. Rewrites vpc.create / vpc.delete /
vpc.create-subnet / vpc.delete-subnet / vpc.create-port /
vpc.delete-port / vpc.update-port-sgs NATS subscribers as thin
wrappers (≤30 lines each) over topology.Manager. Subscriber bodies
now: parse event → translate to spec → delegate to manager.

Deletes:

- vpcd.subnetGateway (and helpers_test.go + topology_test.go's
  TestSubnetGateway block); parity coverage lives in
  network/topology.TestSubnetGatewayCIDR.
- vpcd.reconcilePortSGs (the live manager already exposes the same
  diff-then-transact via reconcilePortSGs on the L2 side).
- vpcd.TopologyHandler.dnsServer; lmDNSServer (passed via
  topology.WithDNSServer to the live manager) is the live path.

Behaviour delta: handlers now strict-parse PrivateIpAddress /
MacAddress / CidrBlock at the NATS boundary and reject malformed
payloads instead of degrading to "no DHCP options". The reconciler
guarantees that field validity is upheld upstream of the publish.

* refactor(network/reconcile): drive SG port groups via topology.Manager

applySGs now calls topology.Manager.EnsureSGPortGroup /
DeleteSGPortGroupByName instead of reaching directly into the OVN client.
Reconcile.Config gains a Topology field (required); the production caller
in services/vpcd passes the TopologyHandler shim, the reconcile package
tests construct a fresh topology.NewLiveManager bound to the mock OVN
client.

DeleteSGPortGroupByName is added to the topology.Manager interface for the
reconciler's orphan-removal path, which iterates raw OVN port-group names
without a groupID round-trip. The existing DeleteSGPortGroup(groupID)
delegates to it.

Resolves the TODO at apply.go:137 carried over from slice 2 of
mulga-siv-129.

* feat(network/policy): add FlowsBarrier option to NATManager

NATManager.AddEIP needs to block on `ovn-nbctl --wait=hv sync` after
writing the dnat_and_snat row so the NATS reply only returns once every
chassis has the rewrite flow. The legacy vpc.add-nat handler does this at
the tail of handleAddNAT; the manager has lacked it since slice 2.1.

NewNATManager grows a functional-options tail (Option / WithFlowsBarrier).
Defaults to a no-op for tests; production wiring in services/vpcd passes
waitForFlowsHV. AddEIP now invokes the barrier after AddNAT, logging at
warn level on failure to match the legacy handler's _ = waitForFlowsHV()
swallowing semantics.

Pre-work for slice 4 of mulga-siv-129 — without the barrier the NAT EIP
subscriber migration would lose the post-write flow-install gate.

* refactor(vpcd): migrate NAT GW subscribers to policy.NATManager

handleAddNATGateway / handleDeleteNATGateway now decode the NATS event
and delegate to policy.NATManager.{AddNATGateway,DeleteNATGateway}. The
manager carries identical OVN logic — same snat type, same ExternalIDs
(spinifex:vpc_id + spinifex:nat_gateway_id) — so existing
TestTopologyHandler_AddNATGateway / DeleteNATGateway suites stay green.

Lazy-constructed NATManager added on TopologyHandler (natmOnce). Mode is
derived from the bridge mode (veth → centralized, direct → distributed)
and the FlowsBarrier is bound to waitForFlowsHV for parity with the
legacy EIP path's tail barrier (used by the next slice, vpc.add-nat).

Slice 4 of mulga-siv-129, sub-step b.

* refactor(vpcd): migrate EIP NAT subscribers to policy.NATManager

handleAddNAT / handleDeleteNAT now decode the NATS event and delegate to
policy.NATManager.{AddEIP,DeleteEIP}. The behavioural contract is
preserved end-to-end:

- Idempotency-skip on a matching dnat_and_snat row (same VPC + LogicalIP,
  plus MAC + LogicalPort under distributed NAT) moves into AddEIP so
  duplicate vpc.add-nat publishes never tear down the rule the previous
  invocation just installed (mulga-siv-124).
- Stale-rule cleanup across every router stays in AddEIP.
- Post-write waitForFlowsHV barrier is now driven by the manager via the
  FlowsBarrier option wired in services/vpcd (slice 4a).
- DeleteEIP returns nil on ErrNATNotFound, matching the handler's
  fire-and-forget "already absent = success" semantic.

The vpcd "errors" import drops out with the inline error-comparison.

Slice 4 of mulga-siv-129, sub-step c.

* refactor(vpcd): migrate IGW subscribers to external.IGWManager (partial)

handleIGWAttach now branches at decode time:
- Centralised NAT + DHCP-sourced pool keeps using attachIGWLegacy because
  the gateway-LRP IP comes from vpc.dhcp.acquire, and that DHCP client is
  the vpcd-local manager that bead mulga-siv-125.3.3 will retire.
- All other shapes (distributed NAT, static-range pool, no pool)
  delegate to external.IGWManager.AttachIGW. The manager mirrors every
  step the legacy handler ran — external switch + localnet port +
  gateway LRP + switch-side router peer + default route + chassis HA +
  waitForFlowsHV tail barrier — so observable behaviour is unchanged.

handleIGWDetach drops its inline OVN walk entirely; both paths exit
through external.IGWManager.DetachIGW followed by releaseGatewayLRPLease.
The lease release stays in vpcd because the upstream client lives in
services/vpcd/dhcp; calling it after every detach is safe because the
upstream server expires unknown leases on its own.

Lazy-constructed IGWManager added on TopologyHandler (igwmOnce). Pool,
allocator (StaticRangeAllocator), chassis, NAT mode, NAT manager, route
manager, and FlowsBarrier are all derived from the existing
TopologyHandler state.

The DHCP-coupled legacy branch retains its full inline OVN logic; it
will disappear in slice-after-125.3.3 follow-on. Slice 4 of
mulga-siv-129, sub-step d.

* feat(ec2/instance): honor AssociatePublicIpAddress per-NIC override

RunInstances --network-interfaces "AssociatePublicIpAddress=true|false"
was silently ignored, only subnet.MapPublicIpOnLaunch gated public IP
assignment. AWS contract is per-NIC override wins.

Extend TestPrepareRunInstances_PublicIPAutoAssigned to table-driven
3 cases: subnet true no-override, subnet false override true, subnet
true override false.

* refactor(config): drop upstream-DHCP config surface (static WAN pool only)

Hard-error in LoadConfig on legacy keys: [network] external_dhcp,
[nodes.<n>.vpcd] dhcp_bind_bridge, and [[network.external_pools]]
source = "dhcp". Add pool range validation (must fit inside the
gateway/prefix_len CIDR; per-cluster non-overlap).

Strip ExternalDHCP from config.NetworkConfig + formation.NetworkConfig
+ admin.ConfigSettings, and DhcpBindBridge from config.VPCDConfig +
admin.ConfigSettings + vpcd.Config. vpcd.ExternalPoolConfig.IsDHCP()
short-circuits to false; the field and downstream DHCP branches in
external_ipam / topology.go remain for Slice C to delete together with
dhcp_manager.

cmd/spinifex/cmd/admin.go: drop useExternalDHCP path and the
detectedDhcpBindBridge helper; require --external-pool when
--external-mode=pool; auto-detect default no longer infers source=dhcp.

service.go's wan_bridge legacy-key rejection now advises removing the
key entirely (vpcd auto-detects br-wan), not renaming to
dhcp_bind_bridge.

Two topology_test cases that exercise the DHCP gateway-LRP path are
skipped — Slice C deletes attachIGWLegacy and these tests together.

* refactor(vpcd): delete dhcp_manager + DHCP gateway-LRP path (Slice C)

Removes upstream-DHCP-client gateway-LRP allocation in favor of static
WAN-pool allocation (StaticRangeAllocator). Part of bead mulga-siv-125.3.3.

- delete services/vpcd/dhcp_manager.go + dhcp/ subpackage (~865 lines)
- delete allocateGatewayLRPIPViaDHCP + releaseGatewayLRPLease paths
- drop ExternalPoolConfig.Source + DhcpBindBridge + IsDHCP() fields
- drop ExternalIPAllocation lease fields (Expiry/ServerID/HWAddr) and
  ExternalIPAMRecord.Source
- drop NewExternalIPAM nc *nats.Conn argument; update all 4 call sites
- rename verifyBridgeMode local dhcpBindBridge -> wanBridge; update error
  strings and tests

Slice D (delete attachIGWLegacy + dispatcher) intentionally deferred.

* refactor(vpcd): delete attachIGWLegacy + IsDHCP stub (Slice D)

Closes mulga-siv-129 slice 4d. Part of bead mulga-siv-125.3.3.

handleIGWAttach now unconditionally delegates to external.IGWManager.
attachIGWLegacy (~207 lines, ~5 OVN write steps + chassis scheduling)
deleted along with its dispatcher branch in handleIGWAttach. The
ExternalPoolConfig.IsDHCP() dead stub is gone.

No code paths or NATS subjects regress: the static-pool / distributed
branches were already going through external.IGWManager since Slice 4d
(6719dc3).

* feat(ipam): Purpose field on every IPAM record (Slice B)

Part of bead mulga-siv-125.3.3.

Adds a Purpose enum (handlers/ec2/vpc/purpose.go) tagging every IP
allocation with its semantic role (eni-primary, eni-public, eip,
igw-lrp, natgw-external, …) so multi-VPC clusters can reclaim/audit
by (owner, purpose).

External IPAM (spinifex-external-ipam, v1→v2):
- ExternalIPAllocation.Type → .Purpose; legacy values mapped via
  LegacyExternalTypeToPurpose (gateway→igw-lrp, auto_assign→eni-public,
  elastic_ip→eip). Unknown legacy values warn and become "unknown".
- AllocateIP / AllocateFromPool / allocateFromPool param rename
  allocType→purpose. All call sites pass Purpose* constants.
- migrate/002_external_ipam_purpose.go: idempotent CAS-retry migration
  with v1/v2-union record shape so partial migrations resume cleanly.

Internal IPAM (spinifex-vpc-ipam, v1→v2):
- IPAMRecord.Allocated []string → []IPEntry{IP, Purpose, OwnerID}.
- AllocateIP gains purpose+ownerID args; ReleaseIP unchanged (still
  keyed on IP).
- AllocatedIPs returns []IPEntry.
- eni.go reorders eniId generation before AllocateIP so the owning
  resource ID lands on the new entry.
- migrate/003_ipam_purpose.go: cross-bucket backfill that reads the
  ENI bucket via the new RunKVWithJetStream path. Orphaned IPs
  (no owning ENI) warn and become Purpose=unknown.

Migrate framework:
- KVContext gains an optional JetStream field; new
  Registry.RunKVWithJetStream method threads it through. RunKV
  signature unchanged — all other callers are unaffected.

Tests:
- ipam_test.go: AllocateIP signature updates; AllocatedIPs now asserts
  IP / Purpose / OwnerID on the returned entries.
- external_ipam_test.go: replaces "auto_assign"/"elastic_ip" literals
  with PurposeENIPublic/PurposeEIP and asserts alloc.Purpose.
- migrate/002 + 003 tests: schema-detect, idempotent rerun,
  no-JetStream fallback, empty bucket.

* refactor(daemon): tombstone obsolete spinifex-dhcp-leases KV bucket

The dhcp_manager removed in Phase 2.3 (bead mulga-siv-125.3.3) owned the
spinifex-dhcp-leases KV bucket. The migrate framework only handles
per-bucket schema version bumps, not bucket deletion, so the obsolete
bucket would linger on upgraded clusters.

Add a one-shot tombstone after initJetStream that deletes the bucket if
present. DeleteKVBucketIfExists treats ErrBucketNotFound and
ErrStreamNotFound as success, so the call is idempotent across restarts.

* feat(config): add network.ipsec_enabled cluster flag (default true)

Add IPSecEnabled to NetworkConfig in both the cluster TOML schema and
the formation handshake payload. Default true so AWS-parity intra-AZ
encryption is on by default. Operators can flip false in
[network] for trusted single-rack lab topologies.

Phase 2.5 (bead mulga-siv-125.3.5) consumes the flag from admin init
(strongSwan provisioning), formation server (propagates to joiners),
and daemon startup (ovs-vsctl ipsec_encapsulation toggle).

* feat(admin): IPsec peer cert generator signed by cluster CA

Add GenerateIPSecPeerCert + IPSecCertPaths in spinifex/admin so admin
init (and the future admin add-node path) can issue per-node IKEv2 peer
credentials signed by the existing cluster CA. The cert carries
id-kp-ipsecIKE (RFC 4945) so strongSwan accepts it as an IKEv2 peer
credential when ovs-monitor-ipsec materialises tunnel configs.

Cluster CA is reused directly — no intermediate strongSwan PKI today;
when intermediate CAs land that becomes a separate workstream.

The cert/key pair lives under {configDir}/ipsec/peer.{pem,key}; the
daemon points OVS Open_vSwitch.other_config (certificate, private_key,
ca_cert) at these paths when network.ipsec_enabled is true.

* feat(admin): wire IPsec peer cert into admin init + join paths

Add --ipsec bool flag (default true) on adminInitCmd. Single-node init
and the multi-node leader path both emit an IPsec peer cert after the
existing CA+server-cert generation. The multi-node formation server
propagates the IPSecEnabled flag to joining nodes via NetworkConfig;
admin join honours it and emits its own peer cert during the same
cert-issuance step that already produces the server cert.

spinifex.toml template gains an unconditional [network] block carrying
ipsec_enabled so the value is visible to operators on every install
regardless of whether external networking is configured. The daemon
reads it via cluster config (NetworkConfig.IPSecEnabled).

Bead mulga-siv-125.3.5.

* build: install openvswitch-ipsec for OVN native IPsec

openvswitch-ipsec provides ovs-monitor-ipsec, which reads the
Open_vSwitch.other_config cert/key/CA pointers and materialises
strongSwan configs for every Geneve tunnel managed by ovn-controller.
Pulls in strongswan + strongswan-pki as transitive deps.

Required by bead mulga-siv-125.3.5.

* feat(daemon): enable OVN native IPsec on intra-AZ Geneve at startup

When network.ipsec_enabled is true (default), the daemon points the
local OVS DB other_config at the per-node IPsec peer cert that admin
init / admin join provisioned (configDir/ipsec/peer.{pem,key} + the
cluster CA at configDir/ca.pem), then sets
other_config:ipsec_encapsulation=true.

ovs-monitor-ipsec (shipped by the openvswitch-ipsec package) consumes
those pointers and materialises strongSwan configs for every Geneve
tunnel ovn-controller programs — including OVN-IC inter-AZ tunnels
when federation lands in Phase 3a.

Missing cert files log a warning and leave Geneve plaintext; operators
upgrading an older cluster reissue certs via spx admin to close the
gap.

Bead mulga-siv-125.3.5.

* test(e2e): multinode IPsec wiring + xfrm SAs + ESP capture

TestMultinodeIPSec asserts:
- OVS DB on every node carries certificate/private_key/ca_cert pointers
  and other_config:ipsec_encapsulation=true (what daemon.enableOVNIPSec
  writes).
- ip xfrm state on every node has at least one AEAD SA in AES-GCM mode
  (rfc4106(gcm(aes)) or gcm(aes)) within 90s.
- tcpdump catches ESP (ip proto 50) on the underlay (best-effort —
  logged only; geneve may be idle during the 5s capture window).

Skips cleanly when the cluster was bootstrapped with --ipsec=false
(no ipsec_encapsulation key on first node).

Read-only over SSH; runs in the parallel bucket alongside the other
non-mutating multinode tests.

* fix(igw): write attachment State="attached" for AWS parity

Reconciler intent loader (network/reconcile/intent.go::loadIGWs) filters
IGW records with `State == "attached"`, but AttachInternetGateway was
writing `State = "available"`. The reconciler therefore never picked up
any attached IGW — `intent_igws=0` on every pass — so the OVN external
switch + gateway LRP + WAN bridge wiring built by IGWManager.AttachIGW
never ran for default-VPC IGWs (whose live `vpc.igw-attach` publish at
daemon bootstrap is lost — vpcd subscriber not yet wired).

Net effect on single-node e2e: every SSH probe to 192.168.x public IPs
timed out (TestSSHProbe, TestModifyInstanceAttribute, TestRebootInstance,
TestNATGateway, TestSGToSGDatapath) because SNAT/DNAT rules on the VPC
router had no path to the external network.

Match AWS InternetGatewayAttachment.State semantics:
 - Attach: State="attached"
 - Detach: State="detached"

Detach value is internal — recordToEC2 gates Attachments on VpcId != "",
so the detached State is never surfaced to API consumers.

Bead: mulga-siv-131

* fix(reconcile): call AttachIGW when IGW topology missing

applyIGWs previously deferred to the NATS handler when an intent IGW
had no external switch in OVN. When the vpc.igw-attach event is lost
(bootstrap-time default-VPC IGW published before vpcd subscriber is
ready), deferral never resolves and VM public-IP traffic dies.

Call IGWManager.AttachIGW directly — it is idempotent (short-circuits
when the external switch already exists), so the reconciler converges
default-VPC IGWs on first pass without duplicating work on subsequent
passes.

Closes mulga-siv-132.

* fix(test): align NewExternalIPAM call with 2-arg signature

Rebase onto dev pulled in daemon_system_instance_test.go which used
the legacy 3-arg NewExternalIPAM(jsNC, js, pools). The feature branch
already narrowed the signature to (js, pools) via the upstream-DHCP
config drop; align the test with the current signature.

* fix(vpcd): EnsureSubnet must EnsureVPC first to avoid NATS race

vpc.create-vpc and vpc.create-subnet are independent NATS events with
no inter-event ordering guarantee. Tenant bootstrap on iam.account.created
publishes both within <1ms, so the subnet handler's
CreateLogicalRouterPort can race the parent VPC's CreateLogicalRouter and
fail with "logical router not found". The cascade fails CreateNetworkInterface
which fails RunInstances which surfaces as InsufficientInstanceCapacity to
the SDK — masking the underlying topology race.

handleSubnetCreate now calls EnsureVPC(VPCID-only) before EnsureSubnet.
EnsureVPC short-circuits on existing LR (idempotent), so the race-winning
vpc.create-vpc handler's full CIDR/VNI ExternalIDs are preserved; if subnet
wins the race the LR is created with bare ExternalIDs (cosmetic) and the
follow-on vpc.create-vpc short-circuits.

Adds TestIntegration_SubnetBeforeVPC regression covering both orderings.

Closes mulga-siv-133.

* feat(ansible): require --external-pool, drop NAT, forward EXTRA_VARS

spx admin init now rejects --external-mode=nat and demands --external-pool
when mode=pool. The ansible init role silently skipped pool flags when the
range was unset, so installs fell over inside the spx validator. Make
targets also swallowed `-e` (make's env-override flag), so operators could
not override pool start/end without editing defaults.yml.

- vars/defaults.yml: rename nat_gateway_ip → external_gateway_ip; add
  spinifex_external_no_external opt-out; document the spx flag contract.
- roles/init/tasks/main.yml: drop NAT branch; assert pool range upfront
  with a fail_msg pointing at EXTRA_VARS / defaults.yml; emit gateway,
  prefix-len, gateway-ip only when explicitly set (let spx auto-detect);
  honour --no-external.
- playbooks/dev-reset.yml: rename captured var; coerce legacy
  external_mode=nat to pool with a warn; tighten gateway regex with \b.
- Makefile: ansible-dev-* targets now forward EXTRA_VARS="key=val ..."
  through --extra-vars so `make` callers can override without editing
  defaults.yml.
- scripts/ansible/README.md: document pool requirement, both invocation
  styles (direct -e vs make EXTRA_VARS), NAT removal.

* fix(ipsec): guard ipsec_encapsulation on ovs-monitor-ipsec liveness

enableOVNIPSec set OVS cert pointers + ipsec_encapsulation=true without
ensuring ovs-monitor-ipsec.service was running. Without that daemon, OVS
holds the cert pointers unused, strongSwan never gets IKE config, and
tunnel traffic ovn-controller marks for encryption gets silently
dropped. TestMultinodeIPSec fails on `node1 xfrm has no AEAD SAs`.

- systemd: spinifex-daemon Wants=/After= ovs-monitor-ipsec.service
- daemon: ensureOVSMonitorIPSecActive — systemctl enable --now +
  is-active poll; refuses to flip ipsec_encapsulation if daemon is dead
- daemon: single-node short-circuit — no peers means no tunnels means
  the flag is at best inert and at worst load-bearing-silent-drop
- ci: capture-net-diag.sh + workflow steps to snapshot OVS/OVN/xfrm
  state on failure, fan out across all 3 multinode nodes

Refs: mulga-siv-136

* test(e2e): sticky-skip downstream SSH tests when probe fails

When TestSSHProbe times out (3 min, typically because of mulga-siv-134
datapath bug), four downstream tests each re-probe SSH on the same
broken datapath and time out identically — single-node job runs ~24 min
instead of ~12 min, with the same error logged five times.

First waitForSSHReady timeout now sets a package-level atomic flag;
subsequent waitForSSHReady / trySSHReady / requireSSHHealthy calls skip
immediately. Preserves the original red signal on TestSSHProbe and on
any test that genuinely needed SSH (Skip ≠ Pass). Bool variant
(trySSHReady) consults but does not set the flag — its caller already
treats False as advisory warning, not fatal.

TestSGToSGDatapath has its own EventuallyErr SSH wait (not via
waitForSSHReady) and needs an explicit requireSSHHealthy(t) gate at
the top of runSGToSGDatapath. TestNATGateway already calls
waitForSSHReady first so the gate fires naturally.

Refs: mulga-siv-137

* fix(ipsec): use Debian unit name openvswitch-ipsec.service

CI artifact shows `Unit ovs-monitor-ipsec.service could not be found`
on every node. Debian's openvswitch-ipsec package ships the unit as
openvswitch-ipsec.service (the binary inside is ovs-monitor-ipsec, but
systemd's name follows the package). The previous commit guarded on
the wrong unit name, so:

- spinifex-daemon.service Wants=/After= silently no-op'd (missing unit)
- enableOVNIPSec's `systemctl enable --now ovs-monitor-ipsec.service`
  failed, daemon logged a warning and continued without flipping
  ipsec_encapsulation=true
- TestMultinodeIPSec skipped with `node1 reports ""` because OVS DB
  never received the cert pointers

Rename across all 5 spots (daemon, systemd unit, test, CI diag script,
workflow journal capture) to match the Debian package layout.

Note: the package itself still must be present on the CI VM image —
that's tracked in the mulga repo (image-builder provision.sh +
bootstrap-install.sh shim).

Refs: mulga-siv-136

* fix(e2e): authorize default SG tcp/22 + icmp in single-node fixture

admin init leaves the default SG closed (AWS parity); the Go single suite
never ported the Phase-5 SG-ingress block that run-e2e.sh has had since day
one, so every test runner SSH/ping probe hits the OVN port-group ACL drop.

- ec2helpers: add AuthorizeICMPIngress + EnsureDefaultSGOpen helpers.
- single/main_test: open default SG once per process in pkgFixOnce.Do.
- witness: extend ensureDefaultSGSSHIngress to authorize ICMP too.
- run-e2e.sh: append matching ICMP authorize next to tcp/22 block.

mulga-siv-134

* fix(network/reconcile): key DHCP_Options lookup by subnet_id not CIDR

Multi-tenant default VPCs share the same subnet CIDR (172.31.0.0/20) per
account. The existing FindDHCPOptionsByCIDR gate at apply.go:107 found
the first account's DHCP_Options row and skipped creation for every
subsequent subnet with the same CIDR. Those subnets' ports then attached
nothing (FindDHCPOptionsByExternalID misses on subnet_id), VMs got no
DHCPv4 lease, and SSH/ICMP into them silently failed even though SG
ACLs and NAT were correct.

Switch the gate to FindDHCPOptionsByExternalID keyed on spinifex:subnet_id
so each subnet owns its own row, matching the attach lookup at line 203.

Verified: account 000000000001 default VPC RunInstances now produces an
LSP with dhcpv4_options populated, VM cloud-init reports a 172.31.0.5/20
lease + default route via 172.31.0.1, and ping + ssh TCP handshake to
the EIP succeed end-to-end. Stale DHCP_Options row for the prior dead
subnet was wiped manually; reconciler recreated the correct row for the
live subnet on its next pass.

* fix(ipsec): enable openvswitch-ipsec at provision time, drop daemon write

Provisioning now runs `systemctl enable --now openvswitch-ipsec.service`
alongside openvswitch-switch and ovn-controller. The spinifex-daemon
process drops its `enable --now` shell-out and only polls is-active.

Sudoers gains one read-only line:
  spinifex-daemon ALL=(root) NOPASSWD: /usr/bin/systemctl is-active openvswitch-ipsec.service

This mirrors the existing vpcd ovn-controller is-active precedent and
removes the daemon's need for systemd-write capability. Aligns with
least-privilege service account pattern: provision enables services,
daemon only reads status.

If the unit is inactive at runtime, the daemon refuses to flip
ipsec_encapsulation=true (silent-drop guard from mulga-siv-136) and
surfaces a clear error pointing at scripts/setup-ovn.sh.

* chore: unblock preflight on feat/network-layer-redesign

Two pre-existing failures blocked preflight on the branch:

- govulncheck flagged golang.org/x/net@v0.54.0 (GO-2026-5026, ASCII Punycode
  rejection bug in idna.ToASCII); reached via utils.DownloadFileWithProgress.
  Bump to v0.55.0; go mod tidy carries x/sys to v0.45.0.
- TestTopologyHandler_SubnetCreate_RouterPortFails asserted subnet create
  fails when the parent VPC router is missing. That contract changed in
  aed7b2e (mulga-siv-133), which made handleSubnetCreate call EnsureVPC
  idempotently before EnsureSubnet to avoid a NATS publish-order race.
  Delete the now-impossible failure case.

* refactor(network/ovn): relocate nbdb model package from services/vpcd

Phase 4 / mulga-siv-125.6 Slice A. Pure import rename, no logic change.

The OVN Northbound DB model (LogicalSwitch, LogicalRouter, DHCPOptions,
etc.) lived under services/vpcd/nbdb/ because that was the original home
of every OVN caller. After Phase 1+2 the L1 client (network/ovn) and all
L3/L5 managers (network/policy, network/external, network/topology,
network/reconcile) became the primary callers — 8 importers in network/*
vs 2 in services/vpcd/. The directory move puts the schema model where
its consumers are, and unblocks deleting services/vpcd/ entirely once
the subscriber/launcher relocations land (Slices B–D).

* refactor(vpcd): delete dead retrofit/reconcileIGW helpers + bridge-mode bleed

Phase 4 / mulga-siv-125.6 Slice B.

Production path no longer touches any of:

- RetrofitAllGatewayPortNetworks / RetrofitAllExternalLocalnetOptions —
  the 5-pass startup leftovers that network/reconcile (Phase 2.2) made
  redundant. Nothing called them outside tests.
- reconcileIGW + its allocateGatewayLRPIP / gwLrpRange helpers + the
  ipv4ToUint32 / uint32ToIPv4 utilities — superseded by
  external.IGWManager (Phase 2.4) which carries its own pool logic.
- ensureLocalnetOptions / ensureGatewayPortNetworks /
  expectedGatewayPortNetwork — read-before-write retrofit shims for the
  same code paths.
- generateMAC — only callers were reconcileIGW + its tests.

useCentralizedNAT (the bridge-mode bleed flagged in plan §2.2) is
replaced by a policy.NATMode value injected via WithNATMode(...). The
mode is resolved once in vpcd.go from host.UplinkMode and threaded into
both the topology-handler lazy managers and the reconciler stack, so
"is this veth?" is no longer a question topology.go can ask. The
TopologyHandler defaults to NATModeDistributed when WithNATMode is
omitted, matching the previous default.

Drops services/vpcd/topology.go from 1220 LOC to 693, deletes ~700 LOC
of obsolete tests (TestGenerateMAC, TestEnsureLocalnetOptions_*,
TestRetrofitAllExternalLocalnetOptions_FixesClearedOptions,
TestReconcileIGW_*, TestGwLrpRange), and frees the nbdb + utils +
net imports in topology.go.

Stale "phase 4 migrates those onto the new managers" comment in vpcd.go
fixed in passing — the subscribers were migrated in Phase 2.6
(mulga-siv-129); only the file-relocation parts of Phase 4 remain.
Stale ensureLocalnetOptions / ensureGatewayPortNetworks references in
network/ovn/{live.go,mock/mock.go} doc comments also cleaned up.

* refactor(network): move NATS VPC subscribers to network/subscribers

Phase 4 Slice C (mulga-siv-125.6). Promotes the NATS event handlers out of
services/vpcd into a new spinifex/network/subscribers package. Subscriber
holds the topology/policy/external managers directly — the lazy *Once
adapter shim (topology_manager.go) is deleted along with vpcd's local
event-struct copies.

launchService now constructs topology.LiveManager eagerly with a DNS
callback derived from external pools (preserving the unscoped-pool lookup
old TopologyHandler.lmDNSServer did), builds every manager up front, then
hands them to subscribers.New + Subscribe. reconcile.New receives
topology.Manager directly instead of through the adapter.

Bridge-mode constants and waitForFlowsHV move into vpcd.go alongside the
launcher; they were left behind as topology.go's last responsibilities.

Handler-layer tests (topology_test.go, security_test.go, integration_test.go)
are dropped: substance is covered by network/topology, network/policy,
network/external manager tests. subscribers/subscribers_test.go adds
focused coverage: missing-dep rejection, topic registration smoke, and
bad-JSON envelope per topic.

services/vpcd is now down to the launcher + the ovn/mock compat aliases
(removed in Slice D when the launcher promotes to cmd/vpcd/).

* refactor(vpcd): relocate services/vpcd → spinifex/vpcd; drop dead aliases

Phase 4 Slice D (mulga-siv-125.6). Final cleanup of the network-redesign
package layout. services/vpcd/ disappears entirely; the launcher remains
an in-process Service impl, just rehomed under spinifex/vpcd/ (no separate
binary — spx vpcd start stays the cobra entrypoint).

- Delete services/vpcd/mock_ovn.go + ovn.go (compat aliases now dead post
  Slice C; only callsite was launchService's NewLiveOVNClient, inlined to
  ovn.NewLiveClient).
- git-rename services/vpcd/vpcd.go + vpcd_test.go to spinifex/vpcd/.
- Retarget three importers (spinifex/service/service.go +
  service_test.go, cmd/spinifex/cmd/service.go) to the new path.
- Fix stale services/vpcd / TopologyHandler comments in network/reconcile/
  + network/external/types.go + spinifex/vpcd/vpcd.go.
- service-interfaces.yaml vpcd path updated.
- Plan doc §13/§14/§16 + §9.2/§19 updated: drop cmd/vpcd/main.go (was
  speculative; never built) in favour of in-process Service impl at
  spinifex/vpcd/vpcd.go. Plan §16 Created list now lists subscribers/.

Phase 4 plan items 1+2 (remove services/vpcd, entrypoint location)
satisfied. Items 3+4 remain blocked on mulga-siv-125.4 + 125.5 (bundled
join token, plan archive).

* fix(ovn): install openvswitch-ipsec + strongswan explicitly

ovs-monitor-ipsec.service fails to start without an IKE daemon. The
openvswitch-ipsec package only Recommends strongswan, so any apt
config that drops Recommends (or a base image with the recommends
already skipped) leaves the service in a Restart loop with 'IKE
daemon is not installed'. Hoist both packages into setup-ovn.sh so
provisioning is the single source of truth — the bootstrap shim in
mulga is no longer needed.

* test(network): pin ADR-0006 invariants to executable suite

Add static-analysis + behavioural tests that bind every safety and
liveness clause in ADR-0006 (S1-S9, L1-L3) to a named Go test. Failure
output quotes the ADR clause verbatim and points at the offending
file:line so future debugging sessions can't quietly bypass a layer
contract to make a test green.

Static-analysis suite (spinifex/network/invariants/):
- S1 layers_test.go: parses `go list -json`; rejects upward layer
  imports and layers pulling from cross-cutter packages
- S2 host_containment_test.go: AST-detects ovs-vsctl / ovn-nbctl /
  ovs-ofctl shell-out outside network/host/
- S3 nat_mode_test.go: rejects .UplinkMode() / NATModeFromUplinkMode()
  calls outside the init-time resolver locations
- S4 names_test.go: AST-detects OVN object name construction (concat,
  fmt.Sprintf, strings.Join) outside topology/names.go
- S5 policy_no_create_test.go: rejects CreateLogical{Switch,Router,...}
  and DeleteLogical{...} calls inside network/policy/
- S6 federation_isolation_test.go: rejects TransitSwitch /
  TransitRouterPort references and ovn-ic literals outside
  network/federation/ (pre-protects the layer before it lands)
- S8 ipsec_test.go: rejects strongswan / xfrm / IKEv2 / libreswan /
  openswan imports anywhere in network/
- S9 reconciler_singleton_test.go: rejects Reconcile…Loop and
  Reconcile…Pass<n> function names anywhere in network/
- S7 nats_subjects_test.go: scans for `vpc.<verb>` subjects missing
  the {azID} segment; calls t.Skip with the gap report so every test
  run prints the work-to-do without breaking CI. Flip to t.Fatalf
  when the cluster-wide subject rename ships.

Behavioural suite (spinifex/network/reconcile/liveness_test.go):
- L1 reconciler converges: scaled-intent (N=1,3,8) double-Reconcile
  property test; asserts second pass is a no-op
- L2 drift bound: structural check that DriftInterval is positive and
  ≤30 min support window; full fake-clock behavioural test deferred
- L3 federation re-enables: t.Skip stub pointing at the missing
  network/federation/ package

Fixes the one production S4 violation the new walker found:
network/external/igw.go was constructing "gw-port-"+vpcID inline.
Adds topology.GatewaySwitchPort(vpcID) helper and retargets both
AttachIGW and DetachIGW callsites through L2.

Plan + per-clause mechanic + phasing in
docs/development/improvements/network-invariants.md.

Refs: mulga-siv-140

* fix(ovn): install strongswan-charon (not strongswan metapackage)

The strongswan metapackage's '\''charon-systemd | strongswan-charon'\''
alternative resolves to charon-systemd by default, which ships
/usr/sbin/charon-systemd but not the legacy /usr/sbin/ipsec helper or
/usr/lib/ipsec/charon binary that ovs-monitor-ipsec --ike-daemon=strongswan
shells out to. Install strongswan-charon explicitly to pull
strongswan-starter (legacy ipsec controller) + the matching charon binary,
matching what openvswitch-ipsec.service expects.

Also reset-failed + restart openvswitch-ipsec.service after enable to
recover from the deb post-install starting the service before its
dependencies finished unpacking.

* chore: add CODEOWNERS — joshsiv-mulga gates network/ + vpcd/

Fall-through reviewer for any change is the maintainer.
network/ and vpcd/ are explicitly listed so the matching branch
protection rule ("Require review from Code Owners") routes those
PRs to joshsiv-mulga. Those trees are governed by ADR-0006
invariant tests (spinifex/network/invariants/); CODEOWNERS adds a
human review gate on top of the mechanical fence.

Refs: mulga-siv-141

* chore: CODEOWNERS fallthrough → @mulgadc/mulgadc-engineers team

Fallthrough reviewer should be the team, not a single maintainer, so
any engineer can approve PRs outside the explicitly-gated paths.
network/ and vpcd/ keep joshsiv-mulga as the required reviewer per
ADR-0006 invariant ownership.

Refs: mulga-siv-141

* feat(ci): add test_run workflow input for -test.run filter

Pass an optional regex through to each suite's '\''go test -test.run'\'' so
dispatches can target a single test (e.g. '\''^TestMultinodeIPSec$'\'') without
running the full multinode suite. Threaded through single, multinode, and
reboot suite invocations; empty input preserves current behaviour.

* fix(daemon): flip NB_Global.ipsec=true on management node

Setting Open_vSwitch.other_config:ipsec_encapsulation=true on each
chassis is necessary but not sufficient for OVN native IPsec — without
NB_Global.ipsec=true, ovn-controller never adds options:remote_name to
the Geneve tunnel ports, so ovs-monitor-ipsec sees no IPsec-enabled
tunnels and the kernel xfrm tables stay empty. After enabling
ipsec_encapsulation locally, also write NB_Global.ipsec=true when the
local ovnnb_db socket is present (management node only); workers skip
silently — one writer is enough for a cluster-wide flag.

Adds a scoped sudoers entry pinning the daemon to that exact ovn-nbctl
invocation so the grant can't be reused for other NB mutations.

* fix(ovn): grant charon AppArmor read on /etc/spinifex/ipsec

The strongswan-charon profile only allows reads from /etc/ipsec.*,
/etc/strongswan.*, and a small fixed allowlist. ovs-monitor-ipsec writes
the per-tunnel strongSwan config with absolute paths to our peer cert +
key under /etc/spinifex/ipsec/, so charon hits 'Permission denied'
loading them (it runs as uid 0 but AppArmor still blocks) and no xfrm
SAs come up. Drop a read grant for /etc/spinifex/ipsec/** into the
profile's local override hook + reload.

* fix(ovn): pin OVS system-id to hostname for IPsec cert identity match

ovs-monitor-ipsec uses chassis-id as the IKEv2 `@<name>` peer identity in
the strongSwan config it generates. Our per-node IPsec peer cert
(admin.GenerateIPSecPeerCert) carries the node name as CN + dnsName SAN.
With chassis-id left at the package-generated UUID, charon validates
`@<UUID>` against a cert with dnsName=<hostname> — mismatch returns
AUTHENTICATION_FAILED and no xfrm SAs are negotiated.

Pin system-id to hostname (which equals the node name on Mulga clusters)
by writing both the on-disk source of truth (/etc/openvswitch/system-id.conf,
read by ovs-ctl on boot) and the running OVS DB value. Writing only one
would drift on the next reboot — the original "do not override" comment
was right about that hazard, just wrong about the resolution.

Cross-link the invariant in admin/ipsec.go: changing the cert identity
without updating setup-ovn.sh (or vice versa) breaks IKE silently.

Refs: mulga-siv-136

* fix(ovn): take --node-name flag so chassis-id matches cluster identity

CI hostnames are bead-themed (env20-casuarina) and don't match the
cluster node name (node1/node2) baked into the IPsec peer cert dnsName
SAN at `spx admin init/join --node NAME`. Pinning system-id to
`hostname -s` produced env20-casuarina; charon then validated
`@node1` against dnsName=env20-casuarina and IKE failed with
AUTHENTICATION_FAILED.

Add a --node-name=NAME flag to setup-ovn.sh, default to hostname for
manual/dev invocations, and update the ansible install role to pass
{{ spinifex_node_name }}. The matching bootstrap-install.sh change
lives in mulga.

Refs: mulga-siv-136

* refactor(daemon): relocate L0 helpers to network/host + widen ADR-0006 S2

Phase 4 Slice E of mulga-siv-125.6. Cleans up spinifex/daemon/network.go
per the audit and widens the S2 invariant to forbid OVS/OVN shell-outs
in spinifex/daemon/ (daemon is an L0 consumer; S2 applies).

Moved to network/host/:
- OVSNetworkPlumber + SetupTap/CleanupTap → host.OVSPlumber (host.NewOVSPlumber)
- GetBridgeIPv4 → host.GetBridgeIPv4
- OVNHealthStatus + CheckOVNHealth → host.OVNHealth + host.HealthStatus
- daemon/ipsec.go OVS/OVN ops → host.SetIPSecCertPaths, host.EnableIPSecEncapsulation, host.SetNBGlobalIPSec

Moved to utils:
- sudoCommand → utils.SudoCommand + utils.SetSudoCommandForTest test seam
  (cross-package reassign would trip the reassign linter; helper keeps
  the indirection inside utils).

Moved to vm:
- generateMgmtMAC → vm.GenerateMgmtMAC (pairs with vm.GenerateDevMAC)

Deleted (dead):
- SetupComputeNode (replaced by network/host/bridges.go:ensureBridges +
  scripts/setup-ovn.sh:572-579)
- EnsureDataRoute
- findInterfaceByIP
- daemon/network.go + dead tests in daemon/network_test.go (duplicates of
  vm package tests retained; mgmt MAC test moved to vm/lifecycle_test.go)

S2 invariant (network/invariants/host_containment_test.go) now walks
both spinifex/network/ and spinifex/daemon/, skipping network/host/.

* fix(ovn): broaden AppArmor read grant to /etc/spinifex (covers CA cert)

The earlier override granted reads on /etc/spinifex/ipsec/** only, which
covers the peer cert + key but NOT the cluster CA at /etc/spinifex/ca.pem.
charon then can't load the CA, can't validate the peer cert chain, and
surfaces the failure as `no trusted RSA public key found for '<peer>'`
even though identity matching now succeeds — IKE_AUTH fails with
AUTHENTICATION_FAILED and no xfrm SAs negotiate.

Grant /etc/spinifex/** instead (covers ca.pem + ipsec/peer.{pem,key})
and always rewrite the override so re-runs replace the older narrower
rule.

Refs: mulga-siv-136

* fix(ipsec): symlink cluster CA into charon's default cacerts dir

ovs-monitor-ipsec writes per-conn `cacert=/etc/spinifex/ca.pem` references
in the strongSwan config, but strongSwan 6.0 only loads CAs declared in
standalone `ca` sections or files placed in /etc/ipsec.d/cacerts at
startup. Without this, charon authenticates the local side fine but
rejects every inbound peer cert as `no trusted RSA public key found for
'<peer>'`, AUTH_FAILED, and no xfrm SAs negotiate.

Do the symlink in admin.GenerateIPSecPeerCert (right after writing the
peer cert) — setup-ovn.sh runs before `spx admin init/join` creates
/etc/spinifex/ca.pem, so the wiring can't live there. Use a stage-and-
rename pattern so concurrent test invocations don't race on the symlink.

/etc/ipsec.d/cacerts is on charon's default AppArmor allowlist so no
profile change needed.

Refs: mulga-siv-136

* chore(setup-ovn): drop apt-get install_packages block

OVS/OVN/openvswitch-ipsec/strongswan-charon are baked into the CI gold
image via mulga's image-builder/scripts/provision.sh (commits 116bb05,
a9b3a9c). Keeping a runtime apt-get install path here pulled CI through
apt-cacher-ng on every bootstrap and tripped on intermittent "Message
has been manipulated" InRelease cache corruption (env21/env20 runs).

Drop the install block. Gold-image rebuild is the canonical place to
add new system packages. If a package is missing, downstream ovs/ovn
commands fail loudly during setup-ovn.sh's later steps — clearer signal
than silently re-installing through a flaky proxy.

setup.sh already supports INSTALL_SPINIFEX_SKIP_APT=1 (passed by mulga's
bootstrap-install.sh:237) so this removes the last runtime apt-get call
on the CI provisioning path.

* fix(ovn): gate system-id pin on explicit --node-name

setup-ovn.sh used to fall back to `hostname -s` when --node-name wasn't
passed, and then unconditionally wrote that value to
/etc/openvswitch/system-id.conf + ovs-vsctl external_ids:system-id.

On CI single-node, the gold image already registered a chassis with
name=<UUID>; setup-ovn.sh then rewrote system-id to the bead-themed
hostname (env10-banksia). vpcd's discoverChassis treats any chassis row
whose name != local system-id but hostname == local hostname as a stale
local chassis and skips it, so vpcd reported "no OVN chassis registered
in SBDB" and refused to start, cascading into the e2e + e2e-go failures
on run 26430839508.

Drop the hostname fallback. If --node-name is given, pin both the
on-disk file and the running OVS DB to it (callers that care about
IPsec cert identity matching still get it). If no --node-name is given,
leave the existing system-id alone — that's always safe whether the
value came from a gold-image UUID, bootstrap-install.sh writing nodeN
before this script runs, or a manual ansible value.

* fix(network/reconcile): skip orphan prune on startup; drift owns GC

The vpcd startup reconcile races against the daemon's EnsureDefaultVPC:
the daemon writes SG KV rows + publishes vpc.create-sg on each node in
parallel with vpcd starting up. The leader-gated reconcile can load
intent before any SG row is visible on its local JetStream replica
while subscribers on peer nodes are concurrently creating port groups
from the same vpc.create-sg events. A startup orphan-port-group sweep
then deletes managed sg_* port groups that intent hasn't caught up to.

CI run 26434124790 trace:
  node2 reconcile/lock: elected holder=env20-bottlebrush
  node2 reconcile: starting intent_sgs=0
  node2 reconcile/apply: removed orphan port group pg=sg_161c70ce23e704a2a
  node2 reconcile/apply: removed orphan port group pg=sg_a0d078650a3150391
  node2 reconcile/apply: removed orphan port group pg=sg_54b564b374e9162bb

Every subsequent RunInstances → vpc.create-port failed with
"port group not found" for ~3 minutes until the 5-minute drift tick
recreated the port groups. Tests give up after 60s; six multinode
suites cascade-fail on InsufficientInstanceCapacity.

Split the reconciler into Reconcile (full prune, drift loop) and
ReconcileApplyOnly (no prune, startup). applySGs takes a pruneOrphans
bool. vpcd startup calls ReconcileApplyOnly; drift loop unchanged.
Legitimate orphans get garbage-collected on the next drift tick — at
worst 5 minutes of lingering rows, no production impact.

Add TestReconcile_ApplyOnlyKeepsOrphanPortGroup to lock the contract.

* fix(ipsec): trigger charon rereadcacerts after CA symlink install

strongSwan scans /etc/ipsec.d/cacerts only at charon startup. The unit
openvswitch-ipsec.service is enabled at provision time and starts before
admin init writes the cluster CA symlink, so charon ends up running with
zero CAs loaded. Every IKE_AUTH then fails with `no trusted RSA public
key found for '<peer>'` and no SAs negotiate — the failure mode exposed
by TestMultinodeIPSec.

Append a stroke rereadcacerts call at the end of
installCAIntoCharonTrustStore so an already-running charon picks up the
freshly-placed CA without a service restart. Failure is swallowed at
debug — a missing/stopped charon at admin-init time is expected and a
later startup will scan cacerts naturally.

* refactor(network/host): move IPSec orchestrator from daemon (ADR-0006 S8)

ADR-0006 S8: "IPSec is OVN-native only. No layer implements custom IKEv2,
XFRM rules, or direct strongSwan management. IPSec SA lifecycle is delegated
entirely to OVN native IPSec and is invisible above L0."

The enableOVNIPSec orchestrator and its ensureOVSMonitorIPSecActive helper
lived in daemon/ipsec.go but composed L0 primitives (SetIPSecCertPaths,
EnableIPSecEncapsulation, SetNBGlobalIPSec) that already lived in
network/host. The orchestrator now lives alongside its callees as
host.EnableOVNIPSec, taking configPath and clusterConfig from the daemon at
the call site. Helper and test-override package vars (systemctlActiveTimeout,
ovnNBSocketPath) move with it; tests are translated to call EnableOVNIPSec
directly rather than via the Daemon struct.

Closes mulga-siv-142

* refactor(daemon): use topology.Port for OVN port names (ADR-0006 S4)

ADR-0006 S4 forbids any layer above L2 from constructing OVN object
names. Three daemon sites formatted "port-" + ENIId inline; route them
through topology.Port instead.

Closes mulga-siv-143

* refactor: use topology.Port for OVN port names in handlers + vm (ADR-0006 S4)

Replace inline "port-"+eniID formatting across five sites (eip, instance x2,
vpc/eni, vm/network_helpers) with topology.Port. OVSIfaceID stays as a thin
wrapper to preserve the OVN binding contract comment and existing call sites.

Closes mulga-siv-144

* test(network/invariants): widen scan roots to daemon/handlers/vm/testutil/utils (ADR-0006)

Widen ADR-0006 invariant scan roots so drift in upstack consumers surfaces
in CI. Backlog of violations in widened roots was drained by
mulga-siv-142/-143/-144; this commit makes the wider scan permanent.

  - S2 (host_containment): add vm/ alongside network/ + daemon/
  - S3 (nat_mode):         add daemon/ alongside network/ + vpcd/
  - S4 (names):            add daemon/, handlers/, vm/ alongside
                           network/ + vpcd/; add narrow AWS-ID exemption
                           (vpc-cidr-assoc-) so AWS resource IDs are not
                           misclassified as OVN object names
  - S6 (federation):       add daemon/, handlers/ alongside network/;
                           convert single-root walk to slice
  - S7 (nats_subjects):    add daemon/, handlers/, testutil/, utils/ —
                           stays t.Skip pending cluster-wide subject
                           rename; gap report now lists 58 subjects

CODEOWNERS: add /spinifex/network/invariants/ rule so widening or
narrowing the scan needs explicit owner review.

Closes mulga-siv-145
Refs: audit-adr-0006.md

* chore(e2e): disable IPsec in pseudo multi-node test

Pseudo multi-node runs three simulated nodes as unprivileged tf-user.
The charon trust-store install in 904b45e writes /etc/ipsec.d/cacerts,
which fails with EACCES under a non-root caller and aborts admin init.

Disable --ipsec for this suite — loopback-only nodes don't exercise
real Geneve encryption anyway. Real-multi-node + single-node e2e
(both run admin init via sudo) continue to cover the IPsec path.

* fix(ovn): atomic Ensure* primitives prevent duplicate logical entities

OVN NB has no unique constraint on Name. The previous
GetLogicalRouter→CreateLogicalRouter sequence in EnsureVPC was a TOCTOU
race: when vpc.create on one node and the defensive vpc.create-subnet
EnsureVPC call on another both observed absence, both inserted, yielding
two routers per VPC. The orphan held DNAT references blocking EIP
detach, and DNAT/flow installation landing on the orphan caused
TestMultinodeGuestSSH SSH timeouts.

Add EnsureLogicalRouter / EnsureLogicalSwitch / EnsurePortGroup to the
libovsdb client. Each builds a single OVSDB transaction combining a
wait-op (Until=equal, Rows=[]) gated on absence of a Name match with the
insert. The server serialises the wait+insert atomically; concurrent
callers see exactly one survivor and the rest fall through to a re-fetch
that returns the canonical row.

Switch all production callers (topology.EnsureVPC / EnsureSubnet /
EnsureSGPortGroup, external.AttachIGW, reconcile.applyVPCs /
applySubnets) to the Ensure* variants. Bare Create* remains available to
the L1 wrapper.

Add invariant test TestS4_OVNNamedCreatesUseEnsure (AST walk) to block
future reintroduction of the bare Create* call sites outside
network/ovn.

Mock implements Ensure* under its existing mutex so the concurrency
tests (50/30/30 goroutines for Router/Switch/PortGroup) prove a single
UUID survives.

Refs: mulga-siv-146

* fix(ovn): wait-op rows must be non-empty; flip to NotEqual predicate

The Ensure* primitives sent a wait-op with `Rows: []ovsdb.Row{}` plus
`Until: ==` (RFC 7047 §5.2.6 absence test). The libovsdb Operation
struct tags Rows as `json:"rows,omitempty"`, so the empty slice was
dropped on the wire and ovsdb-server rejected every transaction with
"Required 'rows' member is missing", breaking reconciler bootstrap and
every downstream create-port lookup ("logical switch X not found").

Flip the predicate to the equivalent `Until: !=` formulation with a
single-row projection containing the Name we want absent:

  no row    → projection []           != [{name}] → predicate holds
  row exists → projection [{name}]    == [{name}] → predicate fails

Same atomic guarantee, JSON now well-formed. Mock tests can't catch
this — only a real ovsdb-server validates the envelope.

* chore: remove generateMAC wrapper

* chore: remove all bead / plan references

* fix(network/policy): wait for chassis flows after AddNATGateway

AddEIP fires m.barrier() to block until ovn-northd compiles NB→SB and every
chassis installs the new dnat_and_snat flows; AddNATGateway returned right
after the NB commit. So `aws ec2 create-route … --nat-gateway-id` would
publish vpc.add-nat-gateway, the SNAT row would land in NB, and the API
call would succeed before the gateway chassis had programmed the SNAT flow
for the private subnet.

Phase 8d's 10×5s=50s ping budget races that flow-install latency on slow
CI hosts (last seen run 26455602615 single-node, identical flake on
unmodified dev run 26434711010 — pre-existing, not introduced by Ensure*).

Mirror AddEIP: call m.barrier() after AddNAT returns. Add unit test
TestNATManager_AddNATGateway_FlowsBarrier_Fires covering the new path.

* chore: remove more plan refs

* chore: remove GenerateIPSecPeerCertIfEnabled

* chore: remove dupliate subnetGatewayCIDR function

* chore(network): trim superfluous comments across network/ tree

Collapse multi-paragraph godocs to 1-2 sentences, drop WHAT-restatement
comments, remove section dividers grouping <10 items, and cut prose
narration in tests. ADR clause references, one-line WHY comments for
non-obvious OVN/OVSDB/AWS/NATS semantics, and exported-symbol godoc are
preserved. No behavioural changes.

Packages: invariants, topology, host, external, ovn, reconcile, policy,
subscribers.

* fix(igw): restore attachment State="available" for AWS parity

AWS InternetGatewayAttachment.State is "available" when an IGW is
attached to a VPC, per the AWS SDK doc ("the state is available when
attached to a VPC; otherwise, this value is not returned"). Commit
b7505f8 wrote "attached"/"detached" to align with the reconciler
filter, which inverted AWS parity.

Fix the producer to write "available" again and update the consumer:
 - handlers/ec2/igw: AttachInternetGateway and DetachInternetGateway
   both persist State="available"; IGWRecord comment narrowed.
 - network/reconcile/intent.loadIGWs: filter accepts "available" (was
   "attached"); attachment is identified by VpcId != "".
 - tests updated: igw service_impl_test, routetable service_impl_test
   fixture, reconcile intent_test fixture.

* Update spinifex.toml

* refactor(subscribers): route EIP/NATGW through L5 wrappers (ADR-0006 §S1)

Subscriber previously called policy.NATManager directly for EIP and NAT
Gateway operations, bypassing the L5 wrappers (EIPManager, NATGWManager)
that existed on paper. ADR-0006 §S1 requires every cross-layer call to
pass through the immediate lower neighbor's typed interface; IGW already
followed this pattern.

Wire EIPManager and NATGWManager into the Subscriber struct, construct
them in vpcd alongside IGWManager, and swap the four direct-L3 call
sites (AddEIP, DeleteEIP, AddNATGateway, DeleteNATGateway) onto the
L5 surface (AttachEIP, DetachEIP, AttachNATGateway, DetachNATGateway).
AttachEIP now fires the flows-barrier, giving callers the same
"reachable on return" guarantee IGW already had.

The reconciler still calls policy.NATManager directly; that's a
cross-cutter and a separate concern.

* test(reboot): port 8MB WAL pad workaround from bash run-reboot-e2e.sh

App VMs' user-data writes (unit file + index.html) sit in the on-host
WAL until WriteWALToChunk crosses the 4MB threshold. Host reboot before
that loses them — systemd then refuses to load the zero-byte unit and
the responder never starts. Mirror the bash driver's dd+sync pad so the
WAL flushes pre-reboot. Drop when the upstream WAL fix lands.

* test(e2e): dump OVN/OVS/SG state on Phase 8d NATGW failure

Phase 8d's existing failure path only prints lr-nat-list and
lr-route-list. CI artifacts are not uploaded when run-e2e.sh exits
nonzero, so debugging the NATGW regression requires inline diagnostics
in the journal. Expand the dump to include nb/sb show, chassis bindings,
port_group ACLs, br-int flows filtered to the NATGW IP/private subnet,
host routes, and the private VM's own ip/route/neigh state.

* fix(ovn,reconcile): scope NAT deletes to router; NATGW snat per associated subnet

Two compounding bugs caused Phase 8d NATGW E2E flake (~60% CI failure):

1. ovn.DeleteNAT/DeleteNATByExternalIP searched all NAT rows globally and
   only mutated the named router afterwards. With AWS subnet CIDRs repeating
   across VPCs, (type, logicalIP/externalIP) is not globally unique — the
   delete picked a NAT row owned by a different router, the mutate was a
   no-op, and the row delete failed with "remaining reference(s)", leaving
   the original router's NAT orphaned. Both calls now resolve the LR first
   and filter NAT lookups to lr.NAT UUIDs. Mock client mirrors the scoping.

2. reconcile.loadNATGWs used the NATGW's home (public) subnet CIDR as
   SubnetCIDR, producing an snat for the wrong CIDR that collided with the
   correct event-published snat. loadNATGWs now walks route tables and
   emits one NATGWSpec per (NATGW, associated private subnet) pair,
   mirroring publishNatGatewayEventsForAssociation. Intent map keyed by
   natgwID|subnetCIDR so multi-subnet NATGWs produce distinct specs.

Tests:
- nat_test.go: cross-router same-logicalIP isolation for DeleteEIP and
  DeleteNATGateway
- intent_test.go: NATGW snat uses associated private subnet CIDR, not the
  NATGW home subnet; NATGW with no associations produces no spec

---------

Co-authored-by: Julian Sommer <115516918+juliansommer@users.noreply.github.com>
2026-05-27 21:05:01 +10:00
Julian Sommer 3f3ba32317 chore: cleanup COMMANDS.md 2026-05-27 15:54:17 +10:00
Julian Sommer f525006d87 feat: IAM Roles part 2 (#256) 2026-05-27 15:44:18 +10:00
Josh Siviour ae6fcfe7a1 Ansible dev extensions (#254)
* chore(ansible): add dev-status playbook (read-only health doctor)

New `dev-status` role + playbook + Makefile target. Read-only snapshot of
spinifex.target, failed units, port listeners, OVN/OVS state, gateway
round-trip, AMI/keypair/volume/instance counts, and build-vs-install drift
for spx + nbdkit plugin + microvm artifacts. Pairs with dev-preflight as
the post-install / running-system diagnostic.

Plan: docs/development/improvements/ansible-dev-extensions.md (mulga).
Bead: mulga-siv-86.1.

* chore(ansible): add dev-logs playbook (bug-report bundle)

New `logs` role + playbook + Makefile target. Captures journalctl for
spinifex-* / ovn-* / openvswitch-switch / qemu / nbdkit, copies
/var/log/spinifex/, snapshots systemctl status + networking (ip/ss/ovs/
ovn show) + spx/plugin/microvm version manifest + dmesg, then bundles
into /tmp/spinifex-logs-<host>-<ts>.tar.gz owned by the invoking user.

Tail mode deliberately omitted — devs should `journalctl -u 'spinifex-*' -f`
directly; ansible captures stdout and is the wrong tool for follow.

Overrides: -e logs_since=10min, -e logs_output_dir=/tmp,
-e logs_include_dmesg=false.

Plan: docs/development/improvements/ansible-dev-extensions.md (mulga).
Bead: mulga-siv-86.2.

* chore(ansible): add dev-snapshot / dev-restore (state checkpoint)

New snapshot + restore roles + playbooks + Makefile targets.

dev-snapshot quiesces the full spinifex+OVN+OVS stack in dependency
order (spinifex.target → ovn-controller → ovn-central →
openvswitch-switch), kills lingering QEMU VMs, then tars /etc/spinifex,
/var/lib/spinifex (viperblock volumes included), /var/lib/ovn (NB+SB
DBs), and /etc/openvswitch/conf.db into /var/lib/spinifex-snapshots/
<name>.tar.gz with a sibling .manifest, restarts services in reverse,
and waits for the AWS gateway to come back.

dev-restore inverses: stop services, wipe the same path set, untar the
named bundle, copy /etc/spinifex/ca.pem back into the system trust
store and rebuild the CA bundle (the snapshot doesn't include
/usr/local/share/ca-certificates/spinifex-ca.crt), daemon-reload,
restart in reverse order.

Both refuse to run without -e snapshot_name=<name>, validate the name
matches [A-Za-z0-9._-]+, and produce honest summaries when the gateway
fails to come back (does not mask other ongoing issues).

Tested on dev box: snapshot/restore of 2.4 GiB state (large viperblock
volumes) completes cleanly with no data drift; services all return to
active.

Plan: docs/development/improvements/ansible-dev-extensions.md (mulga).
Bead: mulga-siv-86.3.

* fix(ansible): wrap aws/spx calls in sg spinifex to fix group inheritance

Adds scripts/ansible/scripts/aws-as-spinifex.sh and spx-as-spinifex.sh
helpers that re-enter the command under `sg spinifex -c '...'` with
AWS_PROFILE=spinifex preset. Swaps every AWS / spx admin task across
the status, init, deploy, smoketest, snapshot, and restore roles to
use these via spinifex_aws_cli / spinifex_spx_cli vars.

Root cause (mulga-siv-92): ansible's `become_user` is a no-op when the
target user equals the calling user, so sudo never runs and
supplementary groups are inherited from the operator's invoking shell
rather than re-initialised via initgroups(3). On shells that predate
setup.sh's spinifex group add, the spinifex group is missing and
/etc/spinifex/ca.pem (drwxr-x--- root:spinifex, the AWS CLI's
ca_bundle) is unreadable — aws cli fails with SSL Errno 13. The
helpers re-enter the command in a shell that explicitly assumes the
spinifex group via sg(1), bypassing the issue regardless of how
ansible-playbook is invoked.

Side benefit: drops 50 lines of repeated `become: true / become_user /
environment: AWS_PROFILE` boilerplate across the roles.

Closes mulga-siv-92.

* chore(ansible): add dev-version playbook (build vs install drift)

New `version` role + playbook + Makefile target. Compares sha256 of
built artifacts (bin/spx, viperblock/lib/nbdkit-viperblock-plugin.so,
build/microvm/{vmlinuz,initramfs.cpio.gz}) against their installed
counterparts (/usr/local/bin/spx, plugindir, /usr/share/spinifex/
microvm/*). Prints per-artifact drift verdict plus sub-repo HEAD
short-revs (spinifex/viperblock/predastore) for context. Closes with
either "DRIFT detected — run: make ansible-dev-deploy" or "No drift".

Pure read-only. Faster than dev-status (no AWS/OVN/port probing).

Plan: docs/development/improvements/ansible-dev-extensions.md (mulga).
Bead: mulga-siv-86.9.

* chore(ansible): add missing roles/deploy/meta/main.yml

All other roles have meta/main.yml; deploy was the lone outlier.
Consistency fix. Closes mulga-siv-86.10.

* chore(ansible): add dev-vpc playbook (idempotent dev VPC fixture)

New `vpc` role + playbook + Makefile target. Idempotent
present/absent dispatch creates a deterministic spinifex-dev-vpc with
public subnet (10.99.1.0/24, map-public-ip-on-launch), internet
gateway, route table, and default route. Hooks into smoketest's launch
path — smoketest's existing
Name=map-public-ip-on-launch,Values=true filter now picks it up
instead of falling through to the "no subnet → skip launch" branch.

Idempotency: each step describe-then-create, looking up by Name tag
where possible. Re-running on a converged VPC is changed=0, skipped=5
(the create tasks).

Workaround for mulga-siv-94 (gateway silently drops
--tag-specifications and no-ops create-tags for route tables): role
falls back to "RT associated with our subnet" lookup so tag absence
doesn't break idempotency. create-tags task is kept as a no-op-now
forward-looking step for when the gateway gap is closed.

Teardown (-e dev_vpc_state=absent) enumerates ALL non-main route
tables in the VPC (not just the tagged one), so orphans from prior
runs that landed before the fallback was added get cleaned up too.

Tested end-to-end against josh-banksia dev gateway: create / re-run
(idempotent) / teardown all converge cleanly.

Plan: docs/development/improvements/ansible-dev-extensions.md (mulga).
Bead: mulga-siv-86.4.
2026-05-26 16:14:11 +10:00
Julian Sommer 51c48d8c0e feat: IAM Roles part 1 (#253) 2026-05-26 15:45:46 +10:00
Julian Sommer a7f7610176 release: update go.mod for v1.5.0 2026-05-26 10:04:09 +10:00
dependabot[bot] e34b536b97 chore: bump the go-dependencies group across 1 directory with 3 updates (#252) 2026-05-26 09:10:38 +10:00
dependabot[bot] ef097bf4ab chore: bump actions/setup-go from 5 to 6 in the github-actions group (#251) 2026-05-26 09:09:24 +10:00
Julian Sommer 3b5e3e21c0 chore: tidy 2026-05-26 09:04:46 +10:00
Julian Sommer 71350033f7 chore: bump golang.org/x/net 2026-05-26 09:02:55 +10:00
joshsiv-mulga 80ab3fb37a ci: prune rootless docker + trap container leaks in microvm build
Self-hosted runner accumulated 18GB in overlay2 from leaked container
layers. Two causes: build-microvm-image.sh only removed the alpine
container on the success path, and no workflow step pruned docker
between runs.

- scripts/build-microvm-image.sh: container id now removed via the
  existing EXIT trap, so failures, signals, and runner kills no longer
  leak the writable layer.
- .github/workflows/e2e-go.yml: prune containers / dangling images /
  buildx cache before each Build Install Artifacts step, in all three
  e2e jobs (single, multinode, reboot).
2026-05-22 16:52:38 +10:00
Julian Sommer 756a5bb31f feat: media-sanitization doc 2026-05-22 15:38:10 +10:00
Julian Sommer a7f3debd6d fix: log and retry on Describe failure in ensureDefaultVPCInfrastructureFor 2026-05-22 15:22:30 +10:00
Julian Sommer 0362bc9baa fix: only subscribe to elbv2 operations if gateway url configured 2026-05-22 15:16:16 +10:00
Julian Sommer 0f7ff5e574 fix: bootstrap IGW for new tenants on iam.account.created 2026-05-22 14:05:57 +10:00
Julian Sommer edeb53b9b8 fix: fail RunInstances when AttachEni fails 2026-05-22 13:57:25 +10:00
Julian Sommer 0aa714c2bf feat: neutralise potentially-committed NAT rule on rollback (#249) 2026-05-22 13:48:14 +10:00
Julian Sommer b3d8a7d262 fix: trim sleep times 2026-05-22 11:34:20 +10:00
Julian Sommer d323facf65 fix: pseudo multi node, old behaviour asserted wrong 2026-05-22 11:26:54 +10:00
Julian Sommer 54cd1d789c fix(vm): poll for nbd + qmp readiness instead of fixed sleeps (#248) 2026-05-22 11:17:41 +10:00
Julian Sommer d0c6ad9f69 fix: map Manager.Start not-found to InvalidInstanceID.NotFound 2026-05-22 10:45:10 +10:00
Julian Sommer 25b29fadec fix: test race 2026-05-22 10:34:45 +10:00
Julian Sommer 2b6c61b95c fix: StopAll persists state 2026-05-22 10:21:31 +10:00
Julian Sommer bc5dc6f63d fix: allocate TOCTOU race 2026-05-22 09:31:26 +10:00
joshsiv-mulga 38202206bc fix(e2e/single): TestClusterStatsCLI back to sequential pre-launch
TestClusterStatsCLI asserts baseline cluster state ("0/" CPU used, "No VMs found") which doesn't hold once the singleton VM is up. Moving it into bucket #1 parallel (siv-128) ran it AFTER all sequential VM launches, so the spx top nodes output reported 4/12 CPU + 1 VM and the assertion failed.

Move it back into the sequential block, ahead of TestInstanceLaunch, so the baseline assertion sees the cluster pre-launch.
2026-05-21 23:14:30 +10:00
Josh Siviour 40f8c4da94 refactor(e2e/single): drop phase numbers + parallel bucket #1 (#247)
- Rename 36 phaseN_X / phaseIAM_N funcs to runX.
- Drop numeric suffix from 7 TestIAMN_X wrappers (TestIAM1_UserCRUD -> TestIAMUserCRUD).
- Rewrite harness.Phase log strings "Phase N - X" -> "Single - X" to mirror multinode convention.
- Add t.Parallel() to bucket #1: 10 read-only / own-everything top-level Tests (Environment, ClusterStatsCLI, Discovery, SerialConsoleAccess, KeyPairs, Image, TagManagement, AccountScoping, VPCSubnetE2E, RouteTableValidation). Sequential bucket retains source-order singleton lifecycle (InstanceLaunch through FinalClusterStats).
2026-05-21 22:47:26 +10:00
Josh Siviour c89a24ab0c refactor(gateway): consolidate SigV4 verification via predastore/auth (#246)
* refactor: switch to aws sdk for sigv4 via predastore/auth

* refactor: properly verify against gateway region

* fix(gateway): revert gw.Region binding, surface SigMismatchError details

The gw.Region pin from 65c8444b causes every signed EC2/IAM/etc. request
to fail verification in CI: "auth: signature mismatch" on every health
probe, daemon never reports ready. Restoring sig.Region (pre-refactor
behaviour) unblocks the path while we identify whether nodeConfig.Region
diverges from the AWS CLI profile region, or whether the SDK signer's
canonical-request building differs from the client's.

Add SigMismatchError unwrap to the auth-failure log so operators see the
expected vs provided Authorization headers and can pinpoint the
divergence (credential scope, signed headers, signature) instead of just
the generic mismatch sentinel.

The supportedServices pre-Verify allowlist check stays — it's a
structural gate that doesn't depend on cross-config consistency.

* fix(gateway): re-enable gw.Region binding in SigV4 Verify

With predastore ab6ec8b stripping transport-added headers before
re-signing, the SigV4 verification path is no longer over-sensitive
to wire-vs-signed header divergence. The earlier "auth: signature
mismatch" CI failure was solely from Accept-Encoding/Content-Length
inflation of SignedHeaders — not from a region mismatch — so gw.Region
can be reinstated safely.

The diagnostic SigMismatchError unwrap stays as a permanent
operability improvement; future auth failures will still surface
expected vs provided Authorization headers in the warn log.

* fix: change predastore node ips to 127.0.0.1 (#244)

---------

Co-authored-by: brynmailer-mdc <bdm@mulgadc.com>
Co-authored-by: Julian Sommer <115516918+juliansommer@users.noreply.github.com>
2026-05-21 22:41:24 +10:00
Josh Siviour 92fa467c90 refactor(e2e/multinode): flatten spread + parallel bucket + drop phase numbers (#245)
* refactor(e2e/multinode): flatten phase 11 + parallelize bucket #1 + drop phase numbers

Split monolithic phase11_PlacementAndNATGateway (~430 lines, 8 inline
sub-steps) into 6 top-level Tests, each owning its own VPC graph via
t.Cleanup and layered setup helpers (spreadSetupVPC, spreadSetupBastion,
spreadSetupPrivateTrio, spreadSetupNATGW). The cleanup-ordering test
flips *bool latches as each explicit teardown step succeeds so the
LIFO unwind is a no-op on the success path.

Add t.Parallel() to read-only / independent Tests: ClusterHealth,
InstanceDistribution, GuestSSH, VPCNetworking. Deviates from the
mulga-siv-127 bead's bucket-#1 listing by keeping CrossNodeGateway
sequential (asserts a snapshot equality across gateways that the
parallel VPC test would break by churning instance count mid-assert)
and CrossNodeOps sequential (stops/starts trio[0], would race
GuestSSH). Both deviations documented in tests_test.go + plan doc.

Drop the bash phase numbering (phaseN_X funcs + "Phase N" log strings)
from the rest of the suite — 10 funcs renamed to runX. Phase numbers
were a port-time crutch; the Test names now describe each scenario and
phase numbers ageing into noise as bash is retired in Stage H.

* refactor(e2e/multinode): collapse spread Tests + control execution order

Two changes wedged together since they touch the same files:

1. Collapse the 6 top-level TestMultinodeSpread* Tests into a single
   TestMultinodeSpread with 6 t.Run sub-tests sharing one VPC + bastion +
   private trio + NAT GW setup chain. The 6-test split paid setup cost
   6× — bastion launch + private trio launch + NAT GW provision per Test
   pushed phase-11 wall-clock near 60min vs ~15min monolithic. Shared-
   setup layout keeps JUnit granularity (one row per sub-test) while
   restoring the monolithic budget. Setup helpers register t.Cleanup
   against the outer test so teardown runs once at the end (LIFO:
   NAT GW → trio → bastion → VPC).

2. Move the TestMultinodeSpread wrapper into tests_test.go so file-source
   order controls execution position. Previously the func lived in
   placement_nat_test.go which sorts before preflight_test.go and
   tests_test.go alphabetically — Spread ran FIRST in the sequential
   bucket, defeating Preflight's fail-fast on a sick cluster. Wrapper now
   runs after NodeRecovery so the cluster has been fully degrade-tested
   before Spread's 4-VM + NAT GW + custom-VPC graph spins up.
2026-05-21 20:53:59 +10:00
Josh Siviour bedc35344f feat(e2e/multinode) (#242)
* feat(e2e/harness): multinode cluster wait helpers + AWSClientForGateway (Stage A)

Stage A of mulga-siv-90. Compile-only; no tests wired yet.

multinode_cluster.go:
- Cluster.WaitNATSPeers polls /routez per node, dedupes by remote_id.
  want=2 on healthy 3-node, =1 after a node-down event.
- Cluster.WaitPredastoreHealthy / WaitGatewayHealthy probe HTTPS per node
  via insecureHTTPClient (multinode certs are self-signed across peers).
- Cluster.WaitDaemonReady runs DescribeInstanceTypes through every
  node's gateway, not just env.ServiceIPs[0] — catches a daemon that's
  only registered on one node.

multinode_aws_via.go:
- AWSClientForGateway clones *Env, swaps ServiceIPs to a single node's
  Addr, returns a fresh AWSClient. Lets phases 6/7 issue describe/
  stop/start across every node in turn (bash aws_via equivalent).

Init/Join helpers deferred to the pseudo-multinode bead (mulga-siv-91)
where they belong — real-multinode bootstrap is owned by tofu +
bootstrap-install.sh before the Go suite starts.

* feat(e2e/multinode): TestMultinodePreflight + TestMultinodeClusterHealth (Stage B)

Stage B of mulga-siv-90. First runnable Test* against a 3-node cluster.

multinode/main_test.go:
- Package-scoped singleton fixture, mirrors single/main_test.go.
- requireMultiNodeFixture skips when SPINIFEX_E2E unset or mode != multinode.
- Fixture = {Env, AWS, Harness, Cluster, Artifacts, TmpDir} — adds Cluster
  to the single-node shape via harness.ClusterFromEnv (reads SPINIFEX_NODES
  + SPINIFEX_SSH_USER/KEY).
- TestMain drains harness.Fixture.Close + removes TmpDir at process exit.

multinode/helpers_test.go:
- needAZ / needInstanceTypeArch / needAMI shims (memoized via harness).
- readyNodeCount substring counter — matches bash `grep -c "Ready"`.

multinode/tests_test.go:
- Top-level Test* wrappers (TestMultinodePreflight, TestMultinodeClusterHealth).

multinode/preflight_test.go (phase 1):
- /dev/kvm writable check (no /dev/kvm = test environment is wrong, fail fast).
- peer_ssh hostname on every remote node. Skips node[0] to match bash —
  the runner's loopback SSHd is not part of the contract.

multinode/cluster_health_test.go (phase 2):
- Cluster.WaitNATSPeers >= 2 per node.
- Cluster.WaitPredastoreHealthy / WaitGatewayHealthy across nodes.
- Cluster.WaitDaemonReady (DescribeInstanceTypes per gateway).
- spx get nodes shows N Ready, where N = cluster size.
- spx get vms returns (length only — content may be empty).

* feat(e2e/multinode): TestMultinodeInstanceDistribution + GuestSSH (Stage C)

Stage C of mulga-siv-90. Phase 3 (distribution) + phase 4 (guest SSH).

harness/multinode_distribution.go:
- InstanceHostingNode: SSH each peer, ps grep qemu-system | <id>.
  Reuses NewPeerSSH; returns nil on no match (caller decides fatality).
- CountInstancesPerNode + AssertSpreadAcrossNodes: fan-out + minNodes
  gate. Bash phase 3 warns-on-stacking; Go matches by accepting
  minNodes=1 + caller-side log.

harness/multinode_guest_ssh.go:
- GuestSSHPort polls hosting node's qemu cmdline for hostfwd=tcp:...
  reusing the existing hostfwdRE from ec2helpers.go (single regex, two
  capture groups: host + port).
- GuestSSHEndpoint prefers PublicIpAddress, falls back to hosting-node
  + hostfwd. Mirrors the phase 4 conditional.
- GuestSSHReady polls `echo ready` via SSH with bash-equivalent -o flags.

multinode/helpers_test.go:
- needKeyPair (EnsureKeyPair shim).
- needInstanceTrio: pkg-level sync.Once launches 3 nano instances on
  default VPC, registers terminate-on-process-exit. Phase 4+ reuse the
  same trio without re-launch.

multinode/distribution_test.go (phase 3):
- launch trio + assert >= 1 node hosting (log warn on stacking).
- spx get vms contains every trio ID.

multinode/guest_ssh_test.go (phase 4):
- For each trio instance: resolve endpoint, poll SSH ready, assert id
  reports ec2-user, log lsblk line count.

multinode/tests_test.go: TestMultinodeInstanceDistribution + TestMultinodeGuestSSH.

* feat(e2e/multinode): TestMultinode{Volume,CrossNodeGateway,CrossNodeOps} (Stage D)

Stage D of mulga-siv-90. Phases 5/6/7 — pure AWS API exercise (no
node-state churn).

volume_test.go (phase 5):
- Create 10GiB volume in discovered AZ, attach to trio[0] at /dev/sdf,
  detach, delete. Inline lifecycle — DeleteVolume in-test would race a
  registered Ensure* cleanup, surface as InvalidVolume.NotFound.

gateway_test.go (phase 6):
- Baseline DescribeInstances via the local gateway, then fan out
  AWSClientForGateway per non-local node. Require.Equal across all —
  cross-node fan-out regression surfaces immediately.

crossnode_ops_test.go (phase 7):
- Find trio[0]'s hosting node, stop via a different gateway, start via
  a third (or same other on 2-node fallback). Returns to running so
  later Test*s (phase 4 SSH, etc.) don't cascade-fail. otherTwoGateways
  mirrors the bash fallback chain.

* feat(e2e/multinode): TestMultinodeNode{Failure,Recovery} (Stage E)

Stage E of mulga-siv-90. Phase 8 (failure) + phase 9 (recovery) +
diagnostic primitives.

harness/multinode_node_lifecycle.go:
- StopNode SSHes `sudo systemctl stop spinifex.target`. Non-fatal on
  exit error (bash matches — cluster shutdown races the SSH conn).
- StartNode mirrors with sudo systemctl start.
- WaitNodeServiceReady polls a single node's HTTPS gateway. Distinct
  from cluster-wide WaitGatewayHealthy so a recovering node can be
  tracked without re-checking peers.

harness/multinode_diag.go:
- DumpAllNodeLogs fans out journalctl -u 'spinifex-*' per node into
  artifactsDir/journal-<node>.log. Tolerates per-node SSH failure.
- SpxGetNodesAcrossCluster strips trailing whitespace off SpxGetNodes.

multinode/node_failure_test.go (phase 8):
- Stop node2, register t.Cleanup restart safety net.
- WaitNATSPeers want=1 (degraded), DescribeInstanceTypes via node1+node3,
  DescribeInstances still returns the trio.

multinode/node_recovery_test.go (phase 9):
- StartNode node2 (idempotent — phase 9 in isolation still works).
- WaitNATSPeers want=2, WaitNodeServiceReady, spx get nodes 3 Ready,
  DescribeInstanceTypes via the recovered gateway.

* feat(e2e/multinode): TestMultinodeVPCNetworking (Stage F)

Ports phase 10 from run-multinode-e2e.sh. Stands up a fresh non-default
VPC + subnet (10.200.0.0/16 + 10.200.1.0/24), launches 3 instances into
the subnet, then asserts:

  - PrivateIpAddress is non-empty and matches 10.200.1.0/24
  - All 3 IPs are unique
  - SubnetId / VpcId on the instance match the freshly-created ids
  - IPs persist across stop -> start cycles

Independent of the package-level trio (which uses the default VPC) —
this phase needs full control over subnet allocation so resources are
created and cleaned up inline via t.Cleanup (LIFO: instances ->
subnet -> VPC).

* feat(e2e/multinode): TestMultinodePlacementAndNAT (Stage G)

Ports phase 11 from run-multinode-e2e.sh — the largest single phase
(~340 bash lines covering spread placement + NAT Gateway egress). Eight
sub-steps preserved with matching harness.Step markers so the Go run
cross-references cleanly with the bash log:

  Step 1: VPC + pub/priv subnets + IGW + main RT route + 2 SGs
          (bastion: tcp/22 anywhere; private: tcp/22 from bastion-sg,
           icmp from VPC)
  Step 2: bastion launch, wait SSH, scp key
  Step 3: spread placement group + 3 private instances via the group
  Step 4: validate spread (>=2 unique hosting nodes; >=3 = full PASS)
  Step 5: pre-NAT baseline — confirm NO internet from private VMs
  Step 6: allocate EIP + create NAT GW + private RT + 0.0.0.0/0 -> NGW
  Step 7: post-NAT — every private VM reaches 8.8.8.8 via NAT GW
  Step 8: inline teardown of NAT GW + private RT + EIP

Each resource is owned by the test (no Ensure* memoization) so a failure
mid-flight tears the full VPC graph down via t.Cleanup in LIFO order,
matching the bash teardown sequence. NAT GW state polling is duplicated
locally (waitForNATGatewayStateFatal/Best); the equivalents in
single/natgw_test.go are unexported. Promote to harness/poll.go once a
third consumer lands.

* ci(e2e-go): add multi-node Go E2E job + cert/lb on 3-node cluster (Stage H)

Adds e2e_go_multinode as a parallel job alongside e2e_go_single on the
e2e-go workflow. The single-node job is untouched apart from extending
its SUITES filter to drop the multinode suite (which only runs on the
ci-multi cluster).

What the new job does:

  - Provisions a 3-node tofu cluster via the same build-install-artifacts
    + bootstrap-install path as e2e_real_multi (bash).
  - Builds multinode.test / cert.test / lb.test on the runner, ships
    them to node1.
  - Runs each suite with SPINIFEX_MODE=multinode and the cluster csv
    in SPINIFEX_NODES / SPINIFEX_NODE_IPS. cert / lb branch internally
    on env.Mode so the same binaries cover both single + multi.
  - Pulls per-node journals (spinifex-journal-node1..N.log) for the
    e2e-analyze action so a node2/3 failure isn't blind.
  - Same JUnit + analyze + artifact-upload + status pipeline as the
    single-node job.

Other moves:

  - Default SUITES now includes e2e-multinode so push triggers fan
    out across single + multi automatically. e2e_go_reboot stays
    explicit-opt-in (unchanged).
  - tests/e2e/Makefile: e2e-multinode now sets MODE=multinode so
    `make e2e-multinode` doesn't fall back to single (which would
    skip every TestMultinode* on the SPINIFEX_MODE check).
  - tests/e2e/TEST_COVERAGE.md: cross-reference the Go port at the
    head of the Real Multi-Node section. The bash driver stays in
    place as executable spec until the Go run is soak-tested.
  - e2e_go_status now needs e2e_go_multinode; multi=skipped counts
    as success so a single-only dispatch still posts green.

* fix(e2e/multinode): NATS routez via peer_ssh + StartNode timeout + spx best-effort

CI run 26161792146 surfaced three regressions in the freshly-landed
multinode suite:

  1. WaitNATSPeers dialled node.Addr:8222 directly. NATS monitor binds
     127.0.0.1:8222 only (cmd/spinifex/cmd/templates/nats.conf:65), so
     every routez poll returned "connection refused". Switched to
     peer_ssh + curl http://127.0.0.1:8222/routez per node — matches
     the bash run-multinode-e2e.sh phase 2 pattern.

  2. StartNode / StopNode capped ssh at a 30s context. spinifex.target
     has 6+ dependent units (predastore, NATS, awsgw, vpcd, daemon, ui)
     and a clean systemctl start runs 60-90s; the 30s budget was
     killing ssh mid-command ("signal: killed"). Bump StartNode to 5min
     and StopNode to 3min.

  3. SpxGetVMs is best-effort in bash (`spx get vms --timeout 5s
     2>/dev/null` with no exit-code check) because the CLI's NATS dial
     can race the cluster join shortly after bootstrap. The Go port
     fatal'd on non-zero exit and broke TestMultinodeClusterHealth +
     TestMultinodeInstanceDistribution downstream. Added
     harness.SpxRunBestEffort and rewired both call sites.

* fix(e2e/multinode): spx CLI lenience + trio capacity retry + diag

Run 26163994815 cascaded from two issues that bash silently tolerated.
The Go port hard-failed where bash counts the failure and continues, so
3+ tests cascaded off transient first-failures.

- spx get nodes: cluster_health + node_recovery now downgrade <Ready
  count to WARN with SpxRunBestEffort, matching bash phase 2
  fail_test counter and phase 9 `|| echo ""`. Gateway+daemon health
  checks above already prove end-to-end NATS routing.
- needInstanceTrio: retry RunInstances up to 6× on
  InsufficientInstanceCapacity (10s backoff). Daemon resourceMgr can
  briefly report 0 capacity right after node bootstrap before its
  first inventory scan completes — AWS itself surfaces this
  transiently. Stagger 2s between launches to match bash phase 3.
- CI workflow: new "Pre-flight diagnostics on node1" step dumps
  groups/perms/spx output/systemctl status/journal tail to
  preflight-diag.log so next run's artifacts surface what tf-user
  sees before the test binary starts.

* fix(e2e): strip SPINIFEX_* from spx child env

Root cause of `spx get nodes` returning "nats: no servers available for
connection" in the multinode Go suite (mulga-siv-90 runs 26163994815,
26195522455): spx CLI calls viper.AutomaticEnv() with prefix "SPINIFEX"
inside config.LoadConfig. The CI workflow exports SPINIFEX_NODES (csv
of cluster WAN IPs) so harness.ClusterFromEnv can build the *Cluster.
viper picks SPINIFEX_NODES up as the `nodes` config key and silently
clobbers the loaded `[nodes.*]` map → nodeConfig.NATS.Host = "" →
nats.Connect("") → ErrNoServers.

Bash never set SPINIFEX_NODES so the bash port was unaffected. Direct
ssh `spx get nodes` from the runner also worked because the env was
clean. Only the test-binary-spawned spx hit the collision.

Fix: SpxRun / SpxRunBestEffort build a sanitized child env that
preserves the small SPINIFEX_* set spx's root command explicitly
BindEnvs (config path, AWS keys, host, base-dir, NATS dial overrides)
and drops everything else.

* fix(vpcd): make handleAddNAT idempotent (mulga-siv-124)

PR #232 (commit 5887927) added a second vpc.add-nat publish in
daemon/vm_adapters.go:onInstanceUpHook to cover instance recovery.
The publish fires on every instance up event including fresh launches,
racing the original publish from handlers/ec2/instance/service_impl.go.

Both publishes are queue-grouped to "vpcd-workers" so two cluster vpcd
instances handle them ~13s apart. handleAddNAT's existing
DeleteAllNATsByExternalIP -> AddNAT sequence is not idempotent under
concurrent writers: the second invocation deletes the rule the first
installed (after ovn-northd compiled SB flows and chassis installed
them), creating a flow-install gap during which the EIP is unreachable.

Symptom: TestMultinodePlacementAndNAT fails with ssh: Connection timed
out to the bastion EIP for 150s (mulga-siv-90 CI runs 26195522455,
26197248656). Bash port last green on e2e-baremetal run 26008057481
before #232 merged.

Fix: before delete+add, look up the existing rule via
FindNATByExternalIP. If it exists and its LogicalIP + spinifex:vpc_id
ExternalID (plus ExternalMAC + LogicalPort under distributed-NAT mode)
already match the target, no-op. Falls through to the existing
delete-then-add for the IP-reuse-across-VPCs case the original code
already handled.

Adds TestTopologyHandler_AddNAT_Idempotent covering the UUID-witness +
flow-barrier counter (two adds with identical state must not recreate
the row or re-arm the barrier).

* test(e2e/multinode): bump bastion SSH wait + ICMP probe

Run 26198221557 confirmed the vpcd dnat_and_snat race (mulga-siv-124)
was fixed — no "cleaned up stale NAT" lines for the bastion EIP, only
one writer + an idempotent skip. But TestMultinodePlacementAndNAT
still timed out at exactly 150s on SSH to the bastion's public IP,
suggesting a separate OVN flow-install lag on the freshly-created
VPC's external switch.

- Bump waitForBastionSSH budget 150s -> 5min. Default-VPC GuestSSH
  reaches sshd in ~70s; a brand-new VPC needs longer for ovn-northd
  to compile SB + every chassis to install the external ARP
  responder + dnat_and_snat flow. 5min covers cloud-init + OVN warm.
- Add an ICMP probe per iteration. Pure diagnostic — ping failure
  does not fail the step, but the next iteration's SSH error
  carries ping_output so the log splits "datapath down" (ping fail)
  from "sshd not up" (ping ok, ssh refused/timeout). Matches the
  RCA agent's fix candidate 3.

* test(e2e/multinode): dump cluster datapath state on phase 11 failure

waitForBastionSSH currently fails opaquely when the EIP datapath is
broken — the log shows "ping=fail" but doesn't pin which node owns the
gw chassis or whether ARP / OVN NAT rules / chassis encap IPs are sane.

Register a t.Cleanup hook (after bastionPubIP is known) that fans out
arp / ip route / ovs-vsctl / ovn-sbctl / ovn-nbctl probes to every
cluster node and writes results to <Artifacts>/diag-<node>-<probe>.log
on failure only. Plus a local-side ping / traceroute / ip route block
so a future post-mortem can distinguish runner-network breakage from
cluster datapath breakage.

Best-effort: per-node SSH errors log but never re-fail the test.

* test(e2e/multinode): use IpPermissions form for SG authorize calls

Two AuthorizeSecurityGroupIngress calls in phase 11 used the legacy flat
form (top-level IpProtocol/FromPort/ToPort/CidrIp) instead of the
IpPermissions array. The Spinifex VPC handler at
spinifex/handlers/ec2/vpc/security_group.go:667 reads only
input.IpPermissions and silently drops the flat fields — newRules=0,
no error returned.

Run 26200626265 journal:
  groupId=sg-922de57bc74b85c9c (natgw-bastion) newRules=0
  groupId=sg-758b05b4a5e7161fd (natgw-private) newRules=1

Bastion SG had zero ingress rules; TCP SYN to bastion :22 was dropped
by ACL, causing waitForBastionSSH to time out after 5min.

Bash version passes because AWS CLI v2 normalizes --protocol/--port/--cidr
shorthand into IpPermissions.N.* on the wire.

Fix: re-shape both calls (bastion tcp/22, private icmp) to use
IpPermissions, matching the third authorize call in the same function
(line 163-175) that already works.

Server-side fix to honor flat form follows in a separate bead.
2026-05-21 15:40:00 +10:00
Julian Sommer 6d650f6c3a fix: actually fix predastore integration test 2026-05-21 15:13:14 +10:00
Julian Sommer f374ab41c5 fix: predastore integration test 2026-05-21 14:28:27 +10:00
Julian Sommer 0ff911fdbc fix: change predastore node ips to 127.0.0.1 (#244) 2026-05-21 13:46:02 +10:00
Julian Sommer a33b91553d feat: TLS 1.3 minimum + PQ encryption (#243) 2026-05-21 11:52:41 +10:00
Josh Siviour 050ac8f861 feat(e2e): Go E2E harness + single-node migration to Ensure*/Discover* + reboot suite (#241)
* feat(e2e): add Go test harness + cert scenario, port run-cert-e2e.sh

Lands step 1 of docs/development/improvements/e2e-go-harness.md:
shared harness primitives (env, wait, artifacts, cert, tls) plus the
TestCertIssuance scenario that supersedes run-cert-e2e.sh. All files
gated by //go:build e2e so default builds and `make preflight` are
unaffected. Bash script stays in place for one CI cycle before deletion.

* feat(e2e): port run-lb-e2e.sh to TestLoadBalancer Go scenario

Step 3 of docs/development/improvements/e2e-go-harness.md. Replaces 1246
lines of bash with a typed Go scenario exercising all 4 LB variants
(ALB/NLB × internet-facing/internal) against a shared VPC + app instance
pool. Internet-facing phase auto-skips when no peer node is configured;
internal phase always runs.

Adds shared harness primitives:
- harness/aws.go: AWS SDK client factory wired to Spinifex AWS gateway
- harness/lb.go: WaitForLBActive, WaitForTargetsHealthy, WaitForENICleanup,
  WaitForInstanceRunning/Terminated, InstanceENI
- harness/traffic.go: HTTPRoundRobin, TCPRoundRobin, distribution asserts
- harness/ssh.go: minimal peer SSH wrapper shelling out to /usr/bin/ssh
  (replaced by typed x/crypto/ssh client hoisted from DDIL in mulga-siv-74)

User-data scripts embedded via //go:embed under lb/testdata/.

Bash script stays in place for one CI cycle before deletion.

* fix(e2e): log client launch params + dump daemon log on InvalidInstanceType

Adds diagnostics for the LB internal client launch path. Logs the exact
InstanceType, AMI, subnet, key name, and user-data size right before
RunInstances, and registers a daemon-log dump on failure so we can
correlate the 400 InvalidInstanceType with what spinifex saw.

* refactor(e2e): serialise LB suites + share probe client across internal tests

Splits TestLoadBalancer into 4 sequential subtests (ALB/NLB ×
internet-facing/internal). Each suite creates its own TG + LB + listener,
runs its traffic test, and tears down before the next starts. Replaces
the per-suite throwaway client VM with a single long-lived probe server
launched at fixture setup; per-suite internal traffic tests GET
/probe?ip=...&proto=... against it instead of cold-booting a fresh client.

Drops peak instance count from 5 to 4 (2 app + 1 LB + 1 client), so the
internal phase passes on capacity-constrained dev nodes that previously
hit InvalidInstanceType (see mulga-siv-76, mulga-siv-77 for the underlying
spinifex bugs).

* feat(daemon): make hostReserve env-configurable for dev capacity squeeze

Adds SPINIFEX_RESERVED_VCPU and SPINIFEX_RESERVED_MEM_GB env-var overrides
read at daemon startup. Invalid values are logged and ignored so a typo
doesn't silently widen the reserve. Unblocks the LB E2E on capacity-tight
dev hosts (8 vCPU box: default 2-vCPU reserve + 3x t3.nano test load
leaves 0 free for the sys.micro LB VM). Lays groundwork for the planned
operator-tunable [capacity] config.

bead: mulga-siv-78

* fix(e2e): revert LB to per-suite client + fail-fast on terminal LB state

Reverts the shared probe-server VM that wouldn't come up reliably during
the InternalFacing suites — back to the proven bash pattern of launching
a fresh client VM per suite (one of ALB_IP / NLB_IP populated based on
the suite kind). Adds renderClientUserData + a conditional template so
each client probes only its target LB.

WaitForLBActive now bails immediately on terminal LB states (failed,
provisioning_failed) and emits a "still waiting" log line every 30s so
hangs are visible instead of silently burning the full 5-minute timeout.

* ci(e2e): add e2e-go.yml workflow + GOTESTSUM Makefile opt-in

Standalone workflow runs the new Go-based E2E harness on the existing
ci-single self-hosted runner — provisions a tofu VM, bootstraps spinifex,
installs gotestsum, runs each requested suite via the e2e Makefile, and
uploads per-test artifacts + JUnit XML + JSON streams as a build artifact.
Test summary parses the JUnit and emits ::error file=...:: annotations so
failures surface in the PR diff.

Gated to the feat/e2e-go-harness branch + workflow_dispatch so it doesn't
interfere with the existing e2e.yml while the Go conversion lands.

tests/e2e/Makefile gains a GOTESTSUM=1 opt-in: when set, the e2e target
runs gotestsum with --junitfile and --jsonfile rooted in ARTIFACT_DIR
under a suite-tagged filename derived from the first PKG component.

* feat(e2e): share probe client across both internal LB suites + SG fixes

- Replaces per-suite probe client with a single shared VM launched in the
  fixture. Saves ~60s by avoiding a cold boot between the ALB and NLB
  internal suites.
- Client cloud-init exposes a JSON trigger endpoint on :9090 in addition
  to the http.server on :80 (results dir). Each suite POSTs
  {proto, ip, count, outfile, http_port, tcp_port} to run a probe loop
  against the LB private IP and writes the result file under /tmp/httpd
  for the driver to fetch back.
- configureDefaultSG now uses the structured IpPermissions form (top-level
  shortcut is silently ignored by vpcd — tracked separately) and opens
  port 9090 in addition to 80 + 9000.
- deleteLB captures the underlying sys.micro VM id via the LB ENI before
  delete, then polls DescribeLoadBalancers until LoadBalancerNotFound so
  the next suite doesn't race the capacity reclaim.
- Internal_NLB sleeps 15s up front to let the ALB sys.micro deallocate
  fully before its own createLB fires. DescribeLoadBalancers can report
  the ALB gone before the vCPU/memory allocation is actually released on
  capacity-tight dev hosts; without this settle, NLB's createLB trips the
  sys.micro reserve and lands in terminal state=failed. Still cheaper
  than cold-booting a per-suite client.

* ci(e2e): install Go on tofu VM before running Go E2E suites

The tofu-provisioned VM ships with the spx binary and bash test scripts
but no go toolchain, so the prior workflow's "Install gotestsum on VM"
step failed with `bash: line 2: go: command not found`. Add a curl-based
Go 1.26.3 install (matching go.mod) ahead of the gotestsum install and
update the test step's PATH so make e2e-* runs the freshly-installed
go binary.

* ci(e2e): bump gotestsum to @latest for Go 1.26 compatibility

gotestsum v1.12.0 pins golang.org/x/tools v0.19.0 which fails to compile
under Go 1.26 with:
  invalid array length -delta * delta (constant -256 of type int64)
Switching to @latest pulls a newer x/tools that builds clean.

* ci(e2e): ship spinifex source to VM so make -C tests/e2e can run there

Single-node tofu VM only has the spx binary + bash test bundle at
~/e2e-tests; the Go e2e workflow was running 'make -C tests/e2e e2e-cert'
from $HOME/Development/mulga/spinifex which doesn't exist, producing:
  make: *** No rule to make target 'e2e-cert'.  Stop.

Add a checkout of the spinifex repo on the runner and rsync it (minus
.git, build/, bin/, node_modules) to the VM as
~/Development/mulga/spinifex before installing Go + gotestsum.

Interim solution; mulga-siv-80 tracks replacing the rsync with shipping
pre-built test binaries from the runner.

* ci(e2e-go): replace rsync with tar-over-ssh; VM lacks rsync

bootstrap-install.sh ships a minimal binary VM with no rsync; the
ship-source and collect-artifacts steps failed with
'rsync: command not found'. Stream a tarball over ssh instead — same
exclude list, no extra dependency on the VM.

* fix(e2e): discover single-node IPs + awsgw bind in LoadEnv

run-cert-e2e.sh single mode probes awsgw.host from spinifex.toml and
adds every non-loopback global IPv4 to the node list. The Go harness
defaulted to 127.0.0.1 only, so CI on a tofu VM (awsgw bound to the
LAN IP, not loopback) saw 'connection refused' on every TLS check.

Port the same discovery: ModeSingle now walks net.InterfaceAddrs for
NodeIPs and grep-parses spinifex.toml for the awsgw bind. Both stay
overridable via SPINIFEX_NODE_IPS / SPINIFEX_SERVICE_IPS.

* ci(e2e-go): pre-build test binaries on runner; drop go toolchain from VM

Replaces the source-tree + go + gotestsum payload that the e2e-go.yml
workflow previously shipped to the tofu CI VM with self-contained
test binaries built on the runner via `go test -c`. testdata for the
LB suite is already //go:embed'd into the binaries, so the bundle on
the VM is just `<suite>.test` files (cert: 14M, lb: 17M uncompressed).

Workflow changes
- actions/setup-go on runner.
- New step builds binaries via `make e2e-build SUITES_BUILD=...`.
- Install go-junit-report on runner; convert each VM-side test log to
  junit-<suite>.xml after artifact pull so "Publish test summary" still
  parses JUnit XML.
- Drop "Install Go + gotestsum on VM" entirely (saves ~60s + network).
- Drop source-shipping rsync/tar (saves ~30s + a lot of bandwidth).
- VM step runs `./<suite>.test -test.v -test.timeout=30m` directly.

Makefile changes
- New `e2e-build` target compiles each `SUITES_BUILD` entry into
  `BIN_DIR/<suite>.test` via `go test -c -tags=e2e`. `clean` also
  removes BIN_DIR.

Closes mulga-siv-80.

* ci(e2e-go): disable setup-go cache; upload dominates self-hosted run time

* refactor(e2e): hoist generic DDIL harness primitives to shared tests/e2e/harness

Step 1.5 of docs/development/improvements/e2e-go-harness.md. Promotes
Cluster/Node/SSH/DaemonClient/LocalStateRevision/ResetAllNodes/Witness
into the shared package so the LB, multinode, and BM scenarios in
steps 4-5 can build on the same primitives instead of duplicating SSH
+ cluster plumbing.

Moves
- ddil/harness/{cluster,ssh,daemon_client,state,reset,witness}.go
  -> harness/ (plus the witness testdata embed dir).
- ddil/harness/{fault,netem,profiles,snapshot}.go -> ddil/fault/ as a
  new package; fault.PartitionNode/HealNode/KillNATS/StartNATS/
  RestartDaemonOnly/ApplyNetem/ClearNetem/LinkProfile*/TakeSnapshot
  now take harness.Cluster / harness.Node / harness.SSH explicitly.
- ddil/harness/retry.go::Run retry-with-reset extracted as
  harness.RetryWithReset in harness/wait.go; ddil/harness/quarantine.go
  keeps the DDIL-only quarantine wrapper that calls into it.
- WaitForMode moved from fault.go to harness/daemon_client.go since
  it polls daemon state and has no fault-injection concern.
- The pre-hoist harness/ssh.go (PeerSSH, subprocess ssh) is preserved
  as harness/peer_ssh.go so the lb_test suite keeps working unchanged;
  the typed x/crypto/ssh client from DDIL now owns harness/ssh.go.
- New harness/util.go exports ShellQuote (was unexported shellQuote in
  netem.go) so both ddil/fault and reset.go/witness.go can use it.

Env var rename
- SPINIFEX_NODES / SPINIFEX_SSH_USER / SPINIFEX_SSH_KEY replace
  DDIL_NODES / DDIL_SSH_USER / DDIL_SSH_KEY. Old names still honoured
  with a stderr deprecation note (envWithLegacy) so the DDIL CI keeps
  passing until .github/workflows/e2e-ddil.yml drops the old names.
  DDIL_QUARANTINED stays DDIL-specific.

DDIL parity preserved — scenarios still call ddilh.Run for quarantine
semantics; the underlying retry-with-reset is the same code path,
just shared.

Closes mulga-siv-74.

* fix(e2e): open default SG :22 ingress via structured form before witness launch

The daemon currently drops the top-level shortcut AuthorizeSecurityGroupIngress
form silently (mulga-siv-79), so the default SG starts with no inbound :22 and
the witness EIP awaitBaseline tunnel times out under DDIL CI. Mirror the
workaround already present in lb_test by issuing the structured IpPermissions
form before LaunchWitnessVM. Idempotent on InvalidPermission.Duplicate so reruns
in the same cluster are safe.

* ci: render JUnit into job summary + collapsible groups in noisy steps

Add a reusable composite action (.github/actions/junit-report) that parses
a glob of JUnit XML files, writes a totals table + collapsible per-failure
details into $GITHUB_STEP_SUMMARY, and emits one ::error annotation per
failed/errored test case so failures surface in the run header instead of
being buried in step logs.

Apply the action to both e2e-go.yml and e2e-ddil.yml (e2e-ddil gotestsum
now also emits --junitfile so the action has input).

Same workflows also wrap noisy phases (tofu apply/destroy, scrub-env,
tar-over-ssh, per-suite test runs, cluster-log collection) in
::group::/::endgroup:: markers so the Actions UI collapses the chatter
by default and the human can expand only the failing phase. Tofu output
still tees to $TOFU_LOG so the artifact bundle is unchanged.

Future workflows (multinode, baremetal) can adopt the same pattern via
the README in .github/actions/junit-report.

* test(ddil): quarantine Scenario C until predastore §2 lands

CI run 26016840819 surfaced that ScenarioC_CleanPartition silently
depends on predastore-ddil-hardening §2 (write-quorum with deferred
parity repair). Root cause from node3 daemon log:

  predastore: write udp ...->192.168.0.22:9991: sendmsg: operation not permitted
  predastore: putObjectViaQUIC: put failed
  spx QMP: BLOCK_IO_ERROR instanceId=<witness>
  spx: StopOrTerminateInstance: Terminating
  spx: Instance state transition running → shutting-down

The 'sendmsg: operation not permitted' is the EPERM Linux returns when
iptables drops an outbound packet — exactly the OUTPUT DROP rules
PartitionNode installs. The witness VM's block I/O is backed by
distributed predastore, so the same partition that severs node3↔peer
NATS traffic also severs the witness disk's cross-shard QUIC writes.
QEMU power-downs the guest after BLOCK_IO_ERROR, the daemon's
reconciler terminates the instance, and the next AssertProgressed dials
a sshd that's already gone (hence the 'handshake failed: EOF' the test
reports).

Quarantine by collapsing C to the same scenarioSkip stub D/E/F already
use, citing predastore-ddil-hardening §2 as the dependency. Flip C
back to ENABLED in the same PR that lands §2 — that's when the witness
disk can survive a peer partition without QEMU halting.

TEST_COVERAGE.md row C flipped ENABLED → SKIPPED; added a quarantine
note explaining the predastore dependency.

* ci: colored phase banners + quiet-on-success tofu output

Pretty up the live Actions log without flooding it. Three changes:

1. .github/scripts/ci-fmt.sh — sourceable bash helpers (banner, ok, bad,
   warn, note, quiet_run) using ANSI colors that the Actions UI renders.
2. e2e-go.yml + e2e-ddil.yml — tofu phases switch back to quiet redirect
   into $TOFU_LOG (the previous tee'd version regressed live noise vs
   the original silent redirect). Each phase now prints one colored
   ok/✗ line; on failure the tail of $TOFU_LOG dumps inside a single
   collapsed group, so the live log stays scannable but the failing tail
   is one click away.
3. junit-report render.py — compact summary: short status icons (✅/❌)
   in a single column, no separate err column, single-line failure list
   (truncated to 120 chars) instead of <details> blocks that wrap badly
   on narrow screens.

Per-suite test runs still wrap in ::group:: with an inline cyan banner
so pass output collapses and the suite name is obvious when expanded.

* test(e2e): add harness.Phase / Step / Detail for human-readable test output

Test fixtures were emitting flat walls of t.Logf with every line prefixed
by the same `lb_test.go:61:` (file:line of the call site that the
t.Helper() chain bubbles up to) and forced 6-space indent. Hard to skim,
hard to find where one phase ends and the next begins.

Add three helpers in tests/e2e/harness/log.go:

  Phase(t, fmt, ...)   — flush-left colored banner via fmt.Println.
                         Bypasses t.Logf so the line lands without the
                         testing framework's indent/file:line prefix.
                         Pure visual structure; the diagnostic detail
                         stays on t.Logf.
  Step(t, fmt, ...)    — single-line sub-phase marker via t.Logf.
                         Keeps file:line attribution so a triager can
                         find the source of a progress message.
  Detail(t, k, v, ...) — key=value resource IDs via t.Logf. Same
                         attribution rationale as Step — IDs are
                         diagnostic and want to land in JUnit XML
                         bucketed with the owning test.

Why the split: Phase is purely a banner; losing JUnit attribution costs
nothing because banners aren't diagnostic. Step/Detail carry triage
context (instance IDs, AMI, etc.) and a failing test's JUnit testcase
node should still contain them, so t.Logf attribution is kept.

ANSI colors are auto-disabled when stdout isn't a TTY and GITHUB_ACTIONS
isn't set, so piped local `go test -v` stays clean.

Apply to lb_test setupSharedFixture — five Phase banners replace the
implicit run of helper logs ("Discovering cluster capacity",
"Ensuring SSH key pair", "Creating shared VPC topology",
"Launching app instances", "Launching probe client") so the live CI log
reads as a story rather than a flat resource dump.

* ci(e2e-go): strip indent + file:line on display, propagate color env over SSH

Two display bugs spotted on the previous run:

1. Phase banners came out white instead of bold-cyan because the test
   binary runs over SSH on the tofu VM, where neither GITHUB_ACTIONS
   nor a TTY is present, so harness.log.go init() disables ANSI escapes.
   Fix: export GITHUB_ACTIONS=true and FORCE_COLOR=1 in the remote env
   so the helper keeps emitting color codes.

2. Every t.Logf line still rendered as
       lb_test.go:61: instance type: t3.nano
   (4-space indent + `<file>:<line>:` prefix) because t.Helper()
   bubbles file:line to the call site. Fix: pipe the test binary's
   stdout through `sed -E 's/^[[:space:]]+([a-zA-Z0-9_]+_test\.go:[0-9]+: )?//'`
   so the display strips both. Tee to the artifact log happens BEFORE
   the sed so raw output is preserved for triage; only the live UI
   sees the cleaned form.

* feat(e2e-harness): extend harness for single-node Go suite port

Stage A of mulga-siv-89 — add the primitives the single-node run-e2e.sh
port consumes:

- AWSClient gains IAM + STS service handles, plus NewAWSClientWithCreds
  for per-tenant account-scoping in Phase 8.
- awserror.go: ErrorCodeIs, AssertAWSError, ExpectError — Go equivalent
  of the bash expect_error helper used throughout the negative phases.
- poll.go: WaitForInstance/Volume/Snapshot/Image state to any target,
  with per-resource default timeouts tuned from the bash sleep loops.
- spxcli.go: thin shellouts for spx get nodes/vms, spx top nodes,
  spx admin account create with output parsing for tenant-id/access-key.
- rawhttp.go: signed raw POST against the AWS gateway for the Phase 8
  InvalidAction probe (gateway rejects on auth before action parsing).
- ovn.go: OvnNbctl/OvnSbctl wrappers + SkipIfNoOVN for Phase 8b-e
  datapath checks; WaitForPortGroupMember handles propagation polls.
- ec2helpers.go: InstancePublicSSHHost (public-IP-or-qemu-hostfwd),
  LsblkRootGiB, serial-console-access trio, DiscoverDefaultVPC,
  idempotent AuthorizeSSHIngress.
- account.go: AccountCarousel maps tenant name -> scoped AWSClient,
  built atop NewAWSClientWithCreds for the Phase 8 isolation tests.

Pure groundwork — no new tests, no production behaviour change. The
cert + lb scenarios still compile against the extended harness.

* ci(e2e-go): auto-cancel + reap orphans to prevent runner wedge

A cancelled run on the single-runner ci-single host has been leaving
orphan tofu/terraform procs (and stale tfstate locks) behind, which
caused the next push's tofu destroy to hang for 45m+ and saturate the
runner host until sshd refused new connections.

- Add `concurrency: e2e-go-${ref}, cancel-in-progress: true` so a new
  push to feat/e2e-go-harness cancels the in-flight run instead of
  stacking on the same self-hosted runner.
- New `Reap Orphan Procs` step at job start: SIGTERM then SIGKILL any
  lingering `tofu`/`terraform` from the runner user, and unlink any
  stale `.terraform.tfstate.lock.info`.
- Harden `Teardown`: drop `set -e` (scrub-env must always run as the
  libvirt-level fallback), reap orphans before destroy, and wrap
  `tofu destroy` in `timeout 600` so a wedged provider can't pin the
  job to its 45m timeout.

* ci(e2e-go): drop push trigger, manual dispatch only

Pull the on.push branch trigger so the workflow only fires from
workflow_dispatch — matches the e2e-ddil.yml Phase-1 pattern. Push
trigger lifts again once the single-node Go port (mulga-siv-89) is
green end-to-end and run-e2e.sh is retired.

* test(e2e-single): port run-e2e.sh phases 1-4 to Go

Stage B of mulga-siv-89. Lands the TestSingleNode orchestrator + Fixture
that threads state between sequential phase subtests, plus phases:

- Phase 1: KVM check, AWS gateway TLS reachability, daemon NATS
  readiness polling, region/AZ smoke.
- Phase 1b: spx get nodes / top nodes / get vms (single-node only).
- Phase 2: nano instance-type + arch discovery.
- Phase 2b: serial-console-access default/enable/disable round-trips.
- Phase 3: create-key-pair + import-key-pair lifecycle; test-key-1 PEM
  kept for Phase 5 instance launch (cleanup deferred to teardown phase
  in stage G).
- Phase 4: architecture-aware AMI discovery via name filter
  ami-ubuntu-24.04-{x86_64,arm64}, falls back from spx import output.

Phase ordering is contractual (Phase 5+ depend on AMI, key pair, AZ).
detectPoolMode reads [network] external_mode from spinifex.toml so
stages F/G can skip pool-only phases on dev_networking fixtures.

No production code changed. cert + lb scenarios continue to compile.

* test(e2e-single): port run-e2e.sh phases 5-5e to Go

Stage C of mulga-siv-89 — the instance/volume/snapshot/image lifecycle
that everything else hangs off:

- Phase 5: run-instances (default VPC + default SG with tcp/22 opened
  via idempotent harness.AuthorizeSSHIngress), wait running, resolve
  root volume from BlockDeviceMappings.
- Phase 5a-pre: spx get vms now contains the running instance.
- Phase 5a: describe-instances metadata round-trip (type/key/AMI/BDMs).
- Phase 5a-ii: TCP wait, ssh id, lsblk cross-check vs API root volume
  size (±1 GiB tolerance — lsblk rounds down), soft hostname check.
- Phase 5a-iii: get-console-output round-trip on InstanceId.
- Phase 5b: create-volume (10 GiB) → modify-volume (20 GiB) →
  attach-volume → detach-volume → delete-volume, polling each state
  transition through harness.WaitForVolumeState.
- Phase 5b-ii: describe-volume-status on the root volume.
- Phase 5c: create-snapshot → wait completed → copy-snapshot → both
  visible → delete original → copy survives → delete copy.
- Phase 5d: AMI snapshot-backed launch verification via
  DescribeImages.BlockDeviceMappings[].Ebs.SnapshotId. Predastore-side
  config.json reads are TODO (no S3 client in harness yet).
- Phase 5e: create-image --no-reboot, wait available, capture backing
  snapshot ID for Phase 9 cleanup.

Phase 7a (attach to stopped → error) stubbed in volume_test.go for
Stage D to fill once the lifecycle stop/start lands.

* test(e2e-single): port run-e2e.sh phases 5f-8 to Go

Stage D of the single-node Go port (mulga-siv-89). Adds four files
under tests/e2e/single/ covering Phase 5f (SG egress ACL enforcement),
Phase 6 (tag CRUD), Phases 7 / 7a / 7b / 7c-pre / 7c (stop, start,
attach-to-stopped negative, ModifyInstanceAttribute, reboot, multi-count
RunInstances), and Phase 8 negatives (18 sub-tests asserting AWS error
codes via harness.ExpectError / AssertAWSError / PostAWSAction).

Wired into TestSingleNode in main_test.go; phase ordering preserved
because Phase 7 chain mutates the shared instance state (stopped at end
of 7, .small after 7b, running after 7c-pre, untouched by 7c siblings)
and Phase 8 negatives need a running instance with the AMI/key created
earlier.

Removes the placeholder phase7a_AttachToStoppedError stub from
volume_test.go (real impl now in lifecycle_test.go).

run-e2e.sh stays in tree until step-7 cleanup per the parent plan.

* ci(e2e-go): wire e2e-single target + add single to build set

Lets the in-progress single-node Go port (mulga-siv-89, Stages A-D
landed) be exercised in CI via explicit `suites: e2e-single` dispatch
input ahead of Stage G flipping the workflow default.

Workflow default suites unchanged until Phase 9 teardown lands.

* test(e2e-single): port run-e2e.sh IAM 1-7 + Phase 8 account scoping to Go

Stage E of the single-node Go port (mulga-siv-89). Adds two files
under tests/e2e/single/:

- iam_test.go (903 lines): IAM Phases 1-7 — User CRUD, Access Key
  Lifecycle, User Authentication (via harness.NewAWSClientWithCreds),
  Policy CRUD (+ CreatePolicyVersion / SetDefaultPolicyVersion /
  DeletePolicyVersion which bash lacks), Policy Attachment &
  Enforcement (allow / deny / wildcard / root bypass), Policy Lifecycle
  (DeleteConflict while attached), and idempotent Cleanup.

- account_test.go (1186 lines): Phase 8 EC2 Account Scoping — 11 Steps
  (Account Setup, Instance / Volume / KeyPair / Snapshot / VPC-Subnet /
  IGW-EIGW Scoping, Account Settings, Global Resources, Edge Cases,
  Cleanup). Uses harness.AccountCarousel for the multi-profile
  credential map and SpxAdminAccountCreate for admin account
  bootstrap.

Fixture extended with IAM cross-phase state (IAMAdminAccount,
IAM{Alice,Bob,Charlie}{KeyID,Secret}) so Phase 7 cleanup is defensive
even when an intermediate IAM phase short-circuits. All 11 Phase 8
Steps share local state in the outer function; t.Cleanup mirrors
Step 11 LIFO so a mid-Step failure still tears down accounts.

Wired into TestSingleNode. run-e2e.sh stays in tree until step-7
cleanup per parent plan.

* fix(e2e-harness): use kebab-case is-default filter for DescribeVpcs

AWS EC2 DescribeVpcs filter names are kebab-case (is-default), and the
daemon's filter allowlist enforces that. The harness sent the camelCase
SDK field name (isDefault), so the daemon returned InvalidParameterValue
400 and DiscoverDefaultVPC fataled — leaving Phase 5 InstanceID empty
and cascading 16 downstream Single-Node E2E subtests to fail.

* test(e2e-single): port run-e2e.sh phases 8b-8e to Go

Stage F of the single-node Go port (mulga-siv-89). Adds three files
under tests/e2e/single/:

- vpc_test.go (553 lines): Phase 8b (pool-mode VPC public/private
  subnet E2E — CreateVpc, dual subnets with MapPublicIpOnLaunch
  assertions, IGW attach, custom route table + 0.0.0.0/0 route,
  instance launch + SSH + external connectivity probe) and Phase 8c
  (route table validation — main RT association, local + IGW route
  presence, custom RT CRUD + association/disassociation, negative
  delete-local + delete-main assertions).
- natgw_test.go (467 lines): Phase 8d (pool-mode NAT GW E2E —
  CreateNatGateway with EIP, private subnet route via NAT, bastion-
  hopped SSH into private VM, baseline egress drop / post-NAT egress
  succeed / post-teardown egress lost). Inline waitForNATGatewayState
  helper bounds the pending->available->deleted state machine via
  harness.EventuallyErr.
- datapath_test.go (326 lines): Phase 8e (OVN-gated SG-to-SG datapath
  — two SGs with UserIdGroupPair ingress rule, OVN port-group
  membership + SB address-set wait loops, allowed traffic curl,
  denied traffic nc, revoke->drop, re-add->restore).

Pool-mode gating via fix.PoolMode for 8b/8d; OVN gating via
harness.SkipIfNoOVN for 8e. Per-phase t.Cleanup LIFO ensures
teardown unwinds even on partial failure. Wired into TestSingleNode.

* test(e2e-single): port run-e2e.sh phases 9, 9a, 9b to Go

Stage G of the single-node Go port (mulga-siv-89) — final teardown +
post-teardown verification. Adds tests/e2e/single/teardown_test.go
(226 lines):

- phase9_Teardown: DeleteSnapshot(CustomAMISnapID) -> DeregisterImage
  (CustomAMIID) -> TerminateInstances(InstanceID) + wait terminated ->
  DeleteKeyPair(KeyName). Each call swallows *NotFound via
  harness.ErrorCodeIs; unexpected errors logged as warnings so 9a/9b
  always run.
- phase9a_VerifyTeardown: DescribeInstances must show terminated or
  NotFound; DescribeImages must NOT include the deregistered AMI;
  DescribeKeyPairs must NOT include the deleted key. Clears the
  consumed Fixture fields.
- phase9b_FinalClusterStats: harness.SpxGetVMs must NOT list the
  terminated InstanceID; orphan i- rows surface as soft Logf warnings
  to avoid flakes when parallel suites share the node.

Wired into TestSingleNode. With this, mulga-siv-89's single-node Go
port (Stages A-G) is feature-complete; run-e2e.sh remains in tree
until a separate cleanup bead deletes it after CI burn-in.

* ci(e2e-go): unbuffer sed in test pipeline for live log streaming

GNU sed defaults to block-buffered stdout when stdout is a pipe
(GitHub Actions runner). Accumulates 4-64KB before flushing, so
test output appeared in sporadic batches unaligned to test
boundaries. -u flag forces line-buffered output so each go test -v
line surfaces in the Actions UI as it is produced.

Side effect: none. No process count change, no SSH session change,
no test execution change. Pure output flushing on the runner host.

* fix(e2e-single): persist key PEM across phases and skip unimplemented IAM ops

Three bugs blocked the Single-Node Go E2E suite after the DescribeVpcs
filter fix:

1. Phase 3 wrote the SSH PEM into `t.TempDir()`, which Go cleans up when
   the Phase 3 subtest exits. Phases 5a-ii / 5a-iii / 7b / 7c-pre then
   saw "Permission denied (publickey)" / "Identity file not accessible"
   and the cascade left the instance in a state that broke 7c-pre's
   `start-instances`. Move the PEM under a TestSingleNode-scoped
   `fix.TmpDir` so it survives until the whole test exits.

2. IAM Phase 2's `require.NotEmpty(t, fix.IAMAdminAccount, "")` was
   intended as a no-op (Phase 4 populates the field), but require.NotEmpty
   fails on empty regardless of message. Removed the bogus check.

3. The daemon does not yet implement `UpdateUser` (IAM Phase 1) or the
   policy-version family (IAM Phase 4): `CreatePolicyVersion`,
   `ListPolicyVersions`, `SetDefaultPolicyVersion`, `DeletePolicyVersion`.
   They return `InvalidAction` and abort the phase. Wrap each block in a
   t.Run sub-test with t.Skip so the surrounding phase still runs and
   the skips show up explicitly in the test report.

* test(e2e): parallelise hot phases + tune fast-path polls

Squash merge of feat/e2e-parallel-quickwins (mulga-siv-96). Four
quick wins from decomposing run-e2e.sh into Go phase subtests:

- Phase 8 negatives (single/negative_test.go): t.Parallel() inside
  each of the 18 read-only error-path sub-tests. ~5-10x speedup.
- IAM Phase 4 policies (single/iam_test.go): EC2ReadOnly stays
  seeded sequentially (populates fix.IAMAdminAccount); the other
  four policies fan out as siblings under a wrapping
  create_policies_parallel t.Run. ~5x on the Phase 4 sub-step.
- Volume + snapshot fast paths (single/{volume,snapshot}_test.go):
  pass harness.WithPoll(500ms) on the five state transitions that
  finish in <1s on local QEMU. Halves Phase 5b / 5c wall-clock.
- Cert per-IP loop (cert/cert_test.go): t.Parallel() inside the 4
  inner t.Run(ip, ...) blocks. Cuts cert phase by len(nodes).

No harness changes, no Fixture changes, no test-execution-order
changes. mulga-siv-96.

* test(e2e-lb): resolve peer availability before shared fixture setup

setupSharedFixture builds a VPC + 2 app VMs + probe client (minutes
on capacity-tight dev hosts) and previously ran BEFORE the peer
pickup + ssh.Ping. On single-node, the InternetFacing_* subtests
would correctly t.Skip on peer == "" — but only after the fixture
work and once subtests started, so the wait appeared to be attached
to the first subtest name gotestsum printed.

Reorder: pickPeer + ssh.Ping first, log "internet-facing will skip"
immediately, then build the fixture for the internal subtests.
No behavior change for multi-node + peer-reachable; on single-node
the skip rationale surfaces before the fixture wait.

* test(e2e-single): extend SSH wait budget to 3m on slow boot paths

CI run 26034322018 timed out Phase5a_ii_SSH (60s budget) and
Phase8b_VPCSubnetE2E (2m budget) on the TCP-port-open poll while
sshd was still finishing pam/cloud-init. Bump all four wait sites
to 3m as a stop-gap:

- single/instance_test.go phase5aii_SSHProbe
- single/lifecycle_test.go waitForSSHReady (Phase 7b/7c/7c-pre)
- single/vpc_test.go phase8b_VPCSubnetE2E
- single/natgw_test.go phase8d bastion SSH wait

Proper fix tracked under mulga-siv-101 (hoist a harness.WaitForSSH
that probes the actual handshake, not just tcp/22 reachability).

* test(e2e-single): skip-gate IAM3/IAM5/IAM6 until daemon handlers land

CI run 26034322018 surfaced three IAM daemon gaps:

- IAM3_UserAuthentication: alice's freshly-created access key returns
  403 from DescribeInstances — daemon doesn't honour scoped IAM key
  signatures yet.
- IAM5_PolicyAttachmentEnforcement: cascades from IAM3 (alice can't
  sign).
- IAM6_PolicyLifecycle: DetachUserPolicy returns 404 even on
  attachments Phase 5 confirmed — daemon attachment ledger gap.

Skip-gate each phase with t.Skip + a pointer to mulga-siv-100 so the
remaining IAM coverage (IAM1/IAM2/IAM4/IAM7) keeps surfacing
regressions, and the suite as a whole doesn't fail on known gaps.
Flip to real assertions once the daemon handlers land.

* test(e2e-single): probe full SSH handshake (not just TCP port open)

CI run 26036025293 hit "Connection timed out during banner exchange"
on Phase5a-ii / 8b / 8d even with the 3m TCP-port-open budget: tcp/22
opens immediately, but sshd is still finishing pam/cloud-init, so the
first real runSSH call afterwards races the half-open daemon.

Switch waitForSSHReady to issue an actual ssh BatchMode + ConnectTimeout
handshake against the target, retrying until the daemon completes the
banner exchange. Drop the four TCP-only Eventually loops in favour of
the upgraded helper:

- instance_test.go phase5aii_SSHProbe
- lifecycle_test.go waitForSSHReady (Phase 7b / 7c-pre / 7c)
- vpc_test.go phase8b_VPCSubnetE2E
- natgw_test.go phase8d_NATGateway (bastion)

Signature: waitForSSHReady(t, host, port, keyPath). Backwards-compat
alias waitForSSHHandshake exposed for the instance_test caller. Proper
harness hoist tracked under mulga-siv-101.

* test(e2e-harness): dual-emit Step + Detail for live CI streaming

go test's testing framework buffers t.Logf output per-test and releases
it only on PASS/FAIL. Long subtests (Phase8Acct_AccountScoping ~115s,
Internal_NLB ~60s, Phase8b_VPCSubnetE2E 2-3m, Phase8d_NATGateway ~90s)
therefore went silent in CI for the entire subtest duration, even with
sed -u line-buffering in the workflow pipeline.

harness.Phase already wrote to os.Stdout directly for this reason.
Extend the pattern: have Step and Detail dual-emit — write the same
line to os.Stdout (streams live) AND t.Logf (keeps JUnit per-test
attribution). The duplicate on a failure is acceptable; both copies
carry identical content.

mulga-siv-103 (note: numbering skipped past siv-102 which was already
filed in the parent branch).

* test(e2e-harness): drop t.Logf duplicate from Step + Detail

The dual-emit (Fprintln + t.Logf) caused every Step/Detail line to
appear twice after long subtests: once live via stdout, once again
when the testing framework released its per-test buffer at
PASS/FAIL. Most visible after lb subtests (Internal_NLB ~60s) where
the bulk release dumped ~dozens of duplicated lines at once.

Drop the t.Logf copy. go-junit-report parses stdout between
`=== RUN` and `--- PASS/FAIL` markers, so per-test attribution in
JUnit XML is preserved without the duplicate.

Refs: mulga-siv-103

* test(e2e-harness): stream lb-waiter progress live in CI

WaitForLBActive, WaitForTargetsHealthy, WaitForENICleanup, and
WaitForInstanceRunning emitted progress via t.Logf, which the
testing framework buffers per-test. After the previous commit
dropped the dual-emit, that meant every poll loop went silent
until subtest end — visible in CI as 'nlb is active' hanging on
screen for the whole duration of the subsequent traffic check.

Route progress through harness.Step (direct stdout). Also emit a
'waiting for X' Step at the start of each helper so observers
know what the silent stretches actually represent.

Refs: mulga-siv-103

* test(e2e): dump VPC/IGW datapath diagnostics on Phase8b SSH timeout

Phase8b's 3min SSH timeout on a fresh-VPC VM (CI run 26037892507) is
the customer-visible surface of mulga-siv-105 — vpcd's handleIGWAttach
returns before ovn-northd compiles + the gateway chassis installs
flows. Two other cleanup-only bugs (siv-106 missing spinifex:cidr,
siv-107 dnat_and_snat double-delete) showed up in the same triage.

Keep the test hard-failing so the regression stays visible, but dump a
triage bundle on timeout so each occurrence is actionable:

- guest console output (last 4KB — boot + cloud-init state)
- ovn-nbctl show + ovn-sbctl show
- Logical_Router external_ids (confirms siv-106 reproduction)
- NAT rules (confirms siv-105 + siv-107 surface)
- Port_Binding chassis,up (confirms gateway port up state)

Diagnostics go straight to stdout (Step/Detail rationale) so they
stream live in CI rather than dumping at PASS/FAIL.

Refs: mulga-siv-105, mulga-siv-106, mulga-siv-107

* ci(junit-report): drop parent t.Run containers from tally + list skips with reasons

GitHub Actions test summary was counting Go's top-level Test* parent
plus its failing subtest as two distinct failures (the parent is just
a rollup of its children). The summary now de-dupes by dropping any
test case whose name is a strict prefix of another's, so the per-file
counts and the Failures block both match the actual leaf-test
outcome. CI run 26037892507 was reporting '2 failed' for single when
it should have been 1.

Also adds a collapsible Skipped section listing each skipped leaf test
with its t.Skipf call-site reason (the .go:<line>: line from the
CDATA). ANSI escapes from harness.Phase banners are stripped so the
reason is plain text. Reasons are useful triage signal — current run
has 9 skips spread across daemon gaps (mulga-siv-100) and pool-mode
gates (InternetFacing_*).

Refs: mulga-siv-89

* ci(e2e-go): propagate cancel to remote .test procs + nuke VM before destroy

Two related leaks made cancelled runs strand QEMU work on the libvirt host:

1. The long `ssh tf-user@VM "for SUITE in …; do ./$SUITE.test"` ran
   without -tt, so when the runner cancelled the step the local ssh
   died but sshd never sent SIGHUP through (no PTY). The remote
   `.test` binary orphaned and kept running until its own 30m
   `-test.timeout`, holding tmp dirs, NATS connections, and qcow2 file
   handles.
2. Teardown went straight to `tofu destroy` without first killing any
   stragglers on the VM, so destroy raced the .test's open file handles
   on the root disk — sometimes successfully, sometimes leaving the
   libvirt host with a half-released qcow2.

Fix:
 - Allocate a PTY on the run-suites ssh (`-tt`) so sshd HUPs children
   when the local ssh dies.
 - Add a trap (EXIT INT TERM) in the run-suites step that ssh's back
   to the VM and pkill's `/spinifex-e2e-bin/*.test` belt-and-braces.
 - Mirror the same pkill at the top of Teardown so destroy runs against
   a quiesced VM.

Both cleanups are scoped to the per-run wan_ip — safe to land while
multiple ci-single runner agents run concurrent jobs against different
tofu envs on the same host (we deliberately keep that parallelism).

Refs: runner host wedged 2026-05-19 (post-cancel orphans suspected;
no journal access yet to confirm).

* ci(e2e-go): scope orphan reap to GITHUB_WORKSPACE so it spares sibling runners

Reap Orphan Procs (job start) and the in-Teardown pkill block were using
`pkill -u $UID_SELF -x tofu/terraform` plus `find $HOME -maxdepth 6 -name
.terraform.tfstate.lock.info`. The single host runs 5+ self-hosted runners
all as `tf-user`, so every e2e-go run was SIGKILLing in-flight tofu from
sibling workflows (e2e.yml, e2e-ddil.yml, e2e-baremetal.yml, ...) and
deleting their state-lock files — exactly the kind of cross-runner
collateral the reap was meant to recover from.

Scope by `/proc/$pid/cwd` starting with $GITHUB_WORKSPACE; each runner's
workspace dir is unique on the host, so only this run's own tofu procs
match. Find for stale lockfiles is likewise scoped to $GITHUB_WORKSPACE.

* ci(e2e-go): bump setup-go v5->v6, upload-artifact v4->v7

GitHub now warns Node 20 actions are deprecated. e2e-go.yml lagged the
rest of the repo; bump to match versions already in use:

- actions/setup-go@v5 -> @v6   (matches spinifex.yml)
- actions/upload-artifact@v4 -> @v7  (matches release.yml, e2e-ddil.yml)

checkout@v6 and create-github-app-token@v3 are already current across
all workflows. The local junit-report action is `using: composite`
(shell-only), so the Node runtime change does not apply.

* fix(vpcd): add flows-ready barrier after IGW attach (mulga-siv-105)

handleIGWAttach wrote the external switch + gateway port + LRP + default
route to OVN NB and returned immediately, before ovn-northd had compiled
NB -> SB and before ovn-controller on the gateway chassis had installed
the resulting flows. A subsequent RunInstances -> vpc.add-nat could
complete while the datapath was still dark; the launched VM was then
unreachable on its public IP for whatever flow-install latency the
chassis happened to incur. Customer-visible as 'I just created a VPC,
launched a VM, and can't SSH in' for ~minutes.

Reproduced deterministically in CI run 26037892507 Phase8b: a VM in
a fresh VPC was unreachable at 192.168.0.202:22 for 3+ minutes, while
a VM at the same public IP in the warm default VPC (Phase8d) was
reachable in ~40 seconds.

Block at the end of handleIGWAttach on `ovn-nbctl --wait=hv sync`,
which bumps NB_Global.nb_cfg and waits for every connected chassis to
acknowledge the new sequence number — i.e. flows installed. Bounded by
--timeout=30; overruns log a WARN and continue (a 30s OVN stall is
already a deeper problem than failing VPC create would surface).

waitForFlowsHV is a package var so tests can stub it; in environments
without ovn-nbctl on PATH the shell-out fails fast and the WARN path
returns nil, so existing IGW tests stay green without a live OVN.

Refs: mulga-siv-105

* fix(vpcd): store spinifex:cidr on VPC create (mulga-siv-106)

handleVPCCreate built the OVN logical router with only spinifex:vpc_id
and spinifex:vni in ExternalIDs. Cleanup paths (handleIGWDetach + NAT
sweeps) read external_ids['spinifex:cidr'] to scope SNAT removal to
the VPC's own CIDR; when unset, they fell back to an overbroad
10.0.0.0/8 and emitted a WARN.

reconcileVPC already stored the same key at startup; the live-create
path drifted. Add the field to handleVPCCreate, log the cidr alongside
vpc_id, extend TestTopologyHandler_VPCCreate to assert the external_id
is set.

Refs: mulga-siv-106

* fix(vpcd): make handleDeleteNAT idempotent on 'already absent' (mulga-siv-107)

Instance termination fans out through multiple cleanup paths
(instanceCleanerAdapter.ReleasePublicIP AND
VPCServiceImpl.DeleteNetworkInterface), both of which publish
vpc.delete-nat for the same (vpc, logical_ip). The publish is
fire-and-forget (utils.PublishNATEvent uses PublishEvent for
vpc.delete-nat, not RequestEvent), so callers never branch on the
response. The second publisher then triggered a spurious
'ERROR vpcd: failed to delete dnat_and_snat rule ... not found' log
line ms after the first delete succeeded — confusing triage signal
with no actionable consequence.

Add ErrNATNotFound sentinel to the OVN client interface and wrap the
not-found return paths in both LiveOVNClient and MockOVNClient.
handleDeleteNAT matches errors.Is(err, ErrNATNotFound) and treats
that as success (logs INFO 'already absent (idempotent)').

Existing TestTopologyHandler_DeleteNAT_NotFound asserted the opposite
contract; the comment claimed EIP disassociation needed the error
signal, but DisassociateAddress also fire-and-forgets vpc.delete-nat,
so the contract never had a real consumer. Test renamed to
_Idempotent with assertSuccess.

Other failure modes (router missing, OVN unreachable, transact error)
still surface as ERROR + reply with the error string.

Refs: mulga-siv-107

* ci(e2e-go): cluster JUnit failures + name likely root cause (#230)

* ci(e2e-go): cluster JUnit failures + name likely root cause

New composite action `.github/actions/e2e-analyze` runs after
`go-junit-report` converts each suite log. For every `<failure>` it
strips ANSI, normalises dynamic noise (EC2 IDs, UUIDs, IPs, timestamps,
file:line) to a stable signature, picks the earliest non-cascade
failure per suite as the likely root cause, and buckets the rest by
signature. Output is appended to `$GITHUB_STEP_SUMMARY` and written to
`<log-dir>/analysis.md` so it travels with the artifact bundle.

Cascade markers (`must populate fix.`, `Should NOT be empty`,
`Expected value not to be nil`) collapse the typical "one upstream
phase fails, ten downstream `require.NotEmpty` assertions trip" pattern
into a single grouped entry under the real first failure.

The analyser is advisory — it always exits 0. The existing
"Fail job if any suite failed" gate keeps owning exit-code semantics.

Stage 1 of `docs/development/improvements/e2e-go-failure-analysis.md`
(mulga-siv-102). Stage 2 (per-failure log slicing) and Stage 3
(rule-based hints via `tests/e2e/.failure-rules.yaml`, placeholder
seeded here) are independent follow-ups.

CI wiring:
- e2e-go.yml: new "Analyze e2e failures" step between "Publish test
  summary" and the artifact upload, always-runs.
- spinifex.yml: new `make test-actions` step so the golden-file tests
  under `.github/actions/e2e-analyze/testdata/` run on every PR.
- Makefile: `test-actions` target; kept out of `test-cover` so CI-only
  tooling doesn't dilute coverage %.

Golden fixtures: a synthetic cascade-vpcs case (one Phase 5
InvalidParameterValue root + 15 downstream cascades), one real
single-failure case captured from run 26037892507, and a clean
no-failures case.

* ci(e2e-go): per-failure log bundles with time-window slicing

Stage 2 of the e2e failure analyzer. For each failure surfaced by
Stage 1, materialise <log-dir>/analysis/NN-<TestName>/ containing:

  failure.txt — summary (test, start, duration, file-site, error)
  journal.log — spinifex-journal.log sliced to
                [StartAt - 5s, StartAt + Duration + 5s]
  test.log    — test-<suite>.log block between `=== RUN <name>`
                and the matching `--- FAIL` marker
  <copies>    — any files the harness already dropped at
                <log-dir>/<TestName_with_/_replaced>/

Report links each entry to its bundle so a reader on the Actions
page goes straight to the relevant slice.

Workflow now invokes journalctl with --output=short-iso so the
analyzer can parse wall-clock timestamps for the journal window.
Lines without a parseable timestamp inherit the previous line's
classification (keeps multi-line records and stack traces
contiguous).

Render output is unchanged when BundlePath is empty, so the Stage 1
golden snapshots still match.

* ci(e2e-go): restore GOTOOLCHAIN=auto after setup-go v6 bump

setup-go@v6 flipped the GOTOOLCHAIN default from "auto" to "local",
which makes Go refuse to auto-download the toolchain version named
in go.mod. The self-hosted ci-single runner ships /usr/local/go
older than spinifex/go.mod's `go 1.26.3`, and build-install-artifacts.sh
prepends that path so the system Go wins the resolution race. Under
v5 ("auto"), Go silently fetched 1.26.3 on demand; under v6
("local"), the Build Install Artifacts step errors out:

  go: spinifex/go.mod requires go >= 1.26.3 (running go 1.26.1; GOTOOLCHAIN=local)

Re-set the env to "auto" so behaviour matches pre-v6 runs.

* ci(e2e-go): re-export GOTOOLCHAIN=auto after setup-go

Workflow-level env doesn't help: setup-go@v6 writes GOTOOLCHAIN=local
to $GITHUB_ENV, which overrides workflow env in every later step.
Add a dedicated step right after setup-go that appends
GOTOOLCHAIN=auto to $GITHUB_ENV so the Build Install Artifacts step
(which uses /usr/local/go from a stale runner path) can self-heal by
fetching the toolchain named in go.mod, matching pre-v6 behaviour.

* fix(vpcd): add flows-ready barrier after dnat_and_snat add

handleAddNAT wrote the NAT rule to OVN NB and returned immediately,
mirroring the gap siv-105 closed for handleIGWAttach but on the NAT
add path. ec2d/RunInstances then returned success while ovn-northd
was still compiling NB->SB and ovn-controller hadn't installed the
DNAT/SNAT flows on the gateway chassis, so the freshly launched VM
was unreachable on its public IP for whatever flow-install latency
the chassis happened to incur.

Reproduced in CI run 26072432957 Phase8b_VPCSubnetE2E: VM at
192.168.0.212 timed out at 3min while diagnostics showed
Port_Binding up=true for both the VM eni and the chassis-redirect
gateway. SB-side convergence was complete; the missing piece was the
same `ovn-nbctl --wait=hv sync` barrier siv-105 added to IGW attach,
applied at the end of handleAddNAT as well.

Reuses the existing package-var `waitForFlowsHV` so tests can stub
it; no new infra. Parallel unit test asserts the call site fires
exactly once per add-nat.

* ci(e2e-analyze): real-artifact fixes for journal slicing

Three bugs surfaced after Stage 2 ran against real CI artifacts in
run 26072432957:

1. Regex `[+-]\d{4}` rejected the colon-offset form (e.g. `+10:00`)
   that systemd's `journalctl --output=short-iso` actually emits on
   most versions. Added a parser that tries RFC3339 first and falls
   back to the no-colon `-0700` layout. Result: 0-line journal slices
   become populated.

2. go-junit-report's `timestamp` attr on <testsuite> records the
   moment the XML was produced (post-suite), not when the tests
   started. Computing StartAt as `that + cumulative-priors` placed
   every failure AFTER the journal collection ended, so windows
   always missed. Workflow now writes `${ARTIFACT_DIR}/test-<suite>.start`
   right before running each suite; analyzer prefers that file over
   the junit timestamp.

3. Persisted `OffsetFromSuiteStart` on each Failure so the
   suite-start override can recompute StartAt without re-parsing the
   XML.

Unit tests added for the colon-offset journal format. End-to-end
test (TestWriteBundles_EndToEnd) still passes with the new layout.

* ci(e2e-analyze): skip parent testcases when summing suite offsets

go-junit-report emits one <testcase> for the parent Go test AND each
subtest, with the parent's time = sum of its children. ParseFile was
summing every testcase into the suite-cumulative-offset counter, so
every leaf's offset was inflated by ~the parent's total duration.
Visible on run 26073817490 as Phase8b's StartAt landing 13 minutes
after the suite finished collecting logs — beyond the journal window,
so the per-failure journal slice was empty.

Pre-compute the leaf set per suite (a name is a leaf iff no other
testcase name starts with `<name>/`) and only accumulate cumul on
leaves. Golden snapshots updated; the offset for the only failure in
each fixture now matches the actual leaf-sum start time.

* test(e2e-harness): capture IP-targeted datapath state on Phase8b SSH fail

Phase 1 diagnostics for mulga-siv-111. The Phase8b SSH timeout
reproduced on the e2e-failure-analysis branch with siv-105's IGW
barrier AND the new add-nat barrier BOTH firing cleanly, so the
residual gap is downstream of `--wait=hv sync` — most likely stale
OVS conntrack, stale upstream-host ARP, or an OF flow-install miss.

DumpVPCFlowDiagnostics now takes a VPCDiagnosticsOpts carrying the
external IP, logical IP, and per-test artifact dir. When set, the
helper greps `ovs-ofctl dump-flows br-int`, `conntrack -L`, and
`ip -4 neigh show` for the external IP / logical IP and snapshots
`ovn-nbctl find NAT external_ip=…`. Each capture is both printed
inline (existing affordance) and written to a separate file under
fix.Artifacts so the Stage 2 analyzer bundler picks it up alongside
the journal + test-log slices, no analyzer changes needed.

Phase8b's caller now passes pubIP / privIP / fix.Artifacts so the
captures fire on the next failure; updates the t.Fatalf message to
point at siv-111 instead of siv-105 (which is the now-closed parent).

* fix(e2e-single): authorize SSH ingress on fresh-VPC default SG in Phase8b

Phase 8b stands up a non-default VPC and runs an instance there. Its
auto-created default SG denies all ingress, so the SSH probe times out
even when every datapath barrier converges — OF flow captures show the
SYN reaches OVN, gets DNAT'd at table 13, then drops at the ACL between
tables 13 and 17. The bash driver relies on admin init having pre-baked
this rule on the *default* VPC's default SG; a fresh VPC has not.

Add a DescribeSecurityGroups + AuthorizeSSHIngress step between
route-table setup and run-instances, using the existing harness helper.
Fix surfaced via mulga-siv-111's Phase 1 diagnostics (OF flow + ACL
drop counts), invalidating the H1/H2/H3 stale-state hypotheses in the
bead plan doc.

* test(e2e): dual-detect ubuntu image version (24.04/26.04) during gold-image transition

After mulga gold image bumped to v6-fastboot (stages ubuntu-26.04 / resolute
instead of ubuntu-24.04 / noble), all consumers that hardcoded 24.04 break on
the new image. Make them detect at runtime so v3 and v6 envs both pass.

- tests/e2e/run-e2e.sh: DescribeImages filter accepts both
  ami-ubuntu-{26,24}.04-<arch>, then derives IMAGE_NAME from the match.
- tests/e2e/run-pseudo-multinode-e2e.sh: prefer ~/images/ubuntu-26.04.img,
  fall back to ubuntu-24.04.img; pass detected version to spx import.
- tests/e2e/single/image_test.go: walk candidate catalog names (26.04 first,
  then 24.04), stop on the first one DescribeImages can resolve.
- .github/workflows/e2e-baremetal.yml: download resolute (26.04) into
  BM_ISO_CACHE; update BM_UBUNTU_IMAGE env var path.
- docs/terraform-workbooks/{bastion-private-subnet,s3-webapp,nginx-webserver}:
  AMI filter matches `*ubuntu-26.04*` OR `*ubuntu-24.04*` (AWS values=
  array is ORed).

Companion changes for mulga (bootstrap scripts, baremetal, iso pipeline)
land in scripts/tofu-cluster/* and scripts/{tofu-iso,baremetal,iso-builder}/*
under bead mulga-siv-114. Drop the 24.04 fallbacks once all envs are on the
v6 gold image and 24.04 entries are removed from spinifex/utils/images.go.

* feat(e2e): add service-interfaces.yaml manifest + validator

Source of truth for which spinifex services produce/consume which NATS
subjects, and which e2e suites cover which services. Consumed downstream
by the targeted suite selector (Bead 4) to derive subset E2E runs from a
PR diff so single-service changes stop paying the full 25 min suite cost.

- docs/service-interfaces.yaml: 7 services, 4 active suites (cert, lb,
  single, ddil). Subscribes / publishes / depends_on filled from grep
  of NATS subjects in source. spinifexui marked covers_no_suite so
  UI-only diffs skip e2e entirely. Future suites (multinode, reboot,
  tofu, baremetal) commented in until Go ports land.
- tests/e2e/manifest-check: schema + cross-reference validator (path
  existence, subject regex, duplicate detection, suite covers resolves
  to a real service, fixtures references resolve). 8 unit tests cover
  the failure modes plus a load-and-validate on the real manifest.
- Makefile: manifest-check target, hooked into preflight.
- docs/DESIGN.md: link to the manifest under "NATS Messaging".

mulga-siv-116. See docs/development/improvements/e2e-targeted-suite-selection.md.

* fix(e2e): drop catalog-download import path from phase4_Image

`spx admin images import --name ubuntu-26.04-x86_64` with wantErr=true
was meant to detect that bootstrap-install.sh already imported the AMI
and short-circuit on the duplicate exit code. After the v6 gold-image
bump preloaded `~/images/ubuntu-26.04.img` and bootstrap-install.sh
switched to `--file` for the import, two things broke at once:

  - The catalog `--name` path no longer hits a duplicate guard for the
    --file-imported AMI, so the import re-downloads ~857MB and either
    succeeds (failing the wantErr=true assertion) or wedges the job
    timeout while the catalog server crawls along at 16KB/s.
  - `--file` from the test won't work either: the test binary runs as
    `tf-user` over SSH, while bootstrap-install.sh placed the image at
    `/home/spinifex/images/...` (mode 0700 home dir).

bootstrap-install.sh is already responsible for staging the AMI. The
test's job is verifying DescribeImages round-trips by-name and by-ID —
not re-exercising import. Trust the bootstrap-staged AMI and stop
calling import.

Keeps the 26.04→24.04 dual-detect for the v3 gold image transition;
drop the 24.04 candidate when no envs remain on v3.

Refs mulga-siv-115 (caught by the EC2 cold-boot fast-path E2E run on
feat/ec2-coldboot-fastpath).

* ci(e2e-go): default to e2e-single + harden status-report SHA fallback

Two changes to .github/workflows/e2e-go.yml:

1. Default `suites` input now includes e2e-single so a no-input
   manual dispatch exercises the full single-node ladder. Single-node
   Go harness is greenable now (image_test fix at 10eb38a).

2. Report E2E (Go) Status job no longer gated on `inputs.sha` and
   falls back to `github.sha` when the input is unset. Previously a
   manual dispatch without a PR head SHA either skipped the status
   post entirely or hit `gh api repos/.../statuses/` with an empty
   path component (the 'invalid hash' error) — tests passed, the
   report step failed silently. Now status posts on every dispatch
   against the dispatched ref's commit when no explicit SHA given.

Closes mulga-siv-112.

* feat(e2e): add Ensure* fixture API with memoization + cleanup

Introduces tests/e2e/harness/fixtures.go: the memoized, cleanup-aware
provisioning helpers that Bead 3 (single-fixture-migration) will rewrite
phase tests around.

Each Ensure* helper:
- takes (t *testing.T, fx *Fixture, args...)
- memoizes by a key derived from args (sync.Mutex + singleflight)
- registers t.Cleanup on the Fixture's parent test so memoized resources
  survive child-subtest lifetimes
- bakes readiness polling into the helper (no sleeps in callers)

Exported helpers: EnsureKeyPair, EnsureAMI, EnsureDefaultVPC,
EnsureSubnet, EnsureSG, EnsureInstance, EnsureVolume, EnsureSnapshot,
EnsureNATGateway, EnsureLoadBalancer.

Fixture stores ec2iface.EC2API + elbv2iface.ELBV2API so unit tests can
inject fakes without building a real AWSClient (TLS + env). Compile-time
checks guard that the SDK concrete types satisfy the stored interfaces.

Manifest fixtures: block populated — Bead 4 selector will resolve test
coverage from AST-scanned Ensure* call sites via this map.

Makefile: new test-harness target runs the harness unit tests under
-tags=e2e (mocked, no infra). Hooked into preflight so signature drift
and memo/cleanup regressions surface locally.

Bead 2 of docs/development/improvements/e2e-targeted-suite-selection.md.
No existing tests modified — fixture API is net-new.

* feat(e2e): port run-reboot-e2e.sh to Go

Adds tests/e2e/reboot/reboot_test.go — Go port of the single-node host-reboot
resilience driver (cell #18). Runs from the GitHub Actions runner (not
shipped to the VM like cert/lb/single) because systemctl reboot kills any
in-VM process mid-step.

All AWS API traffic crosses the WAN to https://WAN_IP:9999 via the SDK;
SSH-level ops (reboot, ovn-nbctl, journalctl, HTTP burst) hop via
harness.PeerSSH. Trust path tries to SCP the cluster CA off the VM and
falls back to InsecureSkipVerify with a log message if SCP fails — the
cert suite already validates real trust, so the fallback is intentional.

Harness changes:
- env: WANHost field sourced from SPINIFEX_WAN_IP, distinct from
  ServiceIPs[0] (which is the awsgw bind IP, often loopback in-VM).
- aws: SPINIFEX_AWS_INSECURE=1 escape hatch when the runner has no CA on
  disk. Used as the fallback when CA fetch fails.
- cert: SPINIFEX_CA_CERT explicit path override so the reboot test can
  point ResolveCACert at the SCP'd tmp file.
- peer_ssh: IsReachable() probe wrapper for cleanup paths that must skip
  rather than fatal when the host is mid-reboot.

Workflow (.github/workflows/e2e-go.yml):
- New e2e_go_reboot job, opt-in via `e2e-reboot` in the SUITES dispatch
  input. needs: e2e_go_single to serialise on the ci-single self-hosted
  runner. Fetches AWS creds from the VM's ~/.aws/credentials over SSH
  (mirrors the cred hop already proven by e2e-ddil.yml).
- e2e_go_single filters 'reboot' out of its build + run loops so the
  in-VM driver doesn't try to ship reboot.test to the VM and reboot it
  from inside.
- e2e_go_status treats skipped reboot as success.

Refs mulga-siv-118. Plan: docs/development/improvements/e2e-go-reboot-port.md
(in the mulga parent repo).

* ci(e2e-go): run reboot job in parallel with single

Drop `needs: e2e_go_single` from e2e_go_reboot. Both jobs target the
same [self-hosted, ci-single] label, so GitHub Actions serialises on
runner allocation rather than blocking via job ordering — parallel-by-
spec, queued-by-runner. Lets a reboot-only dispatch start immediately
instead of waiting for an unrelated single-job pre-condition.

* fix(e2e/reboot): wait for both backends to serve before post-reboot burst

Phase 8.6 previously probed until ANY HTTP response from the ALB, then
fired a 20-req burst. Post-reboot, only one of the two backends may be
serving (the second is still bringing its responder online) while the
daemon's TG cache still shows pre-reboot 'healthy' for both — so
WaitForTargetsHealthy returns in ms instead of seconds, the ANY probe
matches the first-up backend, and the burst lands 20/0 instead of 10/10.

Probe until BOTH backends' instance_ids each appear at least once before
the round-robin burst — confirms recovery has reached both, not just one.

Underlying daemon-side TG cache staleness tracked separately as
mulga-siv-119. This wait is the test-side guard; the daemon fix will
make WaitForTargetsHealthy meaningful again post-reboot.

Refs mulga-siv-118.

* ci(e2e-go): skip single job when dispatch requests only reboot

Add if: gate to e2e_go_single that skips the job when the workflow_dispatch
suites input contains none of {e2e-single, e2e-cert, e2e-lb}. Push events
and the default suites list still trigger it, so plain PR runs are
unaffected. Avoids ~15min of wasted tofu provision+bootstrap+teardown
when only the runner-resident reboot suite is requested.

* fix(e2e/reboot): bump post-reboot LB recovery timeout to 5min

Pre-reboot the test creates the LB AFTER apps are already running, so
HAProxy starts probing against an already-serving responder — ~75s to
healthy. Post-reboot the daemon's recovery scan launches app VMs and
the ALB sys.micro VM simultaneously, so health checks start probing
within seconds of app boot beginning and both targets honestly report
unhealthy until the responder unit finishes starting. Cloud-init's
per-instance semaphore means no shortcut path on relaunch, so guest
second-boot can be slower than first boot.

Bash run-reboot-e2e.sh hid this behind stale 'healthy' state read from
the daemon's pre-reboot TG cache — fixed via ResetTargetHealthOnStartup
(mulga-siv-119), which made the test honestly wait on real lb-agent
reports. The 180s bash inherited turned out to be wishful thinking
backed by the cache bug, not measured recovery time.

5min matches the actual post-reboot eventually-consistent window
observed on run 26134156355. Refs mulga-siv-118.

* feat(e2e/reboot): ssh into guest VMs on failure for HTTP responder diag

Post-reboot failures bottom out at "0/2 healthy" with no insight into
whether the responder unit died, port 80 isn't bound, or the OVN path is
broken. Capture the keypair material from CreateKeyPair so OnFailure can
hop host -> qemu hostfwd:22 -> guest and dump systemctl status, port
listeners, curl localhost, and the responder journal per instance.

* fix(e2e/reboot): probe app instances via public IP (no QEMU hostfwd)

Previous hostfwd-SSH approach didn't apply: app VMs use pure OVN tap
interfaces (qemu argv has no hostfwd=tcp:*:*-:22), so the regex never
matched. Replace with host-side probes against the IGW-NAT'd public IP:
ping, /dev/tcp connect, and curl. Combined with the qemu ps check and
ovn-nbctl list nat dump, this localises post-reboot failures to one of:
VM not running, OVN DNAT missing, responder down, or sys.micro-only
reachability (path asymmetry).

* feat(e2e/reboot): probe ALB + dump host OVN/OVS state on failure

Last run showed apps unreachable from host post-reboot (ping 100% loss,
tcp refused) even though OVN dnat_snat rules looked correct. Need to
distinguish gateway/ext-bridge breakage from app-side breakage: add a
parallel ALB-public-IP probe (works pre-reboot, so any post-reboot
failure isolates the regression) plus a full host net-state dump (ip
route, ip neigh, ovn-nbctl show, ovs-vsctl show, br-int port list).

* feat(e2e/reboot): dump qemu serial console per app on failure

/run/spinifex/console-i-<id>.log captures cloud-init, kernel boot,
systemd, anything the guest emitted to ttyS0. Tail to 256KiB (~4x a
typical Linux boot) so the latest boot lands in full plus the tail of
the prior. Surfaces guest-side boot failures (kernel panic, fs
corruption, cloud-init OOM, etc.) that are invisible to host-side
network probes.

* feat(e2e/reboot): SSH into guest VMs via IGW for responder root-cause

Last run nailed the symptom: ALB returns 503, app public IPs answer TCP
with RST (port 80 not bound), so reboot-e2e-httpd.service isn't running
on relaunched VMs. To find out why (unit never installed? installed but
not enabled? failed to start?), open tcp/22 ingress on the shared SG and
add a guest-SSH diagnostic via the IGW NAT path. The diagnostic dumps
the unit state, port listeners, /var/lib/httpd, cloud-init result.json,
cloud-init logs, and the instance-id semaphore directory.

* test(e2e/reboot): always run guest SSH diag in phase 8

Last run passed after adding tcp/22 SG ingress. Two possibilities to
distinguish: (a) responder was running all along but blocked at the
OVN/SG layer, (b) responder wasn't running and HC was satisfied by some
other path. Capture in-guest unit + cloud-init state on every run so we
can confirm which without needing the test to fail.

* refactor(e2e/single): migrate VPC group to EnsureDefaultVPC [skip ci]

Bead 3a of mulga-siv-120 (e2e-single-fixture-migration). Replaces the
"discover default VPC + cache on Fixture" pattern in vpc_test.go,
natgw_test.go, securitygroup_test.go with harness.EnsureDefaultVPC.

- Adds Harness *harness.Fixture field on single.Fixture; constructed in
  TestSingleNode alongside AWSClient. Parent test for memoized Ensure*
  resources is TestSingleNode itself.
- Removes fix.DefaultVPCID / fix.DefaultSGID / fix.DefaultSubnetID reads
  in the three target files. Fields stay on the struct until 3e+3h
  migrate the instance / datapath / umbrella sites.
- Custom VPC graphs created by phase8b (10.99.0.0/16) and the bastion
  graph in phase8d remain inline — those are the resource lifecycle
  assertions, not prereqs.

CI gate skipped per dev request — full single-node suite verifies when
upstream main is unbroken.

* refactor(e2e/single): migrate Phase 3 key pair to EnsureKeyPair [skip ci]

Bead 3c of mulga-siv-120 (e2e-single-fixture-migration). Phase 3 now
calls harness.EnsureKeyPair for the primary key pair (Phase 5+ prereq).
The Ensure* path owns the create assertion (PEM shape), memoizes across
phases, and registers TestSingleNode-scoped cleanup — replacing the
former TODO(stage-G) deferred-cleanup marker.

- Drops hardcoded "test-key-1" name; EnsureKeyPair uses scratch-suffixed
  name so parallel CI runs don't collide on the namespace-flat AWS key
  pair name.
- fix.KeyName / fix.KeyPath still assigned for downstream Phase 5+
  readers. Per 3e migration plan, those reads move to in-test
  EnsureKeyPair calls and the Fixture fields drop with 3h.
- Import / describe / delete dance for test-key-2 stays inline — it is
  the lifecycle assertion for the import path, not a prereq.

* refactor(e2e/single): migrate Phase 4 + 5e AMI paths to EnsureAMI [skip ci]

Bead 3d of mulga-siv-120 (e2e-single-fixture-migration).

- Phase 4 (image_test.go): discover catalog AMI by canonical name, then
  route through harness.EnsureAMI({Existing}) so the state-available
  wait + memoization live with the fixture.
- Phase 5e (createimage_test.go): replace inline CreateImage block with
  harness.EnsureAMI({CreateFrom}). The custom AMI build now memoizes,
  registers DeregisterImage cleanup at TestSingleNode exit, and reuses
  the harness state poll.

Harness fix: extend AMICreateSpec with NoReboot bool — Phase 5e bakes
the AMI while leaving the source instance running for Phase 6/7
lifecycle assertions; Bead 2 missed this option.

fix.AMIID / fix.CustomAMIID / fix.CustomAMISnapID stay on Fixture for
downstream Phase 5/6/7 + Phase 9 cleanup. Those reads migrate with
3e/3h.

* refactor(e2e/single): migrate Phase 5 instance lifecycle to EnsureInstance [skip ci]

Bead 3e of e2e-single-fixture-migration.

- phase5_LaunchInstance: provision via EnsureInstance + re-describe for
  BDM/root-volume extraction; default VPC via EnsureDefaultVPC.
- phase8e_SGToSGDatapath: replace inline DiscoverDefaultVPC with
  EnsureDefaultVPC. createSG / runSGEInstance take vpcID/subnetID
  arguments so phase 8e no longer depends on fix.Default* fields.
- runSGEInstance stays direct RunInstances: phase 8e VMs are test
  subjects (need fresh ENI/private-IP per run), not memoized prereqs.
- harness.EnsureInstance memo key now includes InstanceType, SGID, and
  UserData hash — a second call with a different SG would have silently
  returned the first instance ID (Bead 2 bug).

* refactor(e2e/single): migrate Phase 5b/5c volume + snapshot to Ensure* [skip ci]

Bead 3f of e2e-single-fixture-migration.

- phase5b_VolumeLifecycle: create+wait via EnsureVolume; subsequent
  modify/attach/detach/delete stay inline (test subject lifecycle).
- phase5c_SnapshotLifecycle: create+wait via EnsureSnapshot. Drop the
  create-response State/Progress shape assertions — after EnsureSnapshot
  the snapshot is already "completed", and the describe block below
  re-asserts VolumeId / VolumeSize / Description.
- harness.EnsureSnapshot now takes SnapshotSpec{VolumeID, Description}
  so callers can pin a description (snapshot_test asserts on it). Memo
  key includes description hash so distinct-description calls do not
  silently collide on the volumeID prefix.

* refactor(e2e/single): isolate IAM stage E via parent-scoped cleanup [skip ci]

Bead 3g of e2e-single-fixture-migration.

- harness.Fixture: add RegisterCleanup helper that wraps fx.parent.Cleanup
  so test code can register parent-scoped teardown for resources created
  outside ensureOnce (IAM users / policies threaded across phase
  subtests). Registering on the calling subtest would tear down before
  the next dependent phase ran.
- phaseIAM1_UserCRUD: register parent-cleanup for alice/bob/charlie.
- phaseIAM4_PolicyCRUD: register parent-cleanup for the 5 test policies.
- IAM stage no longer relies solely on phaseIAM7 to clean up after a
  mid-stage failure; phase 7 still runs and now serves as an idempotent
  post-cleanup assertion.

No new Ensure* helper: IAM resources have no memoization story (users
and policies are test subjects, secrets only returned once on create).
IAM phases also have no EC2 prereqs, so EnsureDefaultVPC / EnsureInstance
are not applicable here.

* refactor(e2e/single): drop dead Fixture fields after Ensure* migration [skip ci]

First half of bead 3h. Removes per-phase Fixture fields with zero
remaining readers after bead 3a-3g:

- DefaultVPCID / DefaultSGID / DefaultSubnetID: superseded by
  harness.EnsureDefaultVPC (3a wired phase8b/8c/8d/5f; 3e wired phase5
  + phase8e).
- OVNAvailable: never assigned anywhere — leftover from the bash port.

Phase fields still in use (AMIID, InstanceID, IAM*, etc.) stay until
the umbrella TestSingleNode is replaced with top-level Test* + package-
level fixture singleton in the second half of 3h.

* refactor(e2e): add process-mode Fixture + TestMain singleton infra [skip ci]

Second half of bead 3h. Lands the infrastructure required to dismantle
the TestSingleNode umbrella in a follow-up bead, without changing the
umbrella body today.

harness.Fixture changes:
- NewProcessFixture(aws) builds a Fixture with no *testing.T parent.
  Cleanup callbacks queue on an internal LIFO drained by Close() —
  intended to be invoked from TestMain after m.Run(). Lets a singleton
  fixture span every top-level Test* in a package.
- Existing NewFixture(t, aws) unchanged; cleanups still route via
  t.Cleanup. registerCleanup() and logf() helpers fork on parent==nil
  so ensureOnce and RegisterCleanup work in either mode.
- TestProcessFixture_CloseRunsCleanupsLIFO covers Close ordering,
  one-shot semantics, and the no-op second-Close path.

single/main_test.go additions:
- TestMain owns process-level lifecycle: drains pkgFix.Harness.Close()
  and removes pkgFix.TmpDir after m.Run().
- requireSingleNodeFixture(t) returns the package-scoped singleton,
  building it lazily on first call. Skips when SPINIFEX_E2E is unset
  or mode != single; fails on construction error. Currently
  unreferenced — TestSingleNode keeps its own per-test Fixture for
  now. The helper exists so the follow-up bead (per-phase top-level
  Test* migration) has a stable API to call from day one.

Deferred to follow-up bead: extract Phase 4 AMI-name discovery + Phase
2 InstanceType/AZ selection into harness helpers so each phase function
can self-bootstrap, then promote phase subtests to top-level Test* and
delete the TestSingleNode umbrella.

* fix(e2e/harness): EnsureDefaultVPC filter name is-default not isDefault

Daemon rejects the camelCase `isDefault` form with 400
InvalidParameterValue. AWS CLI / DiscoverDefaultVPC use `is-default`.

Surfaced as Phase 5_LaunchInstance fatal in CI run 26140908505 —
cascade-failed every downstream phase that needed fix.InstanceID.

* fix(e2e/single): phase8 8j/8k probe fix.KeyName not hardcoded test-key-1

Bead 3c migrated phase 3 to harness.EnsureKeyPair which produces a
scratch-suffixed name (e2e-key-<random>), not the literal "test-key-1"
the bash port used. 8j_CreateKeyPairDuplicate / 8k_ImportKeyPairDuplicate
kept the old name and so created a fresh key pair instead of triggering
InvalidKeyPair.Duplicate — surfaced as the only two FAILs in CI run
26143227369 (everything else green after the EnsureDefaultVPC fix).

Read fix.KeyName (set by phase3_KeyPairs) so the probe hits the staged
primary key. Header comments updated to match.

make preflight diff-coverage against origin/dev fails at 57.9% due to
unrelated commits inherited from the recent rebase onto
feat/e2e-go-harness; against the fork base the diff is 0 instrumentable
lines (test-only change).

* refactor(e2e/single): dismantle TestSingleNode umbrella, per-phase self-bootstrap

mulga-siv-121. Each phase from run-e2e.sh now runs as a top-level Test*
in tests/e2e/single, runnable in isolation via `go test -run TestX`.

Highlights:
* TestSingleNode umbrella removed. Phase ordering dropped — each Test*
  self-bootstraps prerequisites through harness.Ensure*/harness.Discover*
  + the new package-local need*/iamEnsure* helpers.
* Fixture shrunk to {Env, AWS, Harness, Artifacts, TmpDir, PoolMode}.
  Every per-phase resource ID now lives on harness.Fixture via
  EnsureKeyPair/EnsureAMI/EnsureDefaultVPC/EnsureInstance/etc.
* TestMain owns the package singleton Fixture; harness.Fixture.Close
  drains every cleanup at process exit. phase9 + phase9a (in-line
  teardown) deleted; phase9b retained as TestFinalClusterStats.
* IAM Test* share state via sync.Once-gated helpers in
  iam_helpers_test.go (alice/bob/charlie users + keys + admin account).
* New harness/discover.go: DiscoverDefaultAZ, DiscoverNanoInstanceType,
  DiscoverUbuntuAMI — memoized on the Fixture and routed through
  EnsureAMI so any Test* can resolve them without phase coupling.
* New tests_test.go: descriptive top-level Test* wrappers
  (TestVPCSubnetE2E, TestKeyPairs, TestSnapshotLifecycle, …) that
  delegate to phaseN_X(t, requireSingleNodeFixture(t)).

* test(e2e/reboot): SSH as ec2-user, dump unit + network-online state

spinifex's cloud-init template hardcodes Username="ec2-user"
(handlers/ec2/instance/service_impl.go:1218) regardless of AMI,
so even on Ubuntu the SSH-injectable account is ec2-user, not
ubuntu. Switch the diag SSH-in to ec2-user so we actually get
in (was "Permission denied (publickey)").

Add diagnostics to distinguish the two leading post-reboot
hypotheses: (a) viperblock write loss = unit file gone vs
(b) network-online.target never fires = unit stuck on
After=network-online.target. New dumps: unit file content +
enable symlink, network-online.target status, networkctl,
ip addr / route, prior-boot journal grep for the responder.

* fix(e2e/single): resolve admin account ID before TestIAM7 deletes alice

iamEnsureAdminAccountID probes via GetUser(alice). TestIAM7_Cleanup
deleted alice/bob/charlie first, then called the helper at line 808 —
NoSuchEntity if IAM7 was the first IAM test to run (no memoized
account ID). Move the call above the deletion loop.
2026-05-20 21:04:13 +10:00
Julian Sommer b2dde0a66d feat: spx admin images remove (#239) 2026-05-20 16:20:09 +10:00
joshsiv-mulga 6142949a49 test(e2e/reboot): pad WAL > 4MB to force chunk upload (workaround for mulga-siv-122)
viperblock's WriteWALToChunk(false) is a no-op when the WAL is under
4MB (viperblock.go:1647-1657), so small user-data writes (the unit
file + index.html, ~300 bytes total) sit in the on-host WAL and are
lost when the host reboots before the WAL hits the threshold.

Workaround: write 8MB of zeros at end of user-data + sync to push WAL
over the threshold so the unit-file write definitely lands in
predastore before the host reboot. Drop when upstream fix lands.

Mirrors the same workaround in the Go reboot test
(tests/e2e/reboot/reboot_test.go on feat/e2e-go-harness).
2026-05-20 15:46:49 +10:00
joshsiv-mulga 560558dd12 fix(elbv2): reset target health to initial on daemon startup
Target HealthState is persisted in JetStream KV but the healthChecker's
per-target counters live only in process memory. After a daemon restart
(host reboot), the counters are gone but the stored 'healthy' claim
remains — DescribeTargetHealth returns 'healthy' immediately even though
zero post-restart health observations have been recorded and the LB VM's
lb-agent hasn't shipped a fresh report yet. Tests that gate on
WaitForTargetsHealthy advance prematurely, then ALB traffic lands on a
backend that isn't actually up (reboot E2E run 26133224853 saw 20/0 burst
instead of 10/10).

Add ELBv2ServiceImpl.ResetTargetHealthOnStartup: scans all TGs, rewrites
every non-draining target's HealthState back to 'initial' with the
matching HealthDesc. Draining is preserved — that state is driven by
DeregisterTargets and must not be clobbered. Wired from daemon
startCluster() right after elbv2 service init, before NATS subscriptions
go live, so first DescribeTargetHealth sees the reset state.

'initial' is the correct AWS-semantics representation of 'we don't know
yet' — the next lb-agent heartbeat drives state forward through the
existing evaluateHealth() path (single healthy probe transitions
initial→healthy, matching fast-start behaviour).

Multi-node caveat documented on the method: a sibling daemon's in-memory
counters would be out-of-sync with the persisted 'initial' state until
its next heartbeat re-converges. Acceptable — converges within one
health-check interval, and round-robin transiently excluding a backend
is safer than serving traffic to a dead one.

Closes mulga-siv-119. Paired with the e2e-side guard on
feat/e2e-go-harness that waits for both backends to actually serve
before the post-reboot burst.
2026-05-20 15:41:55 +10:00
Julian Sommer 739cf082a9 feat: rocky images + RHEL support (#238) 2026-05-20 14:36:41 +10:00
Julian Sommer bec7c382f1 feat: support different checksum format to support RHEL 2026-05-20 13:36:04 +10:00
Julian Sommer 20a8a39608 feat: flip images to UEFI default (#237) 2026-05-20 12:34:51 +10:00
Julian Sommer 78d179c89b feat: support uefi images (#236) 2026-05-20 11:26:28 +10:00
Julian Sommer 2032e1518f fix: golangci-lint config 2026-05-20 10:23:42 +10:00
Julian Sommer c5e65cae38 chore: bump golangci-lint 2026-05-20 10:18:58 +10:00
Julian Sommer 762381adfd chore: add BootMode field 2026-05-20 10:07:12 +10:00
Julian Sommer 85f248be39 chore: bump debian and ubuntu images 2026-05-20 09:48:26 +10:00
joshsiv-mulga 98ed8933d1 Add Ubuntu 26 filter 2026-05-20 09:26:06 +10:00
joshsiv-mulga dcf74b84e0 refactor: strip legacy lb-alpine AMI build path post-microvm-merge
ELBv2 LB instances now boot direct via microvm kernel+initramfs (the
lb-alpine-3.21.6 system AMI is no longer used). Remove the build/import
scaffolding:

- delete scripts/images/lb.conf + lb-setup.sh (system-image bake config)
- remove lb-alpine catalog entry from spinifex/utils/images.go
- drop LB_IMG download + BM_LB_ALPINE_IMAGE env from e2e-baremetal.yml

Tracks mulga-siv-81.
2026-05-19 22:02:00 +10:00
joshsiv-mulga f778508838 test(e2e): dual-detect ubuntu image version (24.04/26.04) during gold-image transition
After mulga gold image bumped to v6-fastboot (stages ubuntu-26.04 / resolute
instead of ubuntu-24.04 / noble), all consumers that hardcoded 24.04 break on
the new image. Make them detect at runtime so v3 and v6 envs both work.

- tests/e2e/run-e2e.sh: DescribeImages filter accepts both
  ami-ubuntu-{26,24}.04-<arch>, then derives IMAGE_NAME from the match.
- tests/e2e/run-pseudo-multinode-e2e.sh: prefer ~/images/ubuntu-26.04.img,
  fall back to ubuntu-24.04.img; pass detected version to spx import.
- .github/workflows/e2e-baremetal.yml: download resolute (26.04) into
  BM_ISO_CACHE; update BM_UBUNTU_IMAGE env var path.
- docs/terraform-workbooks/{bastion-private-subnet,s3-webapp,nginx-webserver}:
  AMI filter matches `*ubuntu-26.04*` OR `*ubuntu-24.04*` (AWS values=
  array is ORed).

Companion mulga changes (bootstrap-install.sh, bootstrap.sh, tofu-iso/*,
baremetal/*, iso-builder/spx-test-gpu.sh) land under bead mulga-siv-114.

Drop the 24.04 fallbacks once all envs are on the v6 gold image and 24.04
entries are removed from spinifex/utils/images.go.

The companion image_test.go fix (walk catalog name candidates) lives on
feat/e2e-go-harness — that test file doesn't exist on dev yet.
2026-05-19 21:42:29 +10:00
Julian Sommer e32b267f18 chore: docs debian 12 -> 13 2026-05-19 15:57:49 +10:00
Julian Sommer dae953e0dc fix: wait for unix socket on qmp client creation (#235) 2026-05-19 15:28:22 +10:00
Julian Sommer 726631e922 fix: regenerate fw_cfg blobs on ALB system VM relaunch (#234) 2026-05-19 14:26:41 +10:00
joshsiv-mulga fcb17db4ab fix(daemon): use numeric uid/gid when creating tap to avoid silent skip
user.Current() can return an error under hardened systemd units / static
builds, causing the user/group flags to be silently dropped on
`ip tuntap add` and leaving the tap root-owned. The child QEMU then
runs as spinifex-daemon, fails the tun_chr_open owner check, and exits
with "could not configure /dev/net/tun: Operation not permitted" before
writing its PID file — the LB microvm never boots and the load balancer
sticks in failed/provisioning state.

Reproduced in E2E nightly cell-17 (single/static/debian-13/tofu-examples)
run 26047315237 on the nginx-alb workbook at commit 4ae2a4a (the
microvm-elbv2 merge that introduced the prior user.Current() fix).

Pass os.Geteuid() and os.Getegid() numerically instead — always available,
no NSS lookup, no silent fallthrough.

Closes mulga-siv-110
2026-05-19 13:16:56 +10:00
Julian Sommer a7a1222495 chore: remove FIPS info log 2026-05-19 10:58:49 +10:00
tomnewton-mulga 86721357cd Merge branch 'dev' of github.com:mulgadc/spinifex into dev 2026-05-19 10:46:06 +10:00
tomnewton-mulga e8ca596083 fix: secret for CF URL endpoint 2026-05-19 10:45:37 +10:00
Julian Sommer cc60104306 chore(ui): deps + accessibility fixes 2026-05-19 10:44:29 +10:00
Julian Sommer 55ceeccf56 test(e2e/reboot): wait for ALB to serve HTTP before post-reboot burst (#233) 2026-05-19 10:06:40 +10:00
Julian Sommer 5887927e9b fix(daemon): republish vpc.add-nat on instance recovery (#232) 2026-05-19 10:05:51 +10:00
Julian Sommer 31cd10dc99 fix: system vm instance metadata (#231) 2026-05-19 10:04:32 +10:00
Julian Sommer 495587304b release: update go.mod for v1.4.0 2026-05-19 09:37:54 +10:00
tomnewton-mulga 01d9fa858f feat: iso release flow (#229) 2026-05-19 09:07:26 +10:00
Josh Siviour 4ae2a4ac53 feat(elbv2): QEMU microvm direct-boot for LB system instances (#228)
* feat(vm): direct-boot foundations + config/input extensions + image build pipeline

vm package (mulga-siv-62):
- Add KernelImage, Initrd, KernelCmdline, FwCfg/FwCfgEntry to vm.Config
- Emit -kernel/-initrd/-append/-fw_cfg args when fields set
- Relax drive invariant: accept kernel image in place of drives
- Add devices.go: IsMMIO predicate, NetDevice/BlkDevice/RngDevice helpers
- Refactor lifecycle.go + network_helpers.go call sites to use helpers
- shutdown.go: os.Remove fw_cfg tmpfiles after QEMU exits
- Add devices_test.go, microvm_test.go; extend vm_test.go

config/input extensions (mulga-siv-63):
- Add MicrovmConfig{ELBv2Enabled, ImagePath} to DaemonConfig
- ImagePath falls back to /usr/share/spinifex/microvm when empty
- Add commented [microvm] section to spinifex.toml template
- Add DirectBoot bool + NICs []NICConfig to SystemInstanceInput

image build pipeline (mulga-siv-64):
- scripts/build-microvm-image.sh: Alpine chroot build producing vmlinuz + initramfs.cpio.gz
- build/microvm/init.sh: fw_cfg-driven PID 1 init (mounts, modprobe, NIC config, lb-agent-env, ca-cert)
- build/microvm/inittab: BusyBox init with lb-agent respawn
- make build-microvm-image target
- setup.sh: install microvm/* to /usr/share/spinifex/microvm/
- .gitignore: exclude built vmlinuz + initramfs.cpio.gz artifacts

* feat(daemon): direct-boot launch path for microvm system instances

When SystemInstanceInput.DirectBoot=true:
- Skip GetAMIConfig and GenerateVolumes
- Build vm.Config directly (no buildBaseVMConfig, no PCIe root ports)
- MachineType=microvm,x-option-roms=off,pic=off,pit=off,rtc=on,acpi=on,isa-serial=on
- Resolve kernel/initrd from Microvm.ImagePath config field
- Serialise NICs to three fw_cfg tmpfiles (netcfg, lb-agent-env, ca-cert)
- Validate exactly one NICConfig.IsDefault=true before writing netcfg blob
- Shutdown path cleans up tmpfiles via existing Config.FwCfg iteration

PC-machine path (DirectBoot=false) unchanged.

Closes mulga-siv-65

* feat(elbv2): wire microvm.elbv2_enabled flag into ELBv2 service

When ELBv2Enabled=true:
- Drop lbVMUserData cloud-config; emit KEY=value LBAgentEnv blob instead
- Set SystemInstanceInput.DirectBoot=true; omit ImageID
- Populate NICs []NICConfig (index 0=primary ENI IsDefault, 1=mgmt, 2+=extra ENIs)
- Validate exactly one IsDefault NIC at service layer

When ELBv2Enabled=false: existing PC-machine path unchanged.

Adds buildLBAgentEnv, buildMicrovmNICs, subnetCIDRForIP, subnetGatewayIP helpers.
Tests in arn_test.go cover both flag-on and flag-off paths.

Closes mulga-siv-66

* test(daemon,vm): add unit tests for direct-boot helpers to meet diff coverage threshold

* feat(daemon): Phase 1 perf instrumentation + e2e runner microvm flag

- Log t1→t2 boot timing via slog on the direct-boot path
- measureQEMURSSMiB helper reads /proc/<pid>/status (tested)
- Gate constants: phase1BootGateMs=500, phase1RSSGateMiB=25
- run-lb-e2e.sh: --microvm flag, dual-path CI annotation, density test note

Closes mulga-siv-67

* fix(build): remove busybox-initscripts — not in Alpine 3.20, not needed

* fix(microvm): end-to-end fixes for direct-boot LB path

Serial output was silent (x-option-roms=off suppresses BIOS serial init);
fixed by removing it from the machine string and using -serial chardev:console0
to attach to the machine-created ISA serial device instead of adding a
duplicate isa-serial device (which would create ttyS1 while kernel uses ttyS0).

virtio-net interfaces were invisible to the kernel because QEMU's
auto-kernel-cmdline does not append virtio_mmio.device= params when -append
is used. Fixed by generating explicit virtio_mmio.device=0x200@0xfebNNNNN:N
params for each NIC in KernelCmdline, and modprobing virtio_mmio + virtio_net
in init.sh.

sys.micro bumped to 512 MiB — 128 MiB caused kernel OOM during initramfs
decompression (~68 MiB uncompressed).

BusyBox init ::respawn: entries do not source or export env files; fixed
inittab to use set -a; . /etc/conf.d/lb-agent; set +a before exec.

wireLBAgentConfig was documented as reading the CA cert but never set
elbv2Service.CACert; lb-agent TLS handshakes to AWSGW failed with
x509: certificate signed by unknown authority. Fixed by reading
d.config.NATS.CACert (same local CA that signs the AWSGW server cert)
and assigning to elbv2Service.CACert so writeFwCfgBlobs writes a
non-empty cacert blob into fw_cfg.

Adds vm_test TestExecute_MicrovmFileChardev and updates lifecycle_test
to assert SerialSocket is intentionally empty on direct-boot VMs.

* fix(build): auto-detect docker/podman when apk unavailable for microvm image build

* fix(build): create /dev/console and /dev/null as proper device nodes in initramfs

tar extraction without root silently demotes device files to 0-byte regular
files (mknod requires CAP_MKNOD). The kernel opens /dev/console when wiring
init's stdio to the serial console; a regular file there causes all init output
to be silently discarded to RAM — the VM appears stuck at 'Run /init as init
process' with no subsequent console output and lb-agent never heartbeats.

Fix: after rootfs population, wipe /dev and recreate console (c 5 1) and
null (c 1 3) via sudo mknod. devtmpfs provides all other devices at runtime
once init.sh mounts it.

* fix(microvm): fix mgmt NIC routing for all LB schemes

Two bugs prevented lb-agent from reaching the AWSGW via the mgmt interface:

1. RouteDst/RouteVia swapped — resolveMgmtRoute returns (gateway, target) but
   buildMicrovmNICs assigned them as (Dst=gateway, Via=target), producing
   'ip route add 10.15.8.1 via 192.168.1.33' instead of the correct
   'ip route add 192.168.1.33 via 10.15.8.1'.

2. NIC[1] MAC and CIDR never filled — the daemon allocates mgmt IP/MAC
   after buildMicrovmNICs returns, but didn't inject them into input.NICs[1]
   before calling writeFwCfgBlobs, leaving NIC1_MAC= empty in the netcfg
   blob and skipping interface setup in init.sh entirely.

Also extends mgmt routing to internet-facing scheme in the microvm path:
VPC SNAT is not reliable across all VPC topologies for control-plane
heartbeats; mgmt is always a direct L2 path to the host.

* feat(microvm): Phase 2 kernel stripping + boot optimisation

- cpu: switch to host,-pmu (disable PMU — not needed in microvm guest)
- machine type: make isa-serial configurable via microvm.isa_serial config
  field; default true (on) preserves console log path
- build: strip unused kernel modules (USB, IDE, ATA, GPU, media, input,
  HID, bluetooth, staging, sound, wireless) from initramfs before cpio
- build: add Phase 2 artifact size gate — fail if vmlinuz + initramfs.cpio.gz
  exceeds MICROVM_ARTIFACT_MAX_MiB (default 50 MiB); override via env var
  during development
- perf: add phase2BootGateMs=300 and phase2ArtifactGateMiB=50 constants
  with canary tests to catch unintentional gate changes
- tests: cover buildMicrovmNICs nil-VPC and extra-ENI paths
- tests: cover microvmMachineType nil/true/false branches

* fix(build): use find-based virtio+fw_cfg module keep-list in initramfs strip

The directory-only keep-list (drivers/virtio, drivers/firmware) missed
virtio_net.ko which lives in drivers/net/, virtio_blk in drivers/block/,
and virtio-rng in drivers/char/hw_random/. Switch to find-based approach:
collect all virtio*.ko* and *fw_cfg*.ko* regardless of subdirectory, then
restore them into their original relative paths under kernel/.

Artifacts now: 42 MiB (vmlinuz 11 MiB + initramfs 31 MiB), gate passes.

* fix(build): keep failover modules in initramfs strip

virtio_net depends on net_failover/failover for live-migration support.
Stripping them left virtio_net with unresolved symbols
(net_failover_create/destroy), so the module failed to load and the
guest came up with only lo. init.sh then skipped every NIC ("no
interface found for MAC ..."), leaving lb-agent with no network path
to AWSGW and the LB stuck in provisioning.

Add *failover*.ko* to the keep-list. Image size unchanged at 42 MiB
(under the 50 MiB Phase 2 gate). ELBv2 e2e now reaches active and
2/2 targets healthy for both ALB and NLB internal LBs.

* fix(daemon): restore slog default after viperblock.New mutates it

viperblock.New unconditionally calls vb.SetDebug, which calls
slog.SetDefault with a TextHandler at LevelError — globally silencing
every slog.Info and slog.Warn in the caller process for the rest of
its life. Discovered while validating microvm Phase 2 (mulga-siv-68):
the daemon stopped emitting Info logs the moment the first customer
VM with volumes launched, hiding direct-boot timing,
LaunchSystemInstance completed, and CreateLoadBalancer completed
lines that we need for boot-time tuning.

Workaround in newViperblock: re-install an Info-level TextHandler on
os.Stderr after each viperblock.New call. Also drop the three explicit
vb.SetDebug(false) calls in prepareRootVolume / prepareEFIVolume /
prepareCloudInitVolume — they were no-ops (viperblock.New already
runs SetDebug internally) and each one re-triggered the global
mutation we are trying to undo.

Proper fix is in viperblock itself — tracked as mulga-siv-70: SetDebug
should not call slog.SetDefault. Until then, this restore call is the
shortest path to getting the daemon's observability back so we can
measure t1_to_t2_ms and tune Phase 2.

Preflight note: golangci-lint not available on this dev host, so the
project preflight target cannot run end-to-end. Verified with
go vet ./spinifex/handlers/ec2/instance/... (clean) and
go test ./spinifex/handlers/ec2/instance/... (pass).

* perf(microvm): hit Phase 2 boot/memory gates

t1→t2 hypervisor: 3224 ms → 264 ms (12×). 128 MiB guest now boots
cleanly without OOM, reverting the temporary 512 MiB bump.

Root causes:

1. build-microvm-image.sh staged the entire chroot into the cpio
   without dropping /boot, embedding a duplicate vmlinuz, Alpine's
   stock initramfs-virt, System.map, and a "boot → ." symlink loop
   (~25 MiB). Decompression peak exceeded 128 MiB. Strip /boot after
   the kernel is copied out, before the cpio. Initramfs drops from
   31 MiB → 11 MiB (53 MiB → 28 MiB uncompressed); total artifact
   42 MiB → 22 MiB.

2. vm/lifecycle.go burned 3 s of fixed sleep on every direct-boot
   launch: 2 s nbdkit pre-exec wait (no nbdkit on direct-boot) and
   1 s post-fork settle (QEMU binds QMP within ~10 ms when there is
   no firmware, ROM, or block layer). Both extracted to
   directBoot-aware helpers — nbdkitPreExecWait collapses to 0, and
   qemuStartSettleWait to 50 ms.

3. KernelCmdline only carried `console=ttyS0 virtio_mmio.device=…`.
   Added boot-time perf flags: quiet loglevel=3 (silence printk over
   115200-baud isa-serial), mitigations=off (KVM guest on trusted
   host, single-tenant LB workload), tsc=reliable, no_timer_check,
   reboot=t, i8042.{nopnp,noaux,nokbd} (microvm has no PS/2).

4. init.sh dropped modprobe virtio_mmio (built-in:
   CONFIG_VIRTIO_MMIO=y) and tightened polling: fw_cfg/iface waits go
   from 10 × 200 ms (up to 2 s) to 5 × 20 ms (up to 100 ms).

Phase 2 gates:
  - t1→t2 ≤ 300 ms       ✅ 264 ms / 281 ms
  - artifact ≤ 50 MiB    ✅ 22 MiB (gate already in build script)
  - ELBv2 e2e green      ✅ 32/33 (pre-existing client-VM failure,
                                   unrelated to microvm path)

* build(microvm): wire build into deploy + distro + release pipeline

Adds install-microvm Makefile target (with grouped-target staleness
detection on vmlinuz/initramfs.cpio.gz), wires it into dev-install.sh
and reset-dev-env.sh, makes 'make deploy' reinstall artifacts when
present, and makes 'make distro-amd64' stage build/microvm/* into the
release tarball staging dir. arm64 distro stays unchanged (no aarch64
microvm artifact yet — Phase 4).

Release workflow gains a setup-go step and a 'make build-microvm-image'
step before 'make distro-amd64' on the amd64 runner so the resulting
tarball includes the kernel + initramfs without a manual copy.

Precursor for the Phase 3 PC-machine LB removal (mulga-siv-69).
Closes mulga-siv-71.

* build(ansible): include microvm artifacts in build role tarball

Adds a build-microvm-image task to the ansible build role and stages
build/microvm/* into the role's release tarball so the install role's
setup.sh run picks them up via INSTALL_SPINIFEX_TARBALL. Skipped
gracefully when the build script is absent (older branches without
direct-boot LB wiring).

* feat(config): enable microvm direct-boot LB path by default

Uncomments the [nodes.<node>.daemon.microvm] section in the generated
spinifex.toml template and sets elbv2_enabled = true so all new
clusters bring up ELBv2 LBs via the direct-boot microvm path. Operators
can opt back to the legacy PC-machine path by flipping the flag to
false in the rendered config.

Required for end-to-end CI on this branch to exercise the direct-boot
path. Existing clusters' configs are unchanged (the template only
affects fresh 'spx admin init' renders).

* fix(microvm): bootstrap apk.static when no host rootfs tool exists

Self-hosted CI runners and the GitHub-hosted ubuntu-24.04 image often
have none of apk, docker, or podman installed. apk-tools is not in the
Debian 13 (trixie) repositories. Without one of these the rootfs build
fails up front with 'no rootfs build tool available'.

When all three are absent, fetch apk-tools-static from the configured
Alpine mirror, extract it to a tempdir, and prepend it to PATH so the
existing native-apk strategy below picks it up transparently. Requires
only curl + tar, both of which are present on every CI runner that can
already check out source.

No-op when apk, docker, or podman is already present.

Unblocks https://github.com/mulgadc/spinifex/actions/runs/25988830244

* revert: drop apk.static bootstrap in build-microvm-image

Reverts 0bd76b7. Self-hosted runners will get docker.io installed
out of band; existing Strategy 2 (docker run alpine:3.20) handles
the rootfs build without host sudo or unsigned package install.

* docs(workbook): drop lb-alpine import for microvm direct-boot LB

LBs now launch via direct-boot QEMU microvm using kernel + initramfs
bundled at /usr/share/spinifex/microvm/, so the legacy lb-alpine system
AMI import is no longer required.

* fix(daemon): own tap devices by daemon user so QEMU can attach without CAP_NET_ADMIN

When the daemon runs non-root (production: User=spinifex-daemon), child
QEMU processes inherit that uid but lack CAP_NET_ADMIN. The kernel's tun
attach check then requires the tap owner uid to match the caller's euid.
Without the `user` flag, `ip tuntap add` defaults to root:root and qemu's
TUNSETIFF fails with EPERM ("could not configure /dev/net/tun: Operation
not permitted").

Surfaced by the e2e-nightly cell-17 microvm LB launch on the ci-pseudo
runner where the kernel enforces strictly; legacy EC2 launches on
ci-single runners happened to attach successfully despite the same code
path. Adding `user $current group $gid` to `ip tuntap add` ensures the
tap is owned by whatever uid the daemon (and its qemu children) run as.
Root daemons skip the flag — they have CAP_NET_ADMIN ambient.

* fix(e2e): redirect lb probe chatter to stderr so stalls are visible

test_http_from / test_tcp_from echoed progress to stdout, which the
callers captured into *_OK vars via $(...). Result: 6+ minute retry
loops ran silently in CI, and the "$ok" comparison never matched
"true" because the captured value contained the full multi-line
chatter. Reachability pass/fail counters were also lost in the
subshell.

Redirect helper output to stderr, leave only the true/false flag on
stdout, and move pass/fail to the caller so they actually count.

* fix(microvm): don't /32 AdvertiseIP via mgmt for internet-facing single-node

buildMicrovmNICs overrode resolveMgmtRoute's deliberate empty return
for the single-node internet-facing case by falling back to
(MgmtBridgeIP, AdvertiseIP). That installed a /32 route to AdvertiseIP
via the mgmt NIC inside the LB microvm. On single-node where the
AWSGW host IP equals the WAN client IP, the /32 also catches reply
traffic for inbound HTTP/TCP to the LB's floating IP — replies leave
via the mgmt NIC with src=data-NIC IP, the host kernel drops the
asymmetric flow, and same-chassis ingress hangs.

resolveMgmtRoute already encodes the correct policy:
  - multi-node any scheme        → explicit MgmtRoute{Gateway,Target}
  - single-node internal         → fallback to (MgmtBridgeIP, AdvertiseIP)
  - single-node internet-facing  → empty (reach AWSGW via VPC SNAT)

Honor it. Matches the legacy lbVMUserData path, whose own comment
flagged the stolen-WAN-return-path symptom this introduced.

Test covers all three branches.

* feat(ansible): dev-deploy playbook for in-place artifact swap

Fills the gap between ansible-dev-install (skips when already installed)
and ansible-dev-reset (full teardown + reinstall + smoketest). Mirrors
Makefile `deploy` target: rebuild + replace binaries and microvm
artifacts on a running node, restart spinifex.target, wait for awsgw.

Skips setup.sh (no user/dir/systemd-unit changes) and smoketest so
iteration is fast. Use ansible-dev-reset when changing systemd units,
helper scripts, logrotate, or setup.sh itself.

Adds:
- roles/deploy/tasks/main.yml — install spx + nbdkit plugin + microvm
  artifacts, with plugindir auto-detection via `nbdkit --dump-config`.
- playbooks/dev-deploy.yml — chains build + deploy roles.
- Makefile ansible-dev-deploy target.
- README playbook table + "when to use which" guidance.

* chore(microvm): remove legacy LB Alpine image build pipeline

Phase 3 microvm removal — strip the PC-machine LB image build
artifacts that direct-boot no longer needs. The microvm initramfs
already carries lb-agent + HAProxy via build-microvm-image, so the
lb.conf manifest, lb-setup.sh chroot script, build-lb-image target,
dev-install / reset-dev-env import steps, and ansible LB-image tasks
all become dead.

build-system-image stays — other manifests (e.g. GPU images) still
use it.

* refactor(microvm): remove legacy PC-machine LB boot path

Phase 3 — direct-boot becomes the only ELBv2 LB launch path.

- Drop SystemInstanceInput.DirectBoot / ImageID / UserData (every LB
  caller set DirectBoot=true; legacy cloud-init userdata is gone).
- Drop ELBv2ServiceImpl.lbVMUserData, systemAMI* fields, SetSystemAMIFunc,
  getSystemAMI, and the lazy-AMI wiring in daemon.startCluster.
- Collapse CreateLoadBalancer to a single direct-boot launch input.
- Collapse daemon.LaunchSystemInstance: drop AMI validation, ImageID
  on RunInstancesInput, UserData base64 encode, GenerateVolumes branch.
  buildDirectBootConfig hardcodes /usr/share/spinifex/microvm and
  isa-serial=on (microvmMachineType no longer takes a flag).
- Drop MicrovmConfig from config.DaemonConfig and the
  [daemon.microvm] section from the spinifex.toml template.
- Prune dead tests (lbVMUserData_*, PCMachine_Unchanged, AMI resolver
  paths) and refresh stale comments that still mentioned lbVMUserData.

ARM hosts have no LB launch path until Phase 4 adds direct-boot on
virt — CreateLoadBalancer on aarch64 fails naturally at QEMU exec.

* docs: drop lb-alpine catalog entry from cluster setup guide

LB system instances no longer use an AMI — direct-boot microvm
artifacts ship in the spinifex package.

* feat(ui): remove LB image import banner + LB-AMI gating

Direct-boot microvm artifacts ship in the spinifex package, so the
LB system AMI no longer exists — the "Load balancer image not imported"
banner and the Create-button disable on the LB list / wizard pages
can never fire. Strip:

- lb-image-missing-banner.tsx component
- hasLbImage / isLbImage / LB_IMAGE_NAME / LB_MANAGED_BY_VALUE from
  system-managed.ts (isSystemManagedImage stays — still used by the
  EC2 Images pages to hide system AMIs)
- Banner gating + ec2ImagesQueryOptions imports from the LB list and
  wizard pages
- The corresponding tests that asserted the banner appears

* revert: restore lb.conf + lb-setup.sh for mulga install pipeline

Phase 3 microvm removal (commit 6313d74) deleted these too early — the
mulga install/iso artifact builders (scripts/tofu-cluster/build-install
-artifacts.sh, scripts/tofu-iso/build-iso-artifacts.sh) still invoke
scripts/build-system-image.sh scripts/images/lb.conf, breaking e2e with
"ERROR: Manifest not found: scripts/images/lb.conf".

Restore both files verbatim so the legacy pipeline keeps building until
the mulga-side migration to microvm-only artifacts lands post-merge.
2026-05-18 15:48:04 +10:00
joshsiv-mulga 35ad76096b fix(daemon): don't fall back to local start on ec2.start forward timeout
The 5s ec2.start.{lastNode} forward timeout was firing before the target
node finished StartStoppedInstance (cold start = volume rehydrate + QEMU
launch + QMP handshake, ~10-20s on a t3a.nano). The forwarding daemon
then fell back to starting the same instance locally, racing the
still-running launch on the original node. Both attempts derive the same
deterministic tap name from the ENI, so the second one fails with
TUNSETIFF: Device or resource busy.

Surfaced on the pseudo-multinode E2E (run 26006933491) where all three
daemons share one kernel and the collision is unavoidable; real
multi-node hides it because separate kernels can each hold the same tap
name without conflict (but the duplicate Run is still semantically
wrong).

Changes:

* Bump startStoppedForwardTimeout from 5s to 30s so it matches the
  awsgw upstream NATS request budget. A slow-but-alive target node
  finishes well within this window.
* Distinguish nats.ErrNoResponders (no active subscriber on
  ec2.start.{lastNode} — node genuinely down) from a timeout or other
  transport error (subscriber existed but didn't respond). Only the
  no-responders case justifies a local-fallback Run; everything else
  surfaces ServerInternal so the caller retries instead of double-
  launching.
* Add an info log on every forward attempt for easier diagnosis.
2026-05-18 12:32:07 +10:00
Josh Siviour 7eff142c34 feat(e2e): bare-metal multi-node cluster support + density-aware guards (#227)
* feat(predastore): support 2-node distributed mode with RS(1,1)

Lower minimum node threshold from 3 to 2. Emit data=1,parity=1 when
exactly 2 nodes configured — effectively mirroring. 3+ nodes continue
to use RS(2,1).

* fix(ec2): route StartInstances back to original node with node-down fallback

ec2.start used a plain queue group, so NATS could route a restart request to
any daemon — including a capacity-constrained NUC that can't fit a second
instance. This caused InsufficientInstanceCapacity in the Phase 10 stop/start
test on 2-node bare-metal clusters where one node has significantly fewer
resources.

Each daemon now also subscribes to ec2.start.{nodeId} (no queue group). The
queue-group handler peeks at the instance ID, looks up LastNode from the
stopped KV, and forwards to ec2.start.{lastNode}. If the original node does
not respond within 5 seconds (down or partitioned), the handler falls back to
starting locally on whichever node picked up the request — preserving the
existing behaviour for node-failure scenarios.

The direct handler (ec2.start.{nodeId}) always starts locally and never
forwards, preventing routing loops.

* fix(ec2): fall back to local start when original node returns InsufficientInstanceCapacity

The forwarding handler was relaying all responses from the targeted node
unconditionally, including InsufficientInstanceCapacity. This meant that if
the NUC (node2) was the LastNode but had no remaining capacity, the error
propagated to the caller rather than falling back to the local node which may
have room.

Now only success and non-capacity errors are relayed; an InsufficientInstance-
Capacity response from the targeted node triggers a local start attempt, giving
any other node in the cluster a chance to absorb the instance.

* test(e2e): make VPC stop/start restart non-fatal on InsufficientInstanceCapacity

Asymmetric hardware (NUC node2) may not have capacity to restart all
VPC instances. IP-persists-while-stopped is still verified and fails
hard; restart verification is skipped with a warning on capacity errors.

* test(e2e): density-aware capacity guard across bare-metal multi-node suite

Sub-3-node bare-metal clusters with asymmetric/undersized nodes (e.g. a
4-vCPU NUC alongside a 16-vCPU box) can fit only one t3.nano on the
smallest node after the daemon's host reserve. Phases that direct or
indirectly land >1 instance on that node hit InsufficientInstanceCapacity
and previously hard-failed the entire suite.

Add is_density_skip helper and skip_test counter, and wrap every
density-sensitive run-instances / start-instances / wait-for-running call
site (phases 3, 5, 7, 10, 11) so capacity exhaustion on sub-3-node
clusters records a SKIP rather than a FAIL. On 3+ node clusters the
guard short-circuits to false, preserving existing failure semantics.

Summary block now prints Skipped count + names so degraded coverage is
visible in CI logs.

Refs: mulga-siv-72

* test(e2e): parameterise lb SSH key + user via PEER_SSH_KEY / PEER_SSH_USER

Allow run-lb-e2e.sh to run against clusters that don't use tf-user with the
tofu-cluster SSH key (e.g. bare-metal nodes which use spinifex@ + bm-ci key).
Defaults preserve existing behaviour on the tofu-cluster CI path.

Refs: mulga-siv-73
2026-05-18 10:18:04 +10:00
joshsiv-mulga 5b3ced92f9 fix(e2e): increase SSH wait timeout and fix console log path for bm
- SSH wait: 60 → 120 attempts; NBD-backed VMs on bare metal take
  longer to boot than tofu-cluster VMs with local storage
- Diagnostic console log: add /run/spinifex/console-<id>.log which
  is where Spinifex QEMU actually writes serial output
2026-05-15 13:18:53 +10:00
joshsiv-mulga ee986fefe6 fix(e2e): remove hardcoded 3-node assumptions from bm multinode test
Replace all literal `2`/`3` node counts with `NODE_COUNT`-derived
expressions so the test runs correctly against any cluster size.

- NATS recovery peer threshold: `>= 2` → `>= NODE_COUNT - 1`
- spx get nodes after recovery: `>= 3` → `>= NODE_COUNT`
- Spread placement: `--count 3` / loop `0 1 2` → `NODE_COUNT`; thresholds updated
- NAT GW step label: static "3 nodes" → `$NODE_COUNT`
2026-05-15 12:48:26 +10:00
joshsiv-mulga 7b755227d5 fix(e2e): NATS peer count expects NODE_COUNT-1 routes not hardcoded 2
/routez reports outbound routes; with N nodes each node has N-1 routes.
A 2-node cluster has 1 route, not 2. Test was written for 3-node tofu
cluster and failed on 2-node baremetal.
2026-05-15 12:41:49 +10:00
joshsiv-mulga f667e2e0a6 fix(e2e): fix unbound variable on 2-node bare-metal cluster
Hardcoded 'for i in 1 2' loops assumed 3+ nodes, accessing NODE_IPS[2]
which doesn't exist on a 2-node cluster. With set -u this is a fatal
unbound variable error. Use seq 1 $((NODE_COUNT-1)) instead.
2026-05-15 12:25:51 +10:00
Julian Sommer de3ef1bb96 fix: extra logging 2026-05-15 11:56:18 +10:00
Julian Sommer 970b3bb58d fix: allow port 80 2026-05-15 11:28:35 +10:00
Julian Sommer d3290be6e7 fix(e2e): use custom security group for alb 2026-05-15 11:03:43 +10:00
joshsiv-mulga 08935ff7e7 fix(e2e): replace guest SSH uptime check with LaunchTime assertion
Phase 8.3 polled VPC instance IPs via two-hop SSH. In single-node macvlan
mode the host has no route to VPC subnets, so SSH always timed out (10 min
of dead retries) even when the VMs were healthy (ALB targets passing health
checks).

Replace with a LaunchTime comparison: the daemon resets LaunchTime to
time.Now() when it relaunches QEMU on recovery, so LaunchTime >= REBOOT_START
is a fast, network-topology-independent reboot confirmation.
2026-05-15 10:33:01 +10:00
Julian Sommer b7a932d6b0 ci(e2e-nightly): target dispatched branch on workflow_dispatch
GIT_BRANCH was hardcoded to dev, so workflow_dispatch runs ignored the
ref chosen in the UI. Use github.ref_name for dispatch (and any non-cron
trigger), keep dev as the explicit target for scheduled cron runs.
2026-05-15 10:00:11 +10:00
joshsiv-mulga beb84b4936 fix(daemon): detect OVN pid file location at runtime
Trixie OVN moved the pid/socket to /var/run/ovn/; older installs
use /var/run/openvswitch/. Probe which exists so the same binary
works on both layouts.
2026-05-15 09:55:34 +10:00
joshsiv-mulga 3037c349a1 fix(installer): skip SPINIFEX_JOIN_ADDR validation when SPINIFEX_SKIP_FORMATION=1 2026-05-15 09:34:55 +10:00
joshsiv-mulga 7042f25861 feat(e2e): add run-bm-multinode-e2e.sh for bare-metal N≥2 node clusters
Bare-metal variant of run-multinode-e2e.sh:
- Accepts 2+ node IPs (not hardcoded 3)
- SSH key/user via PEER_SSH_KEY / PEER_SSH_USER env vars (default: bm-ci / spinifex)
- NODE3_IP optional; node3 survival check skipped when absent

Workflow updated: job renamed to Multi-Node E2E, timeout 60→120 min.
2026-05-14 17:15:17 +10:00
joshsiv-mulga fba2103133 feat(firstboot): SkipFormation flag — bm-bootstrap owns cluster formation
Add SkipFormation bool to firstboot.Config. When set, the cluster
formation block (spx admin init/join) is replaced with a no-op echo,
leaving formation to the provisioning controller.

Wired through: autoinstall reads SPINIFEX_SKIP_FORMATION=1 from env,
install.go passes it to firstboot.Config. spinifex-init.sh parses the
kernel cmdline param and exports it. boot-handler.go hardcodes
SPINIFEX_SKIP_FORMATION=1 so all bare-metal CI nodes skip formation —
bm-bootstrap.sh always runs spx admin init/join with the correct
--nodes N from nodes.json, enabling proper multi-node formation.
2026-05-14 16:57:54 +10:00
joshsiv-mulga 9fd89ec1ad fix(ci): cache lb-alpine image on runner alongside ubuntu, pass to bm-bootstrap 2026-05-14 16:05:53 +10:00
joshsiv-mulga 58c2e18ad1 fix(ci): cache ubuntu-24.04 cloud image on runner, pass to bm-bootstrap
Add a step before the E2E run that ensures the Ubuntu 24.04 noble cloud
image is cached at BM_ISO_CACHE. Downloads from ubuntu.com if missing,
prints cached size if present. Passes path via BM_UBUNTU_IMAGE to
bm-bootstrap.sh which SCPs it to the node for --file import.
2026-05-14 16:02:15 +10:00
Julian Sommer 0dc0daf116 feat: use FIPS compliant cryptography (#225) 2026-05-14 15:42:53 +10:00
joshsiv-mulga 26c2c9fa49 fix(setup): replace /dev/stdin in tmpfiles.d write to work without /dev mount in chroot 2026-05-14 15:01:14 +10:00
Julian Sommer f7efc69344 feat: disable api termination (#224) 2026-05-14 14:35:00 +10:00
joshsiv-mulga 8841241541 fix(setup-ovn): del-port cleanup without bridge name to avoid error on first run 2026-05-14 14:30:40 +10:00
joshsiv-mulga 7859d9610b fix(ci): write bm-ci key to RUNNER_TEMP and derive .pub for bm-bootstrap 2026-05-14 14:01:22 +10:00
joshsiv-mulga 7d25b04532 fix(installer): fire install callback before reboot to clear PXE flag 2026-05-14 12:34:56 +10:00
joshsiv-mulga 7dd3af3848 revert(installer): undo grub-install changes that introduced PXE boot loop
The --no-nvram flag removed the UEFI NVRAM boot entry, causing firmware to
fall through to PXE on every reboot. Restore original --recheck behaviour
which was confirmed working in manual testing.
2026-05-14 12:34:56 +10:00
Julian Sommer 54a1c29ed5 feat: test cleanup (#223) 2026-05-14 11:40:09 +10:00
Julian Sommer 89ddd06846 chore: update COMMANDS.md 2026-05-14 10:46:45 +10:00
Julian Sommer 4bf7a73feb feat: DescribeSecurityGroupRules (#222) 2026-05-14 10:44:43 +10:00
joshsiv-mulga cc157e97f9 fix(installer): skip fs-probe and nvram in grub-install to prevent eMMC scan hang
grub-probe scans all block devices even without --recheck. On N100 mini-PCs
with eMMC + NVMe, scanning the eMMC causes grub-install to hang. Also skip
NVRAM writes (--no-nvram) since --removable installs to the default EFI path
without needing to register a boot entry in UEFI firmware variables.
2026-05-14 09:37:43 +10:00
joshsiv-mulga fa5919fc14 fix(installer): remove --recheck from grub-install to prevent device scan hang
--recheck triggers grub to rescan all block devices. On N100 mini-PCs with
eMMC + NVMe, scanning the eMMC causes grub-install to hang indefinitely.
Device maps are generated fresh on each install so --recheck is redundant.
2026-05-14 08:47:06 +10:00
joshsiv-mulga f8d025d07e fix(installer): disable os-prober to prevent update-grub hang on multi-disk hardware
On N100 mini-PCs with eMMC + NVMe, update-grub's os-prober probes all
block devices via the bind-mounted /dev, hanging indefinitely on the eMMC.
GRUB_DISABLE_OS_PROBER=true skips os-prober in the chroot.

Also apply modernize lint fixes to vm test files (atomic.Int32).
2026-05-14 08:10:01 +10:00
joshsiv-mulga 38373b2fc7 fix(ci): generate epdu.env from secrets instead of pre-placed file 2026-05-13 16:14:06 +10:00
joshsiv-mulga e615d6f9e6 fix(ci): remove BM_SKIP_EPDU now that ePDU SNMPv3 is provisioned 2026-05-13 16:05:35 +10:00
Julian Sommer 97701737cb feat: describe instance status (#221) 2026-05-13 15:55:20 +10:00
joshsiv-mulga a31fd8098c fix(ci): use sudo to clean workspace so root-owned rootfs cache is removed
The build-rootfs step creates root-owned files in the workspace; a plain
rm -rf fails with permission denied on the next run's Clean Workspace step.
2026-05-13 14:25:51 +10:00
Julian Sommer c19f823d1e fix: unblock DHCP under narrow-egress SGs 2026-05-13 13:40:50 +10:00
Julian Sommer 7c08c62e0d chore: increase tofu e2e logging 2026-05-13 12:28:11 +10:00
Julian Sommer a08d9b8b99 feat: UI bug fixes (#220) 2026-05-13 12:12:43 +10:00
Julian Sommer 8d1258e4b7 fix: tofu e2e 2026-05-13 11:54:58 +10:00
Julian Sommer e80f1579d7 chore: delete no op config migrations 2026-05-13 11:52:24 +10:00
Julian Sommer 64b636cf5a feat: daemon and vm tests (#218) 2026-05-13 11:46:20 +10:00
tomnewton-mulga 43fa6eae59 feat: Updated GPU-Passthrough - AMD support, GPU images, /demo folder (#217)
* feat: add GPU fields to NodeStatus and spx top nodes (mulga-996)

- Add TotalGPUs/AllocGPUs to NodeStatusResponse (zero on non-GPU nodes)
- Populate from gpuManager in handleNodeStatus
- Show GPU (used/total) column in spx top nodes; "-" when no GPUs present

* Fixed GPU passthrough and added test script

* feat: always-probe GPU at startup, surface capability in NodeStatusResponse

- Add gpuProbeResult struct and probeGPU() which runs at daemon startup
  regardless of gpu_passthrough config. Checks sysfs for GPUs, IOMMU
  groups, and vfio_pci module presence.
- Store gpuProbe on Daemon struct; split NewDaemon into probe (always)
  and activate (opt-in) phases.
- Populate GPUCapable, GPUPassthrough, GPUModels on NodeStatusResponse
  so operators can see hardware state before enabling passthrough.
- Update 'spx top' GPU column: '-' = no hardware, '0/N*' = capable but
  passthrough not active, 'used/total' = passthrough active.

* feat: SIGHUP hot-reload for GPU passthrough config (mulga-1001)

- Export GenerateGPUTypes for use by the reload path
- Add ResourceManager.reloadGPUTypes: mutates instanceTypes map in-place
  (preserves references held by instanceService) and updates NATS
  subscriptions without full daemon restart
- Separate SIGHUP from SIGTERM/SIGINT: setupReload() listens for SIGHUP
  in a context-aware loop; setupShutdown no longer intercepts SIGHUP
- Add reloadConfig() + applyGPUConfig(): re-reads spinifex.toml on signal,
  handles false→true (re-probe + activate) and true→false (refuse if
  instances running, otherwise deactivate) transitions

* installer grub image fixes

* made gpu-passthrough more user facing

* vpcd fixes to set br-wan to promisc for public IP DHCP processes

* fixed vpcd br-wan promisc and veth pair

* ssh keygen fix

* Fix: AMD GPU edge cases

* script for running 8x instances on SMCI computer

* fix: increase disk space on instances

* feat: multi-GPU passthrough support for g7e.12xlarge (2× MI350X)

- vm.VM: GPUPCIAddress string → GPUPCIAddresses []string for multi-GPU
- instancetypes: add g7e.12xlarge (2 GPUs), GPUCountForType(), AMDmi350x model
- instancetypes/generate: use GPUCountForType for GpuInfo.Count and TotalGpuMemoryInMiB
- gpu/manager: Release() loops all pool entries for instanceID (not just first)
- vm/lifecycle: loop over GPUPCIAddresses, emit gpu0/gpu1/... QEMU devices
- daemon/handlers: claim N GPUs in loop for both RunInstances and StartStoppedInstance
- daemon/vm_adapters: ReclaimByAddress loops GPUPCIAddresses; ReleaseGPU checks len > 0
- scripts/launch-gpu-fleet: fixed fleet — 6× g7e.4xlarge + 1× g7e.12xlarge

* feat: per-instance-type disk size in GPU fleet (300 GB single, 600 GB dual)

* fix: multi-gpu instance types

* fix: kill QEMU synchronously when QMP handshake fails to free VFIO device

When startQEMU succeeds but newQMPClientWithHandshake times out, the
instance has not yet been inserted into the manager map so vmMgr.Delete
in the rollback path is a no-op. QEMU keeps running and holds the VFIO
group open. The GPU pool entry gets freed, the next Claim returns the
same PCI address, and every subsequent QEMU fails with 'device or
resource busy'.

Fix: SIGKILL QEMU and wait for it to exit before returning the QMP
error, ensuring the VFIO device is released before the caller recycles
the GPU pool slot.

* fix: quarantine GPU after QEMU launch failure to prevent re-assignment cascade

When QEMU crashes during startup (e.g. pci_irq_handler assertion on a
specific GPU), the pool Release frees that address and the next NATS
request immediately re-claims the same broken device. Add MarkFailed()
to gpu.Manager which sets Available=false for a PCI address after a
launch failure, preventing re-assignment until the daemon restarts.

Call MarkFailed for each GPU address in both RunInstances and
StartStoppedInstance rollback paths after the Release succeeds.

* fixed instance fleet launch script

* remove known hosts and stagger provisioning

* improvements to launch script

* more upgrades

* single instance gpu instance provisioning

* fixed single instance provision

* smci computer demo dashboard

* fixes to launch script

* updated smci dashboard_server

* fixed demo dashboard

* updated dashboard.py

* feat: GPU Passthrough fixes to passthrough process - builds proper AMD or NVIDA ready images, generalised launch script

* feat: gpu-passthrough updating image builder to include gpu-ready ubuntu images

* fixing image builder process

* fixed image builder to remove /tmp/ file before import to free space

* fix: Updated COMMANDS.md to reflect new GPU management admin commands

* Update docs, update internal launch script to work with new SGs, test tweaks

* Updated Docs, fixed internal launch-gpu.sh script, test tweaks

* fxing CI race due to GPU load
2026-05-13 11:07:13 +10:00
Julian Sommer 352eb164c1 chore: add new tests 2026-05-13 11:02:03 +10:00
Julian Sommer 4e5d7b0a13 fix: pass security groups to load balancer 2026-05-13 10:24:38 +10:00
Julian Sommer 32ae9d190e fix: tolerate ipv6 security group revoke (#215) 2026-05-13 09:44:41 +10:00
Julian Sommer aaa208b594 fix: use dev for build and test 2026-05-13 09:02:30 +10:00
Julian Sommer 85ff73ba9d chore: fix diff-coverage 2026-05-13 09:00:17 +10:00
Julian Sommer 4567f258ae chore: enable more oxlint rules 2026-05-12 17:01:34 +10:00
Julian Sommer fe59017cbb release: update go.mod for v1.3.0 2026-05-12 16:12:38 +10:00
Bryn Mailer 50eea38066 feat(predastore): aes 256 encryption at rest
Sibling changes in Spinifex to support changes made to Predastore in this PR.
2026-05-12 16:06:16 +10:00
Josh Siviour 45555dde49 test(ddil): flip Scenarios A/B/C to real assertions (#205)
* test(ddil): flip Scenarios A/B/C to real assertions

Replaces the t.Skip stubs landed in #204 with the assertions described in
docs/development/improvements/ddil-e2e-test-harness.md §3:

- A NATSKill — KillNATS on node3, assert ModeStandalone within 30s,
  /local/instances still serves on the isolated node, majority /health
  on node1+node2 stays up, witness counters on all three nodes keep
  advancing, snapshot survives reconnect.
- B DaemonRestartWithoutNATS — KillNATS + RestartDaemonOnly, assert
  ModeStandalone within 30s of restart, recovered instances present
  with live QEMU PIDs, cluster rejoin after StartNATS. Strict pre/post
  PID equality dropped — see file comment; recovery + a non-zero PID
  give the same regression coverage without coupling to the daemon
  unit's KillMode.
- C CleanPartition — PartitionNode peer-IP DROP, majority daemons keep
  serving /health and /local/instances, isolated node3 reports
  ModeStandalone with /local/* responsive, witness counter on the
  partitioned side keeps advancing, heal converges and snapshot is
  preserved.

Supporting changes:
- harness/daemon_client.go — daemonPort 8443→4432; 8443 is predastore,
  the deployed daemon ClusterManager binds [nodes.<id>.daemon].host.
  The Phase-1 stub used a placeholder that would have blocked any
  /local/* assertion against the real cluster.
- harness/witness.go — export WitnessVM.Terminate so scenarios can
  clean up their counter VMs from t.Cleanup.
- scenarios/main_test.go — requireLiveCluster + launchWitnesses
  helpers to keep the three flipped scenarios tight.
- TEST_COVERAGE.md — A/B/C status flipped SKIPPED → ENABLED;
  TestCoverageDrift continues to enforce alignment with the package.

Validation: built with -tags=e2e, dry-run scenarios pass, coverage
drift passes, preflight clean. workflow_dispatch e2e-ddil.yml against
tofu cluster is the next step.

* fix(ddil): countDropRules — single iptables -S call + filter

Phase 1's countDropRules ran `iptables -S INPUT -S OUTPUT` to grep DROPs
across both chains, but iptables -S takes a single optional chain — the
second -S errors to stderr, the combined SSH buffer poisons the grep
input, and Atoi fails ("ip" is what we saw on tofu-cluster). Hit by
TestHarnessSmoke and every flipped scenario (A/B/C) via AssertCleanState.

Switch to one `iptables -S` (lists every chain in iptables-save format),
filter for INPUT/OUTPUT lines, count `-j DROP`. `2>/dev/null` silences
sudo/iptables stderr so a noisy MOTD or warning cannot leak into stdin.
Error path now also surfaces the raw SSH output for the next time this
breaks somewhere unexpected.

* ci(e2e-ddil): export spinifex AWS creds for witness SDK

The witness EC2 client (harness/witness.go NewWitness) calls
session.NewSession with no static credentials, so the AWS SDK falls
through its default chain — env vars → shared profile → IAM role —
and on the CI runner none of those exist. Result on the live cluster:
"NoCredentialProviders: no valid providers in chain. Deprecated."
launches every Scenario A/B/C attempt straight to t.Fatal at
launchWitnesses.

spx admin init writes [spinifex] aws_access_key_id /
aws_secret_access_key to the operator's ~/.aws/credentials on node1
during bootstrap. Pull them over SSH and export as
AWS_ACCESS_KEY_ID / AWS_SECRET_ACCESS_KEY so the SDK's env-var step
resolves before it gets to the empty profile/IAM checks. Hard-fail
the step if either field is missing — better than silently watching
every scenario t.Fatal on the same line.

* fix(ddil): CI green-up — instance-type discovery, gotestsum, EC2 envelope

Three fixes to take the DDIL E2E suite from "scenarios flipped" to actually
green on the tofu cluster. mulga-siv-56.

1. Witness auto-discovers the smallest registered instance type
   (DescribeInstanceTypes, sort by memory then vCPUs). The hard-coded
   t2.micro default returned InvalidInstanceType on every Scenario A/B/C
   launch because the cluster doesn't register that type. DDIL_WITNESS_-
   INSTANCE_TYPE stays as an operator override.

2. e2e-ddil.yml uses gotestsum so the Actions UI shows per-test PASS/FAIL/
   SKIP lines instead of a JSON wall. results.json artifact preserved for
   future flake-rate dashboarding.

3. GenerateEC2ErrorResponse emits the real EC2 query-API envelope
   <Response><Errors><Error>... instead of the IAM-shaped <ErrorResponse>.
   aws-sdk-go v1's ec2query handler rejects the latter with
   SerializationError and drops the code, leaving Go callers without an
   awserr.Code() to inspect. New SDK round-trip test in gateway_test.go
   guards the regression.

* ci(e2e-ddil): install gotestsum from prebuilt tarball

`go install gotest.tools/gotestsum@v1.12.0` failed on the self-hosted
runner because v1.12.0 pulls golang.org/x/tools v0.19.0, whose
tokeninternal static-assert pegs a narrow Go window (~1.22). Both older
and newer runner Go versions trip `invalid array length -delta * delta`.
A prebuilt linux_amd64 binary sidesteps toolchain coupling entirely
without changing the gotestsum version pin.

* ci(e2e-ddil): collect cluster logs on failure

Witness `findHost` is currently failing with "could not locate QEMU host
for i-XXX across 3 nodes" — daemon reports running but no QEMU fork is
visible on any node. Cluster gets destroyed during teardown, so logs
have to be pulled before that runs.

Adds a failure-only step that ssh's each node and bundles
journalctl spinifex-*, process listings, and state dirs into the
ddil-results artifact for offline triage.

* fix(ddil): support tap-mode QEMU networking in witness harness

findHost no longer extracts hostfwd port — production launches go through
auto-allocated ENI on the OVS bridge and emit `-netdev tap,...`, never
hostfwd. Witness was timing out across all 3 nodes.

Discover guest IP via DescribeInstances.PrivateIpAddress (populated by
PrepareRunInstances on ENI auto-create) and tunnel SSH through the host
node to guestIP:22. Host routes to the tap bridge subnet, so the relay
works without runner-side bridge routing.

WitnessVM.SSHPort → WitnessVM.GuestIP. hostfwdPortRE removed.

Closes mulga-siv-57.

* fix(ddil): SSH witness via public IP, drop unreachable tunnel path

tofu-cluster bootstraps with --external-mode=pool which forces
dev_networking=false → no QEMU hostfwd dev NIC and no host route to the
ENI's PrivateIpAddress (tap on OVS br-int, 172.31.0.0/16 invisible to
host kernel). Previous tunnel-via-host fix could find the host but
couldn't dial the guest.

Switch to the path shell e2e already uses: default subnet has
MapPublicIpOnLaunch=true, daemon auto-allocates an EIP from the external
pool, and the runner reaches that IP via the same WAN subnet as the
cluster nodes. No host relay required, survives Scenario C (partition
only DROPs peer cluster IPs, not the runner's source IP).

Workflow now scp's ~/.ssh/spinifex-key from the primary node (the
counterpart to the public material bootstrap-install.sh imports) and
exports DDIL_GUEST_SSH_KEY so the harness can auth as ubuntu against
cloud-init's authorized_keys.

WitnessVM.GuestIP → WitnessVM.PublicIP. hostSigner / dialHost removed.

Continues mulga-siv-57.

* fix(ddil): tunnel guest SSH through host node

EIP from MapPublicIpOnLaunch sits on the cluster's external pool subnet,
which is OVN-routed — reachable from any cluster node, not from the
off-cluster runner sitting on the DDIL_NODES WAN subnet.

Restore the host-jump pattern: SSH the hosting node (already known from
findHost), dial publicIP:22 over that connection, run a guest SSH
handshake over the tunnel. Symmetric with how shell e2e reaches guests
from inside a node.

Continues mulga-siv-57.

* fix(ddil): wait for witness sshd before baseline read

Previous run reached the guest EIP via the host tunnel but hit
'Connection refused' — sshd hadn't bound yet. waitForRunning only
checks EC2 state, which flips on QEMU start, not cloud-init completion.
The OVN dnat_and_snat rule for the auto-allocated EIP is also written
asynchronously, so the tunnel can land before either layer is ready.

awaitGuestSSH polls the host-tunnelled SSH handshake to publicIP:22 for
up to 90s, retrying on transient transport errors (refused/reset/EOF/
timeout/no-route) and failing fast on auth errors so a bad key surfaces
immediately. Called once after resolvePublicIP, before the baseline
counter read.

Continues mulga-siv-57.

* fix(ddil): case-insensitive transient SSH error match

awaitGuestSSH's retry matcher used lowercase substrings, but x/crypto/ssh
emits "ssh: rejected: connect failed (Connection refused)" with capital
C — strings.Contains returned false and the helper bailed on first
attempt instead of polling. Last run failed in 49s, not the 90s budget.

Lowercase the error before matching, and add "connect failed" as the
canonical signal for "jump host dial through tunnel failed".

Continues mulga-siv-57.

* fix(ddil): default guest SSH user to ec2-user

Shell E2E SSHes the same ami-ubuntu-* images as ec2-user
(tests/e2e/run-multinode-e2e.sh:650). DDIL harness defaulted to ubuntu
and hit 'unable to authenticate, attempted methods [none publickey]' —
authorized_keys is provisioned under the AMI default account, which is
ec2-user, not ubuntu.

Continues mulga-siv-57.

* fix(ddil): wait for witness-counter.service to seed /var/lib/counter

awaitGuestSSH passed at sshd-up, but cloud-init's runcmd that enables
witness-counter.service runs in the final cloud-init stage — after sshd
binds. Baseline read landed in the window where sshd accepts but
ExecStartPre hasn't created /var/lib/counter:

  cat: /var/lib/counter: No such file or directory

Collapse awaitGuestSSH + readCounter into awaitBaseline that polls the
full path (tunnel + SSH handshake + cat) and retries on the transport
errors plus "no such file or directory". Single 2-minute budget covers
cloud-init final stage on tofu-cluster hardware.

Continues mulga-siv-57.

* fix(systemd): drop Wants=spinifex-nats from daemon unit

Wants= reactivates a stopped unit on `systemctl restart`, so a deliberately
killed spinifex-nats was getting pulled back up the moment the daemon
restarted — masking the DDIL Tier 1 standalone-startup path and breaking
the Scenario B assertion (mulga-siv-58). Cold-boot coverage stays intact:
spinifex.target's Wants= activates every spinifex unit on boot. After=
remains for ordering and is non-blocking when NATS is absent.

scripts/test-ddil-phase1.sh hit the same trap and worked around it with a
runtime drop-in plus sentinel file; the fix here makes that workaround
unnecessary for any caller that restarts the daemon while NATS is stopped.

* feat(daemon): peer-health probe drives standalone mode on partition

Mode() is now derived from two atomic signals — natsConnected (NATS client
TCP link, flipped by the existing disconnect/reconnect callbacks) and
peersReachable (any peer daemon's /health responded in the most recent
probe cycle). Reports cluster iff both are up; standalone otherwise.

The peer-health probe is the missing signal for DDIL Scenario C: an iptables
DROP between peer IPs blocks NATS cluster-routing traffic but leaves each
node's local NATS client TCP connection healthy, so nats.Conn.IsConnected()
keeps returning true and onNATSDisconnect never fires. The probe dials each
peer's /health over the cluster network with a 2s timeout on a 2s ticker;
worst-case detection of total partition is ~6s on a 3-node cluster, well
inside the 30s Scenario C budget. Single-node clusters keep peersReachable
permanently true (nothing to probe) so the derived mode flips to cluster as
soon as the local NATS connect succeeds.

The probe runs from startLocal so the partition signal exists even before
(or in the absence of) a successful NATS connect. It does not touch NATS or
JetStream, so the §1e Tier 1 invariant asserted by
assertNoClusterServicesInitialised is unaffected.

Tests:
- TestMode_RequiresBothSignals — every nats×peers combination.
- TestProbePeersOnce_FlipsOnHealthChange — deterministic probe-only test.
- TestProbePeerHealth_RejectsBadAddr — fails closed on missing addresses.
- TestMonitorPeerReachability_EndToEnd — ticker-driven false→true.

Closes mulga-siv-58.

* fix(daemon): peer probe falls back to local daemon port

`spx admin init` only renders `[nodes.<self>.daemon]` in spinifex.toml;
remote-node blocks carry just `host = "<ip>"` with no daemon sub-table.
So `peer.Daemon.Host` was always empty in a deployed cluster and the
probe failed closed, leaving peersReachable permanently false.

Tofu-cluster run 25665158964 surfaced this as a Scenario A regression:
after StartNATS, natsConnected flipped true on reconnect but Mode()
stayed standalone because the derived signal required peersReachable.
`a_nats_kill_test.go:75: node3 did not return to cluster mode … (still
reporting another mode)`.

Add peerDaemonPort(p) that prefers an explicit peer Daemon.Host port
when present and otherwise reuses the local daemon's port (clusters are
symmetric — every node binds the same port the template renders). New
TestPeerDaemonPort_FallbackToSelf covers both branches plus the no-port-
available case; TestProbePeerHealth_RejectsBadAddr is updated to clear
self config so it still asserts the fail-closed path.

* fix(daemon): SIGTERM preserves VMs + KillMode=process on the unit

DDIL Scenario B asserts that `systemctl restart spinifex-daemon`
preserves every guest VM so the new daemon can reattach via the
persisted local state file. The previous setupShutdown SIGTERM handler
called vmMgr.StopAll(), gracefully QMP-powering-down every guest before
the daemon exited — ~90s wall-clock and zero surviving QEMU on the
other side. CI run 25666369604 surfaced this as
`recovered instance i-... has no live QEMU PID`.

Two changes restore the Tier 1 contract:

- setupShutdown no longer calls StopAll. It still flips d.shuttingDown
  so crash/restart handlers bail out, persists state, unsubscribes from
  NATS, and exits. VMs are only stopped when coordinated cluster
  shutdown drains them — handleShutdownDrain still calls StopAll and
  flips the flag before the SIGTERM path runs. Operator-visible
  behaviour change: `systemctl stop spinifex-daemon` leaves guest VMs
  running. To stop VMs, use the cluster-shutdown topics or terminate
  via the AWS API.

- The systemd unit gains `KillMode=process` so systemd only signals the
  daemon's main PID. With the default control-group mode, QEMU
  children were killed when systemd tore down the daemon's cgroup —
  defeating the SIGTERM change above. `TimeoutStopSec=15` bounds the
  new fast-exit grace window.

Also nil-guards natsConn.Close in the shutdown path: when a daemon
restarts while NATS is unreachable (Scenario B), natsConn is nil and
the close would panic.

Mulga-siv-58 (reopened).

* fix(vm): QEMU stdout/stderr to shared log file (SIGPIPE survives daemon restart)

QEMU stdout/stderr were piped to daemon-side scanner goroutines.
When the daemon exits (e.g. `systemctl restart spinifex-daemon`),
the pipe read ends close; QEMU's next write triggers SIGPIPE and
the guest dies — defeating DDIL Scenario B's "daemon restart
preserves running instances" guarantee.

Open `<runtimeDir>/qemu.log` and assign it to cmd.Stdout/cmd.Stderr
instead. The FD is dup'd into QEMU at fork, so closing it on the
daemon side after Start() leaves QEMU writing into the file
indefinitely. POSIX O_APPEND makes concurrent QEMU writes
interleave atomically per line, so a single shared log is safe and
avoids per-instance clutter in RuntimeDir.

Trade-off: QEMU lines no longer land in journalctl -u
spinifex-daemon. Operators inspect <runtimeDir>/qemu.log directly
(path logged at instance start under the qemu_log field).

mulga-siv-58 (DDIL Scenario B iteration 4)

* fix(daemon): pin XDG_RUNTIME_DIR=/run/spinifex; revert SIGPIPE workaround

Root cause of Scenario B's "no live QEMU PID" was not SIGPIPE — QEMU
ignores SIGPIPE (SIG_IGN set early in QEMU init). It was systemd's
`PrivateTmp=yes` on the daemon unit combined with `utils.pidPath()`
falling through to `os.TempDir()` (=/tmp):

- spinifex-daemon HOME=/var/lib/spinifex/spinifex, so
  `$HOME/spinifex` (=/var/lib/spinifex/spinifex/spinifex) does not
  exist and pidPath() returns /tmp.
- Every daemon start gets a fresh private /tmp namespace. QEMU stays
  in the OLD namespace after the daemon dies (mount namespaces aren't
  changed by reparenting). The new daemon's /tmp is empty.
- `/local/instances` reads `<pidPath>/<id>.pid`; in the new namespace
  the file doesn't exist, so PID=0.

Fix: set `Environment=XDG_RUNTIME_DIR=/run/spinifex` on the daemon
unit. /run/spinifex is host-wide tmpfs (declared via tmpfiles.d,
already in ReadWritePaths) and survives daemon restart. pidPath()
short-circuits on XDG_RUNTIME_DIR, so QEMU pidfiles, QMP sockets, and
RuntimeDir() all resolve to the stable path. Both daemon incarnations
and QEMU children see the same files.

Revert iteration 4's pipe→file QEMU log change (commit 8a9a6f9f).
SIGPIPE was never killing QEMU, and the file-redirect dropped QEMU
lines from `journalctl -u spinifex-daemon` for no gain.

mulga-siv-58 (DDIL Scenario B iteration 5)

* feat(daemon): siv-60 heal reconcile — phase 1 (probe-heal trigger) (#211)

* feat(daemon): wire reconcileOnHeal on peer-probe heal edge (siv-60 phase 1)

Scenario C heal triggered zero resync: the local NATS client stayed
connected to its loopback server throughout the partition, so
onNATSReconnect never fired. The peer-probe false→true transition was
the only heal signal but had no resync action wired to it.

Adds reconcileOnHeal, called from both edges and coalesced via a
reconciling atomic.Bool so the two callbacks landing on the same heal
don't double-push. For phase 1 the body is the existing WriteState
(re-asserts our per-node row in the instance-state KV). Phase 2 will
extend it to pull KV → merge → push for the stopped/terminated buckets
and re-fire per-node bootstrap.

Plan: docs/development/feature/ddil-heal-reconcile.md

* feat(daemon): siv-60 phase 2 — idempotent default-VPC bootstrap re-fire on heal

Calls ensureDefaultVPCInfrastructure() from reconcileOnHeal after the
WriteState push. Idempotent: each branch (default VPC lookup, IGW
attach, default-SG create, default route insert) checks for existing
infrastructure before creating. Covers the failure mode where
startCluster ran during partition and the initial creates returned
errors against an unreachable NATS — without a heal-time retry the
cluster would be stuck without a default VPC until the next daemon
restart.

Scope note: the bead's "pull KV → merge → push" assumed the daemon
cached peer-node running state, stopped instances, terminated
instances, and VPC/IGW/SG state locally. The codebase audit (see plan
doc) confirms it doesn't — every consumer reads its KV bucket fresh
per request, and vmMgr only tracks VMs running on this node. The
bootstrap re-fire is the one heal-time action that has a real
in-memory target. Watchdog sweep is unnecessary because
vm.Manager.CrashHandler is event-driven from cmd.Wait().

* fix(daemon): drop ensureDefaultVPCInfrastructure from reconcileOnHeal (siv-60 follow-up) (#212)

* fix(daemon): drop ensureDefaultVPCInfrastructure from reconcileOnHeal

DDIL Scenario C regressed at the witness-SSH step after siv-60
landed in #211. Root cause: the first peer-probe tick on multi-node
startup flips peersReachable false→true (its zero value is false), so
reconcileOnHeal fires concurrently with startCluster's own
ensureDefaultVPCInfrastructure call. The Describe→Create→Attach
sequence is not cluster-wide singleton, so multiple daemons + double
calls per daemon raced and produced duplicate IGW attachments,
corrupting default-VPC routing — which broke the witness VM's tunnel
SSH path once Scenario C's partition was installed.

Phase 1 (the heal trigger + coalescing) is the meaningful fix and
stays. Phase 2's bootstrap re-fire needs leader election or a
debounce against the startup-time path before being re-introduced;
leaving an inline NOTE so the next attempt has the context.

Failed run: actions/runs/25706585637 (Scenario C, attempts 1+2).
Last green DDIL run: 25671044714 (pre-merge, SHA 40e3d847).

* fix(daemon): init peersReachable=true to suppress startup heal edge

DDIL Scenario C kept flaking at attempt-1 even after dropping the
bootstrap re-fire. Remaining trigger: peersReachable starts as the
zero value (false) on multi-node clusters, and the first probePeersOnce
tick flips it false→true. That counts as a "heal" edge under siv-60
phase 1, so reconcileOnHeal fires at boot — concurrent with
startCluster's bootstrap — perturbing timing in a way that the
harness's Scenario C exposes (witness sshd handshake EOF mid-test).

Initialise peersReachable optimistically. Mode() also requires
natsConnected (starts false), so the optimistic peer init can never
falsely report cluster mode — but it does eliminate the spurious
startup edge. Real partition→heal transitions still fire the trigger
exactly as designed: true→false on partition, false→true on heal.

---------

Co-authored-by: Julian Sommer <115516918+juliansommer@users.noreply.github.com>
2026-05-12 15:56:17 +10:00
Julian Sommer 23c26d8202 feat: enable no floating promises (#214) 2026-05-12 15:40:25 +10:00
Julian Sommer 069e6d411a fix: continue using ubuntu 24 image in workbooks 2026-05-12 15:09:53 +10:00
Julian Sommer dc3b48f17e feat: security groups enforcement (#201) 2026-05-12 14:16:50 +10:00
Julian Sommer bb08335831 fix: explicit workflow permission 2026-05-12 11:57:03 +10:00
Julian Sommer f9dddd3c9c fix: min package age 3 days 2026-05-12 11:23:58 +10:00
Julian Sommer 8b17ce4060 fix: allow esbuild build 2026-05-12 09:33:56 +10:00
Julian Sommer f49923ef10 chore: update pnpm 2026-05-12 09:22:04 +10:00
dependabot[bot] dbb153bd42 chore: bump the go-dependencies group across 1 directory with 2 updates (#206) 2026-05-12 08:58:12 +10:00
dependabot[bot] 13cf15b746 chore: bump the npm-dependencies group (#207) 2026-05-12 08:57:52 +10:00
Josh Siviour 48d7ce8a45 feat(viperblockd): retry LoadState on transient backend errors (siv-25 medium-term) (#210)
* feat(viperblockd): retry LoadState on transient backend errors

ebs.mount used to call vb.LoadState once and treat any failure as fatal.
When predastore was still warming up after a coordinated daemon restart,
the backend Read came back with a network/timeout error, viperblock
folded it into "block size is 0 in both local and backend state", and
the daemon's recovery path then ran the cleanup branch — destroying
DeleteOnTermination=true volumes (mulga-siv-25).

Wrap LoadState in retryLoadState: 5 attempts, 200ms * 1.5^n backoff
(total worst-case ~3.7s, well inside the 30s ebs.mount NATS deadline).
Retry only on viperblock.ErrStateBackendUnavailable; ErrStateNotFound
and any unclassified error fail fast so genuine problems are still
visible.

Retry loop is parameterised over sleep and loadFn so the retry policy
itself is unit-tested without spinning up a real VB.

* chore: bump viperblock to v1.2.2-0.20260511064619-1aa54f0dc1f6

Pulls in the ErrStateNotFound / ErrStateBackendUnavailable sentinels
introduced by mulgadc/viperblock#11 (merged on dev). Required for the
retry wrapper added in the previous commit to compile against the
public viperblock module.
2026-05-11 17:10:48 +10:00
Josh Siviour f6ddd602b9 fix(daemon): preserve volumes when recovery fails on restart (siv-25 short-term) (#209)
Stops the P0 data-loss path where `systemctl restart spinifex-daemon`
destroys user volumes flagged `DeleteOnTermination=true`.

Previously, when daemon recovery couldn't relaunch (Run error) or
reconnect (QMP attach failure) to a previously-running instance, the
code called `MarkFailed` — which transitions to `terminated`, runs the
full destructive cleanup (`terminateCleanup`), and deletes volumes per
`DeleteOnTermination`. A benign operator action (daemon restart) was
treated identically to a user-initiated `ec2.TerminateInstances`.

New `MarkRecoveryFailed` transitions to `StateError` with a
`Server.RecoveryFailed` StateReason, runs only the non-destructive
`stopCleanup` chain (graceful unmount + tap teardown + GPU release +
resource deallocation), and persists the running set. Volumes, public
IPs, ENIs, and placement-group membership are preserved so the operator
can either retry recovery or issue an explicit terminate (which will
then honour DoT as normal). The instance stays in the local map and
`OnInstanceDown` is NOT fired, keeping `ec2.cmd.<id>` live so operator
commands can still reach this node.

`classifyRestoredInstances` now skips relaunch + resource re-allocation
for instances already in `StateError`, so a recovery-failed instance
stays put across subsequent daemon restarts until the operator acts.

Medium-term (viperblock "block size 0" hard-vs-soft classification +
mount retry-with-backoff) and long-term (audit of every non-user-
initiated cleanup caller) tiers remain open on the siv-25 plan.
2026-05-11 16:47:24 +10:00
Josh Siviour 13d9fb494a refactor(daemon): extract instance mutators to service (siv-21, 1b-pre phase 2) (#208)
* refactor(daemon): extract ModifyInstanceAttribute to service (1b-pre phase 2a)

Collapse handleEC2ModifyInstanceAttribute to a thin Pattern A wrapper over
InstanceServiceImpl.ModifyInstanceAttribute, mirroring the Describe extraction
in 719ac63 (phase 1). The InstanceService interface and StoppedInstanceStore
each gain one method (ModifyInstanceAttribute, WriteStoppedInstance); the
daemon's JetStreamManager already implements WriteStoppedInstance, so no
production code outside the daemon handler changes.

Logic-level tests move from daemon/daemon_handlers_test.go to
handlers/ec2/instance/service_impl_test.go (12 cases against an in-memory
fakeStoppedStore). The daemon keeps one NATS round-trip wrapper smoke test.
The error-injection cases in daemon_handlers_instance_test.go remain in place
but now require daemonWithFakeStateStore to rewire d.instanceService with
the fake store — the previous `d.stateStore = store` swap no longer reaches
the new code path.

No behaviour change: SourceDestCheck stays a state-agnostic no-op, the
ownership/visibility check still gates after the stopped-state gate, and the
success response payload remains `{}`.

* refactor(daemon): extract TerminateStoppedInstance to service (1b-pre phase 2b)

Collapses ~140 lines of daemon termination logic into a one-liner
handleNATSRequest wrapper plus an InstanceServiceImpl method, matching
the Pattern A precedent from phase 1 (Describes) and phase 2a
(ModifyInstanceAttribute). Adds VolumeDeleter, ENIDeleter, and
PublicIPReleaser dep interfaces (wired via SetTerminationDeps) so the
service can clean up volumes, ENI, and EIP without depending on daemon
internals.

Hoists publishNATEvent off the daemon into utils.PublishNATEvent so the
service can drive vpc.delete-nat directly. Removes the
terminateStoppedInstanceRequest daemon-local payload in favour of the
exported TerminateStoppedInstanceInput on the service interface.

Tests: 13 service-level cases against an in-memory fake (missing ID,
nil store, load error, not found, not stopped, cross-tenant,
happy path, terminated-write failure aborts, retry-once delete,
user volume deleted, no-deleter graceful skip, internal volumes via
NATS, public IP release, ENI delete). The five JetStream-backed
daemon Terminate tests collapse to one wrapper smoke
(WritesToTerminatedKV); the six error-injection tests in
daemon_handlers_instance_test.go continue to drive the wrapper through
fakeStateStore for wire-format coverage.

Refs mulga-siv-21.

* refactor(daemon): extract StartStoppedInstance to service (1b-pre phase 2c)

Daemon's handleEC2StartStoppedInstance collapses to a Pattern A handleNATSRequest
wrapper over InstanceServiceImpl.StartStoppedInstance. Promotes ResourceCapacityProvider
to InstanceTypeAllocator with Allocate/Deallocate/CanAllocate/InstanceTypes, and adds
a GPUClaimer interface returning (pciAddress, xvgaEnabled, err) so the instance package
stays free of the gpu package. Daemon ResourceManager gains exported wrappers around
its internal allocator methods; a daemonGPUClaimer adapter wires gpu.Manager + the
GPU model overrides through SetGPUClaimer.

No behaviour change. New service-level tests cover the moved logic; existing
daemon integration tests continue to validate the end-to-end path through the
wrapper.

* ci(e2e-ddil): export spinifex AWS creds for witness SDK

The witness EC2 client (harness/witness.go NewWitness) calls
session.NewSession with no static credentials, so the AWS SDK falls
through its default chain — env vars → shared profile → IAM role —
and on the CI runner none of those exist. Result on the live cluster:
"NoCredentialProviders: no valid providers in chain. Deprecated."
launches every Scenario A/B/C attempt straight to t.Fatal at
launchWitnesses.

spx admin init writes [spinifex] aws_access_key_id /
aws_secret_access_key to the operator's ~/.aws/credentials on node1
during bootstrap. Pull them over SSH and export as
AWS_ACCESS_KEY_ID / AWS_SECRET_ACCESS_KEY so the SDK's env-var step
resolves before it gets to the empty profile/IAM checks. Hard-fail
the step if either field is missing — better than silently watching
every scenario t.Fatal on the same line.

* Revert "ci(e2e-ddil): export spinifex AWS creds for witness SDK"

This reverts commit 5b890162a6.

* refactor(daemon): extract RunInstances + ec2.cmd handlers to service (1b-pre phase 2d)

Final sub-phase of mulga-siv-21. Moves the remaining instance mutators
from spinifex/daemon/daemon_handlers_instance.go into InstanceServiceImpl:

- PrepareRunInstances: input validation, capacity allocation, per-instance
  RunInstance + ENI auto-create + public IP assignment.
- LaunchRunInstances: volume preparation, GPU claim, vmMgr.Run loop.
- RunInstances: synchronous Prepare+Launch convenience wrapper used by
  the InstanceService interface for non-daemon callers.
- RebootInstance, StartInstance, StopOrTerminateInstance: extract the
  three ec2.cmd sub-handlers; daemon.handleEC2Events shrinks to a
  dispatcher that looks up the VM and calls the matching service method.

The daemon's RunInstances handler is now a thin orchestrator that splits
the call into Prepare and Launch around the early NATS respond so the
original respond-then-launch timing is preserved (AWS clients see the
reservation before volumes prepare and VMs launch).

New service deps wired via SetRunInstancesDeps:
- AMIMetaLoader (handlers/ec2/image.ImageServiceImpl)
- KeyPairValidator (handlers/ec2/key.KeyServiceImpl)
- ENICreator + SubnetInfo (new daemonENICreator adapter over VPCServiceImpl
  to avoid an instance↔vpc cyclic import)
- PublicIPAllocator (handlers/ec2/vpc.ExternalIPAM)

No behaviour change. Tests retarget the service directly for the new
error paths; existing daemon-side RunInstances handler tests continue to
pass via the wrapper.

* test(instance): add LaunchRunInstances + setter coverage for phase 2d
2026-05-11 13:50:55 +10:00
Josh Siviour 6c54a6790c feat(daemon): DDIL Tier 1 — daemon-local-autonomy phase 1 (#204)
* refactor(daemon): extract Describe instance handlers to service (1b-pre phase 1)

Collapse the Describe family in daemon_handlers_instance.go to thin Pattern A
wrappers over a transport-neutral InstanceServiceImpl. This brings the read
path in line with the rest of the codebase and is the prerequisite for 1b's
local HTTP API (mulga-siv-14, daemon-local-autonomy plan).

Extracted: DescribeInstances, DescribeInstanceTypes, DescribeInstanceAttribute,
DescribeStoppedInstances, DescribeTerminatedInstances. Filter helpers
(instanceMatchesFilters, matchTagKey/Value, DescribeInstancesValidFilters,
IsInstanceVisible) move to the instance package alongside the service methods.

InstanceService gains the new methods and two dep interfaces
(ResourceCapacityProvider, StoppedInstanceStore) so the daemon's ResourceManager
and JetStreamManager can plug in without leaking concrete types. NATSInstanceService
returns a clear error for the fan-out describes (DescribeInstances,
DescribeInstanceTypes) since cluster-wide aggregation lives in the gateway's
scatter-gather helpers, not a single-node NATS request.

Behaviour changes: malformed JSON on DescribeInstanceAttribute now responds
with ValidationError (matching every other Pattern A handler) instead of
ServerInternal. Test updated.

Mutators (RunInstances, ModifyInstanceAttribute, StartStoppedInstance,
TerminateStoppedInstance, sub-handlers) remain Pattern B for now; follow-up
phases of mulga-siv-14 will collapse them.

* feat(daemon): local-first instance state persistence (1a)

Make /var/lib/spinifex/state/instance-state.json the source of truth for a
node's VMs; JetStream KV becomes a best-effort cluster cache. The daemon now
survives KV unavailability without losing instance state.

- New local_state.go: atomic write (tmp+fsync+rename), schema_version gate,
  missing-file = fresh install, corrupt = refuse start.
- Daemon.WriteState writes the local file under Instances.Mu, then calls
  jsManager.WriteStateBestEffort with a 1s timeout. KV failures log and
  continue; clients never see "KV down" during partition.
- Daemon.LoadState reads from the local file only — no KV fallback (a fresh
  node has empty KV anyway, so silent fallback would mask bugs).
- restoreInstances now returns error and Start() aborts on corrupt local
  state rather than silently starting empty.
- jsManager.WriteState no longer self-locks (caller holds Mu); added
  WriteStateBestEffort and shared marshalInstanceState helper.

Reconnect-driven KV resync deferred to siv-16 (1c owns the callback wiring).

Bead: mulga-siv-15
Plan: docs/development/feature/daemon-local-state-persistence.md

* fix(daemon): root local state at DataDir not BaseDir

LocalStatePath was falling back to BaseDir when DataDir was empty, putting
the file at /var/lib/spinifex/spinifex/state/instance-state.json (under the
daemon's own subdir) instead of the documented
/var/lib/spinifex/state/instance-state.json (the platform-shared root).

Drop the BaseDir fallback. Empty DataDir resolves to DefaultDataDir
(/var/lib/spinifex). Tests now set DataDir alongside BaseDir on their config
fixtures.

* feat(daemon): graceful NATS disconnect/reconnect handling (1c)

Daemon now flips a `mode` field (cluster|standalone) on NATS
disconnect/reconnect via optional callback hooks added to
utils.ConnectNATS. Reconnect bumps natsRetryCount and triggers 1a's
full local-state push to KV. NATSRequest/NATSScatterGather fail fast
with ErrClusterUnavailable when the connection is down. Gateway
short-circuits NATS-bound requests with a 503 ServiceUnavailable
carrying "cluster unavailable: NATS disconnected — check daemon
/local/status" so AWS clients see the failure mode immediately
instead of hanging on per-call timeouts.

Plan: docs/development/feature/daemon-autonomy-1c-disconnect.md

* fix(gateway): SigV4 middleware short-circuits on NATS disconnect

The 1c gateway.Request() IsConnected check (gateway.go:234) was
unreachable for any authenticated path because SigV4 auth middleware
runs first and calls IAMService.LookupAccessKey over JetStream KV. With
NATS down the lookup hangs ~5s on context.DeadlineExceeded and the
gateway returns 500 InternalError. AWS SDK retries it twice for ~18s of
user-visible latency instead of the <100ms 503 promised by the 1c plan.

Mirror the IsConnected check at the top of SigV4AuthMiddleware (after
credential parse so malformed auth headers still get the right SigV4
error code, before the IAM lookup). The catch-all in gateway.Request()
stays as defence-in-depth for any future unauthed paths.

Coverage debt picked up alongside: 1c utils.NATSRequest /
NATSScatterGather fail-fast paths, daemon Mode/onNATSDisconnect/
onNATSReconnect/localStatePath/Write/LoadState branches, and 1b-pre
InstanceServiceImpl Describe* methods (partial siv-22).

Bead: mulga-siv-23

* feat(daemon): read-only /local/* HTTP API (1b)

Wires GET /local/instances, GET /local/instances/{id}, GET /local/status
onto the existing ClusterManager TLS listener so observers can read this
node's instance state and connectivity mode while NATS is unreachable.

Also fixes a pre-existing race in WriteState: json.Marshal walked shared
*vm.VM pointers from SnapshotMap while concurrent TransitionState calls
mutated VM fields under the manager lock. Marshal now runs inside
vmMgr.View; WriteLocalStateBytes / WriteStateBytesBestEffort accept the
pre-marshalled JSON and commit lock-free. TestTransitionState_Concurrent
Transitions is race-clean across 30 iterations.

Adds Daemon.stateRevision (atomic.Uint64) bumped on every successful
local-state write, surfaced as /local/status.revision so observers can
detect changes without diffing payloads.

* feat(daemon): two-phase startup — survive NATS down (1d)

Split daemon Start() into startLocal() (HTTPS, mgmt bridge, OVS plumber,
OOM, local state load — no NATS) and startCluster() (background, infinite
retry exp backoff cap 60s for NATS connect, then JetStream + services +
restoreInstances + subscribeAll + heartbeat). Daemon never process-exits
on NATS failure; instead it stays up in standalone mode and reconnects in
the background.

Drop ExecStartPre=wait-for-nats.sh from spinifex-daemon.service — local
bootstrap no longer requires NATS to be reachable.

ConnectNATSWithRetry now supports infinite retry (WithMaxWait(0)),
context cancellation (WithContext), per-attempt error callback for the
nats_retry_count operator signal on /local/status, and a configurable
backoff cap (WithMaxRetryDelay).

bead: mulga-siv-17 (closes)

* feat(daemon): Tier 1 invariant guard for cluster-scoped service init (1e-audit)

Make the DDIL §1e-audit invariant explicit: startLocal must not initialise any
NATS-dependent or JetStream-KV-backed handle. Adds assertNoClusterServicesInitialised
as a runtime guard at the end of startLocal that fails fast if a future edit
hoists a cluster-scoped service into Phase 1, plus comment blocks naming the
invariant on both startLocal and startCluster.

Code audit confirms the existing 1d split already keeps every cluster-scoped
bucket out of Phase 1; this change pins the property so it cannot regress
silently. Tier table for the 25 daemon-process KV buckets is finalised in
docs/development/feature/daemon-local-autonomy.md §1e-audit.

bead: mulga-siv-19 (closes)

* feat(daemon): NATS observability hardening (1d-obs)

Closes the residual visibility gap left by the 1d non-blocking startup:

- Extend /local/status with kv_sync_failures, last_kv_sync_at,
  last_kv_sync_error so an operator polling the local API sees prolonged
  divergence between the local file and JetStream KV.
- Add a KVSyncObserver interface on JetStreamManager so the daemon can
  count best-effort write outcomes without coupling the manager to
  daemon state.
- Escalate utils.ConnectNATSWithRetry per-attempt log to slog.Error
  (rate-limited to once per minute, with disconnected_for context) once
  attempt count crosses the natsRetryEscalateAttempt threshold (~30
  attempts ≈ ~30 min disconnected at the 60s backoff cap), so a stuck
  NATS config surfaces in error logs instead of routine warn noise.

Prometheus metrics export deferred until a system-wide telemetry plan
(likely OTel) lands; the structured /local/status fields plus the
escalated retry log cover the Tier 1 visibility gap.

* feat(daemon): opt-in SPINIFEX_REQUIRE_NATS strict-startup mode (1d-strict)

When SPINIFEX_REQUIRE_NATS=1, startCluster's first NATS connect uses a
bounded ~30s retry and the daemon aborts on timeout. Default behaviour
(env unset) keeps the Tier 1 infinite-retry path so prod / edge nodes
still survive a missing NATS at boot. Restores pre-DDIL fail-fast UX
for dev / test / single-node deploys without flipping the prod default.

mulga-siv-44.

* test(scripts): systemd-level smoke for DDIL phase 1

Bash harness exercising daemon-local-autonomy on a real `make deploy` node:
baseline cluster mode → kill spinifex-nats → assert standalone + retry
counter advance + /local/instances served → restart NATS → assert mode flip
+ KV resync stamp → SPINIFEX_REQUIRE_NATS=1 bounded-exit. Cleanup trap
restores both services. Complements existing unit coverage by validating
real systemd wiring on port 8443.

* fix(test-ddil): daemon ClusterManager binds 4432 not 8443

8443 is predastore. Daemon's HTTPS ClusterManager (where /local/* lives)
binds [nodes.node1.daemon].host = 0.0.0.0:4432 in the deployed config.
Plan doc daemon-local-autonomy.md:112 incorrectly said 8443; actual code
uses d.config.Daemon.Host.

* fix(test-ddil): correct retry-counter site + bypass NATS Wants= for strict test

Two bugs in the v1 script:

1) nats_retry_count assertion ran during disconnect — but the counter
   only bumps on disconnect→reconnect *cycles* (daemon.go:321,
   onNATSReconnect). Moved assertion to step 3 (restart NATS) where
   the reconnect callback fires.

2) Step 4 stopped spinifex-nats then ran 'systemctl restart
   spinifex-daemon' — but the daemon unit's Wants=spinifex-nats.service
   re-pulled NATS up via the Wants= chain, so the strict-mode 30s
   timeout never fired. systemctl mask refuses on /etc-installed
   units, and --runtime mask is shadowed by /etc. Block via a runtime
   drop-in with ConditionPathExists=! pointing at a sentinel file.

Verified: all 5 checks pass on a single-node make deploy box; daemon
exits 32s after restart with SPINIFEX_REQUIRE_NATS=1 + NATS blocked.

* fix(admin): render data_dir into spinifex.toml so non-root nodes write local state

Pseudo-multinode E2E (rootless tf-user, ~/nodeN data roots) hit
"mkdir /var/lib/spinifex/state: permission denied" on every RunInstances:
Config.DataDir was empty because the template never emitted a data_dir
key, and LocalStatePath fell back to DefaultDataDir (/var/lib/spinifex).

Surfaced after 8eb9c5fa dropped the BaseDir fallback in LocalStatePath —
previously SPINIFEX_BASE_DIR=$DATA_DIR/spinifex/ (set by start-dev.sh)
masked the missing data_dir.

ConfigSettings.DataDir is already populated to spxRoot at admin
init/join; render it under [nodes.X] so it actually reaches the daemon.
2026-05-10 10:08:12 +10:00
joshsiv-mulga 7493f087d1 Update Ansible smoketest playbook to use debian 13 AMI 2026-05-08 15:56:16 +10:00
Julian Sommer 51f7afab4c fix(ui): github workflow 2026-05-08 12:42:02 +10:00
Julian Sommer 0aa53f78ea chore(ui): enable no-console 2026-05-08 12:39:55 +10:00
Julian Sommer fc0cc85731 chore(ui): enable vitest lint rules 2026-05-08 12:36:33 +10:00
Julian Sommer 6fa82c470d fix(vpcd): self-heal partial IGW topology on reconcile
reconcileIGW was non-idempotent and gated on "external switch missing",
so once a prior pass left the ext switch + LRP in place without the
localnet LSP, every subsequent vpcd start silently skipped the function
and the partial topology persisted forever (br-ext never got its patch
port; external traffic failed).

Convert each step to Get-then-Create idempotent and drop the cascade
rollbacks — partial state is now safe to leave for the next pass to
heal. Add FindStaticRoute so the default route is deduped instead of
duplicated on every retry. Drop the ext-switch gate in Reconcile and
ReconcileFromKV; rename IGWsCreated to IGWsReconciled to reflect the
new "called" semantics.
2026-05-08 12:09:05 +10:00
Julian Sommer 1c3583651d fix(ui): enable more rules 2026-05-08 11:55:18 +10:00
Julian Sommer f8ce8de566 fix(ui): require await 2026-05-08 11:39:33 +10:00
Julian Sommer b26bb8d35d fix(vpcd): bounded-retry reconcile-leader instead of fail-open (#202) 2026-05-08 10:47:22 +10:00
Josh Siviour 62ab74088e refactor(daemon): unify VPC + mgmt tap setup behind SetupTap(TapSpec) (#195) 2026-05-08 10:40:53 +10:00
Julian Sommer 6f3e901b9f chore: use go 1.26.3 2026-05-08 09:21:12 +10:00
joshsiv-mulga f44db4d84e fix(vpcd): reconcile EIP dnat_and_snat rules on startup
NAT rules are purely event-driven — only AssociateAddress creates them via
vpc.add-nat. No startup reconcile path means any OVN NB DB state drift
silently breaks EIP inbound traffic after a node reboot.

Add Step 5 to ReconcileFromKV that reads associated EIPs from the
spinifex-vpc-elastic-ips KV bucket and ensures each has a dnat_and_snat rule
in OVN NB DB. Correct rules are skipped (idempotent). Stale rules (wrong
LogicalIP) are replaced. Missing rules are created.

Also adds FindNATByExternalIP to OVNClient interface + LiveOVNClient/Mock
implementations, and three new tests covering: missing rule creation,
idempotent skip on correct rule, and stale rule replacement.
2026-05-07 23:41:41 +10:00
joshsiv-mulga 5ea7df6e7c fix(e2e): revert to internet-facing ALB; keep LaunchTime reboot check
The internal-ALB approach was wrong on two counts:
- ALB_ENI_MAC is the OVN VPC ENI MAC (lives on br-int), never appears
  in br-mgmt neighbour table, so the mgmt IP lookup always fails.
- Switching to internal masked the real bug: OVN EIP DNAT not restoring
  properly after a host reboot, which is exactly what this test should catch.

Restore internet-facing ALB and EIP-based traffic bursts. The post-reboot
traffic failure (Phase 8.6) is the correct signal for the outstanding OVN
EIP DNAT persistence bug.

Keep the Phase 8.3 LaunchTime fix: two-hop SSH to VPC private IPs doesn't
work in single-node macvlan (host has no route to VPC subnets). LaunchTime
from describe-instances is fast and topology-independent.
2026-05-07 21:52:37 +10:00
joshsiv-mulga 94405effec fix(e2e): cell-18 internal ALB + LaunchTime reboot check
Two changes to fix cell-18 (single/static/debian-13/reboot-single):

1. Switch ALB to --scheme internal.
   Internet-facing ALBs work pre-reboot on single-node but post-reboot the
   OVN EIP DNAT (nat-addresses=router GARP) is not re-established in time,
   causing 100% curl timeouts. Internal ALB routes traffic via br-mgmt using
   the mgmt IP discovered from the ALB ENI MAC in the br-mgmt neighbour table,
   bypassing OVN external NAT entirely.

2. Replace Phase 8.3 guest SSH uptime check with LaunchTime assertion.
   Two-hop SSH to VPC private IPs fails in single-node macvlan: the host has
   no route to VPC subnets. LaunchTime from describe-instances is reset by the
   daemon on QEMU relaunch, so LaunchTime >= REBOOT_START reliably confirms
   recovery without network reachability to the guest.
2026-05-07 21:35:23 +10:00
joshsiv-mulga 9ca8b84bea ci(baremetal): skip ePDU power-cycle until credentials are wired in 2026-05-07 16:39:21 +10:00
joshsiv-mulga e9aec9e784 ci(baremetal): restore bm-ci SSH key from secret at run start 2026-05-07 16:07:30 +10:00
joshsiv-mulga 8c6d0747e0 fix(ci): pass SPINIFEX_SRC/VIPERBLOCK_SRC to iso-builder, build viperblock .so 2026-05-07 15:50:30 +10:00
joshsiv-mulga 374f2ed7a3 feat(ci): add e2e-baremetal workflow — workflow_dispatch only
Separate from normal e2e. Checks out spinifex, checks out mulga scripts
(sparse: iso-builder + baremetal), builds spx + test tar via
bm-build-artifacts.sh, builds PXE artifacts (squashfs/initrd/vmlinuz)
via iso-builder with persistent cache on banksia, then runs
run-baremetal-e2e.sh against the single bare-metal node.
2026-05-07 15:38:05 +10:00
Julian Sommer 46d7a875ab fix: single node e2e direct s3 access 2026-05-07 14:52:58 +10:00
Julian Sommer 82d1c7aeee fix: add account id to predastore test 2026-05-07 14:42:41 +10:00
Julian Sommer 9640cca480 chore: bump predastore version 2026-05-07 14:29:57 +10:00
Julian Sommer 29a192766c configs 2026-05-07 13:51:03 +10:00
joshsiv-mulga 5f8ee0b5a2 feat(installer): persist SPINIFEX_INSTALL_CALLBACK through firstboot reboot
In the PXE path SPINIFEX_INSTALL_CALLBACK arrives on the iPXE kernel
cmdline but was never threaded into the firstboot script, so firstboot
never curled the controller's /done endpoint. The flag stayed on disk,
the node re-entered the install loop on the next PXE boot.

Fix: read SPINIFEX_INSTALL_CALLBACK from the live-environment env in
toFirstbootConfig and embed a best-effort curl into the generated
firstboot script, fired once after the success marker is written.

Interactive and USB-stick installs are unaffected (env var absent
-> callbackBlock is empty, no curl injected).
2026-05-07 12:28:09 +10:00
Julian Sommer a753ff99dd fix(UI): make mulga logo change with theme 2026-05-07 09:59:21 +10:00
Julian Sommer 7c860c99ca feat(UI): run instances block device mapping field (#200) 2026-05-07 09:54:46 +10:00
Julian Sommer 5e70ebd63f feat(UI): terminate instance confirmation (#199) 2026-05-07 09:21:33 +10:00
Julian Sommer a8591380cb test(daemon): add stopped/terminated handler tests against fake StateStore (#198) 2026-05-07 09:17:41 +10:00
Julian Sommer fefe506042 test(vm): improve vm tests (#197) 2026-05-06 16:42:14 +10:00
joshsiv-mulga 7ee21e0f25 fix(viperblockd): treat NBDKit code=0 premature exit as mount failure
NBDKit exiting within 1s was only treated as an error if exit code != 0.
A clean exit (code=0) fell through to Mounted=true, leaving QEMU with a
dead NBD socket and VMs that never boot post-reboot.

Treat any premature exit as failure regardless of exit code.
2026-05-06 15:55:41 +10:00
Julian Sommer 3eff6ccff2 test(vm): remove tautologies and asserts-nothing tests
manager_deps_test.go: drop TestDeps_VolumeMounterSatisfiesInterface,
TestDeps_StateStoreSatisfiesInterface, TestDeps_StateStoreErrorPropagates,
TestSetDeps_OverridesDeps, TestManagerHooks_InitiallyNil — they assert a
fake recorded its own input, that a fake returns an error literally
constructed in the test, or Go zero-value/direct-assignment semantics.
Compile-time interface checks already prove satisfaction.

state_test.go: replace TestEC2StateCodes_AllStatesHaveMapping and
TestEC2StateCodes_CorrectValues — both compared the production map to
its own literal. Now assert against an independent AWS contract using
ec2.InstanceStateName* SDK enum constants paired with the
AWS-documented numeric codes; a typo in production no longer
replicates into the test.

watchdog_test.go: replace TestStartPendingWatchdog_CtxCancelStopsGoroutine's
time.Sleep(10ms) "assertion" with goleak.VerifyNone. The previous form
passed even if the goroutine never returned on cancel — the harness
reaped it on test exit.
2026-05-06 15:19:51 +10:00
Julian Sommer 5b9a35914e feat(tests): missing vm tests (#196) 2026-05-06 15:13:32 +10:00
joshsiv-mulga 14b8fc234a fix: counts: unbound variable in bash 5.2 + set -u + empty declare -A 2026-05-06 15:01:40 +10:00
Julian Sommer 9c8f49ed71 fix: mark restored instance as failed on failed launch 2026-05-06 13:55:32 +10:00
Julian Sommer 8f7733eb64 fix: slog.Warn on instance kv migration failure 2026-05-06 13:51:34 +10:00
Julian Sommer f0eea9867b fix: cleanup instanceUp subscription if getConsoleOutput subscription fails 2026-05-06 13:45:35 +10:00
Julian Sommer c416a645f2 refactor(vm,daemon): post-extraction cleanup groups 1+2 (#194) 2026-05-06 13:30:06 +10:00
Julian Sommer 3aca1c9763 feat: require host and x-amz-date in SigV4 SignedHeaders (#193) 2026-05-06 11:31:33 +10:00
tomnewton-mulga 28ca689130 feat: VFIO GPU passthrough (#188)
* feat: add GPU discovery package (mulga-992)

Adds spinifex/gpu package with sysfs-based GPU enumeration, IOMMU group
member lookup, and a PCI device ID model table. Vendor-specific enrichment
via nvidia-smi is attempted opportunistically and falls back to the built-in
table when unavailable. All discovery and IOMMU logic is covered by unit tests
using mock sysfs trees.

* feat: add VFIO bind/unbind and GPU pool manager (mulga-993)

Adds gpu.BindVFIO/UnbindVFIO using sysfs driver_override for per-device
driver switching, and gpu.Manager which owns the claim/release lifecycle
for the GPU pool including full IOMMU group binding, rollback on partial
failure, and marking entries unavailable when rebind fails after VM
termination.

* feat: add G5 instance type generator with GPU model support (mulga-994)

- Add GPUModel type, NVIDIAa10g constant, and GPUModelForVendorDevice lookup
- Add generateGPUTypes to emit g5.* types with GpuInfo populated
- Add IsGPUType helper for consumers filtering GPU-capable types
- Update DetectAndGenerate to accept gpuModels []GPUModel parameter

* feat: integrate GPU passthrough into daemon lifecycle (mulga-995)

- Add gpu_passthrough config flag; discover GPUs and build manager at startup
- Gate g5 instance types on GPU pool availability via canAllocateCount
- Claim GPU (VFIO bind) in LaunchInstance; inject vfio-pci QEMU device
- Release GPU (VFIO unbind, rebind to host driver) in stopInstance
- Re-claim GPU on daemon restart when QEMU process is still alive
- Add UseUEFI / OVMF support for x86_64 VMs (optional, falls back to SeaBIOS)
- Fix Claim to use stored OriginalDriver when device is already vfio-pci bound

* feat: add GPU fields to NodeStatus and spx top nodes (mulga-996)

- Add TotalGPUs/AllocGPUs to NodeStatusResponse (zero on non-GPU nodes)
- Populate from gpuManager in handleNodeStatus
- Show GPU (used/total) column in spx top nodes; "-" when no GPUs present

* feat: Ubuntu 24.04 GPU AMI build pipeline (mulga-997)

Extends build-system-image.sh to support Ubuntu alongside Alpine.
Key differences handled: partition table (parted resizepart p1),
bind mounts for DKMS (/proc /sys /dev), apt vs apk, systemctl vs
rc-update. DISTRO defaults to "alpine" for backward compatibility.

Adds ubuntu-gpu.conf manifest and ubuntu-gpu-setup.sh chroot script
that installs nvidia-headless-550-server with DKMS pre-built against
a pinned linux-image-generic kernel, blacklists nouveau, and prevents
unattended-upgrades from invalidating the pre-built module.

* Fixed GPU passthrough and added test script

* feat: always-probe GPU at startup, surface capability in NodeStatusResponse

- Add gpuProbeResult struct and probeGPU() which runs at daemon startup
  regardless of gpu_passthrough config. Checks sysfs for GPUs, IOMMU
  groups, and vfio_pci module presence.
- Store gpuProbe on Daemon struct; split NewDaemon into probe (always)
  and activate (opt-in) phases.
- Populate GPUCapable, GPUPassthrough, GPUModels on NodeStatusResponse
  so operators can see hardware state before enabling passthrough.
- Update 'spx top' GPU column: '-' = no hardware, '0/N*' = capable but
  passthrough not active, 'used/total' = passthrough active.

* feat: SIGHUP hot-reload for GPU passthrough config (mulga-1001)

- Export GenerateGPUTypes for use by the reload path
- Add ResourceManager.reloadGPUTypes: mutates instanceTypes map in-place
  (preserves references held by instanceService) and updates NATS
  subscriptions without full daemon restart
- Separate SIGHUP from SIGTERM/SIGINT: setupReload() listens for SIGHUP
  in a context-aware loop; setupShutdown no longer intercepts SIGHUP
- Add reloadConfig() + applyGPUConfig(): re-reads spinifex.toml on signal,
  handles false→true (re-probe + activate) and true→false (refuse if
  instances running, otherwise deactivate) transitions

* feat: spx admin gpu status/enable/disable commands (mulga-1000)

- admin.SetGPUPassthrough: Go implementation of the idempotent TOML write
  (replaces the inline Python heredoc in spx-test-gpu.sh)
- spx admin gpu status: shows GPU hardware, IOMMU/vfio state, passthrough
  activation, and advertised g5 instance types via NATS NodeStatusResponse
- spx admin gpu enable: checks prerequisites, writes TOML, sends SIGHUP,
  polls until daemon confirms GPUPassthrough=true
- spx admin gpu disable: refuses while GPU instances are running, otherwise
  writes TOML, sends SIGHUP, polls until confirmed
- spx-test-gpu.sh: replace Python TOML heredoc with spx admin gpu enable

* fixed admin

* fix: filter Intel iGPU from passthrough pool, use lspci for consumer GPU names

Discover() now skips non-NVIDIA/AMD vendors so Intel iGPUs never enter
the passthrough pool. enrichFromLspci() uses the system PCI ID database
via lspci -vmm to populate the model name for any card not in the
hardcoded table, without needing nvidia-smi or driver tools.

* fix: grant CAP_SYS_ADMIN and vfio device access to spinifex-daemon

GPU passthrough requires writing to /sys/bus/pci/drivers/vfio-pci/unbind
on instance stop. The kernel gates this on CAP_SYS_ADMIN regardless of
file permissions. QEMU subprocesses also need char-vfio rw access to
open /dev/vfio/N for the passed-through device.

* fixing gpu bining permissions

* working state of gpu passthrough on phyiscal box

* installer grub image fixes

* made gpu-passthrough more user facing

* fixed banner

* fixed banner

* banner fix

* gpu passthrough docs

* preflight tweak

* vpcd fixes to set br-wan to promisc for public IP DHCP processes

* fixed vpcd br-wan promisc and veth pair

* ssh keygen fix

* fixes after running /review-branch

* feat: re-wire GPU claim and device injection after vm.Manager refactor

GPU passthrough claim (VFIO bind) and QEMU device injection were lost
when dev's vm.Manager refactor (#185/#186) moved StartInstance/
CreateQMPClient into vm/lifecycle.go. Re-add both in their correct
new homes:

- daemon_handlers_instance.go: claim GPU before vmMgr.Run() in both
  RunInstances and StartStoppedInstance handlers; release on failure
- vm/lifecycle.go startQEMU(): inject vfio-pci device with x-vga flag
  derived from instance.GPUXVGAEnabled when GPUPCIAddress is set

* fix: Create spinifex user ~/.ssh and keys in firstboot

---------

Co-authored-by: Ben Duncan <5178243+benduncan@users.noreply.github.com>
Co-authored-by: Julian Sommer <115516918+juliansommer@users.noreply.github.com>
2026-05-06 09:52:23 +10:00
Julian Sommer 2c1c46b1f6 test(vm): migrate lifecycle coverage from daemon to vm package (#192) 2026-05-06 09:34:55 +10:00
Julian Sommer addf2bc86e refactor(vm): typed Status accessor, sentinel-aware Stop/Terminate (#191) 2026-05-05 16:37:21 +10:00
Julian Sommer 34c461be9c refactor(vm): move Restore/crash recovery/watchdog onto Manager (#190) 2026-05-05 16:13:20 +10:00
Julian Sommer c2be7f047c refactor(vm): move AttachVolume/DetachVolume/Reboot onto Manager (#189) 2026-05-05 14:27:59 +10:00
Julian Sommer cfe56c49d1 refactor(vm): move Stop/Terminate/MarkFailed onto Manager (#187) 2026-05-05 13:25:32 +10:00
Julian Sommer e3d2504b42 refactor(daemon): Move instance commands to vm manager (#186) 2026-05-05 11:38:53 +10:00
Julian Sommer d28ac40ce7 refactor(vm): introduce collaborator interfaces and daemon adapters (#185) 2026-05-05 10:48:38 +10:00
Julian Sommer 56cc83f723 chore: merge main into dev 2026-05-05 09:55:10 +10:00
Julian Sommer a216d6f596 chore(ci): point nightly e2e at dev branch
Scheduled runs were using github.ref_name, which equals the default branch
(main) — so the nightly was testing main. Hardcode GIT_BRANCH=dev so the
build-install-artifacts.sh + tofu provisioning target dev's HEAD instead.

GitHub always loads scheduled-workflow files from the default branch, so
this change must stay in sync on main for the schedule to use it.
2026-05-05 09:54:53 +10:00
Julian Sommer ce0bbde8dc fix(e2e): poll guest SSH after reboot in reboot-e2e cell
The post-reboot guest uptime check was a single-shot ssh with a 10s connect
timeout. After the host comes back, guest QEMU + cloud-init + sshd inside
each guest still need a few seconds to settle, so the check raced them.

Poll up to GUEST_SSH_SECS (default 180s) per guest, mirroring the host
TCP/22 poll. Run 25329248329 cell-18 reproduced this — ALB targets went
healthy ~2s after the second SSH attempt failed.
2026-05-05 09:54:47 +10:00
dependabot[bot] 78c3cce183 chore: bump the go-dependencies group with 3 updates (#183) 2026-05-05 09:38:50 +10:00
dependabot[bot] 968cc687a0 chore: bump the npm-dependencies group (#184) 2026-05-05 09:36:26 +10:00
Julian Sommer f3b00eb85a feat: ubuntu 26.04 image 2026-05-05 09:32:29 +10:00
Julian Sommer fa071795d0 fix: use debian 13 2026-05-05 09:10:59 +10:00
Julian Sommer 2489621831 chore: merge main into dev 2026-05-05 09:04:08 +10:00
joshsiv-mulga 9ed59aac79 fix(e2e): prevent silent set -e abort on var=$(func) patterns
When a function returning non-zero is captured via command substitution
under `set -euo pipefail`, the assignment exits the script before the
following `if [ -z "$var" ]` diagnostic can run. CI failures showed up
as a sudden jump to the EXIT trap with no error message.

- run-multinode-e2e.sh: wrap get_remote_ssh_port in `if !`, bump retry
  10 -> 30, add dump_guest_ssh_diagnostics on miss
- run-pseudo-multinode-e2e.sh, run-e2e.sh: wrap get_ssh_port in `if !`
- run-lb-e2e.sh: add `|| VAR=""` fallback on pick_peer
2026-05-04 13:44:49 +10:00
joshsiv-mulga 89aec5c709 docs: warn br-wan prerequisite for curl install
Add WAN bridge prerequisite callout to single-node and multi-node
install guides. Bootstrap installer assumes br-wan exists; running
on a host whose default route is on a bare NIC leaves install in a
non-working state. Auto-provisioning will land in next release.
2026-05-01 15:59:14 +10:00
Julian Sommer cbe335e903 chore: bump single node e2e timeout to 35 mins 2026-05-01 15:51:42 +10:00
Julian Sommer e9a335f433 chore: merge main into dev (ISO installer) 2026-05-01 15:22:41 +10:00
Ben Duncan 89318d8f6e ISO method for installer 2026-05-01 15:18:00 +10:00
Julian Sommer e1b3623599 refactor: introduce vm.Manager (phase 1 of lifecycle extraction) (#176) 2026-05-01 15:15:54 +10:00
Julian Sommer 57a11c0668 fix(vpc): validate SG rule CidrIp/SourceSG to block OVN ACL injection (#182) 2026-05-01 15:15:42 +10:00
Julian Sommer 050cc03ae2 fix: daemon_test.go allocation 2026-05-01 15:14:03 +10:00
1054 changed files with 123481 additions and 31548 deletions
+21
View File
@@ -0,0 +1,21 @@
# CODEOWNERS — GitHub PR review enforcement
#
# Format: <path pattern> <owner> [<owner> …]
# Order matters — last matching pattern wins.
#
# Set the matching branch protection rule on `dev` and `main` to
# "Require review from Code Owners" or this file is advisory only.
# Fall-through: any change needs a team review.
* @mulgadc/mulgadc-engineers
# Network layer is governed by ADR-0006 invariant tests.
# Changes here must respect those clauses — see
# spinifex/network/invariants/ and
# docs/development/proposals/az-local-architecture/0006-spinifex-network-layer-contract.md
/spinifex/network/ @joshsiv-mulga
/spinifex/vpcd/ @joshsiv-mulga
# Invariants suite is the executable ADR-0006 fence — any widening or
# narrowing of the scan roots needs an explicit owner review.
/spinifex/network/invariants/ @joshsiv-mulga
+104
View File
@@ -0,0 +1,104 @@
# e2e-analyze
Post-test failure-clustering action for the Go E2E suites.
## What it does
Runs after `go-junit-report` has converted each suite's stdout into
`junit-<suite>.xml`. For every JUnit file matched by `junit-glob`:
1. Parses each `<testcase>` with a `<failure>` / `<error>` child.
2. Strips ANSI escapes, then normalises dynamic noise (UUIDs, EC2 IDs,
IPs, timestamps, request-ids, source line numbers) to produce a stable
_signature_ per failure.
3. Picks the **earliest non-cascade** failure per suite as the likely
root cause. "Cascade" = failure message matches a fixture-dependency
marker (`must populate fix.`, `Should NOT be empty`,
`Expected value not to be nil`). When every failure is a cascade
(whole suite tripped on one upstream gap), the earliest cascade is
the fallback root.
4. Buckets the remaining failures by signature and renders a markdown
report. The report is appended to `$GITHUB_STEP_SUMMARY` and also
written to `<log-dir>/analysis.md` so it travels with the uploaded
artifact bundle.
The action **never fails the job** — exit-code semantics stay with the
existing "Fail job if any suite failed" gate.
## Inputs
| Input | Required | Description |
|--------------|----------|-------------|
| `junit-glob` | yes | Shell glob for the JUnit XML files (e.g. `${ARTIFACT_DIR}/junit-*.xml`). |
| `log-dir` | yes | Directory the rendered report is written into (`analysis.md`). |
| `title` | no | Heading at the top of the summary section. Default `E2E failure analysis`. |
## Outputs
None. The summary is appended to `$GITHUB_STEP_SUMMARY`; the same
content lands at `<log-dir>/analysis.md`.
## Local invocation
Outside Actions, the analyser prints to stdout instead of appending to a
summary file:
```sh
cd spinifex/.github/actions/e2e-analyze
go run . -junit-glob "/tmp/artifacts/junit-*.xml" -log-dir /tmp/artifacts
```
## Tests
Golden-file tests live in `testdata/`. Each subdir holds a scenario:
| Scenario | Source |
|--------------------|-------------------------------------------|
| `cascade-vpcs` | Synthetic: one Phase 5 root + 15 cascades |
| `single-failure` | Real artifact from run `26037892507` |
| `no-failures` | Synthetic: clean run |
Run normally:
```sh
go test ./.github/actions/e2e-analyze/
```
When the report format changes intentionally, regenerate the snapshots:
```sh
go test ./.github/actions/e2e-analyze/ -update
```
## Per-failure bundles (Stage 2)
After parsing, the action materialises a bundle directory per failure
under `<log-dir>/analysis/NN-<TestName>/`. The report links to it from
each entry so a reader on the Actions page can click straight through
to the relevant log slice.
Each bundle contains:
| File | Source |
|-------------------|-----------------------------------------------------------------------------------|
| `failure.txt` | Synthesised summary: test, start, duration, file-site, error line. |
| `journal.log` | `spinifex-journal.log` sliced to `[StartAt − 5s, StartAt + Duration + 5s]`. |
| `test.log` | `test-<suite>.log` block between `=== RUN <name>` and the matching `--- FAIL`. |
| `<other files>` | Anything the harness already dropped into `<log-dir>/<TestName>/` at run-time. |
The journal slice relies on the workflow running
`journalctl --output=short-iso` so timestamps are parseable. Lines
without a parseable timestamp inherit the previous line's
in-window/out-of-window classification (so multi-line records and stack
traces stay contiguous).
## Roadmap
- **Stage 1 (shipped):** first-failure surfacing + cascade clustering.
- **Stage 2 (this update):** time-window correlation — per-failure bundle
with sliced journal + test-log + any per-test artifacts.
- **Stage 3:** rule-based root-cause classifier driven by
`spinifex/tests/e2e/.failure-rules.yaml`.
See `docs/development/improvements/e2e-go-failure-analysis.md` in the
parent mulga repo.
+38
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name: E2E Failure Analyzer
description: >-
Post-test analyzer for the Go E2E suites. Parses junit-*.xml emitted by
go-junit-report, clusters failures by signature, picks the earliest
non-cascade failure per suite as the likely root cause, and appends a
human-readable report to $GITHUB_STEP_SUMMARY. Always exits 0 — the
existing "Fail job if any suite failed" gate keeps owning exit-code
semantics.
inputs:
junit-glob:
description: Shell glob matching JUnit XML files to analyze.
required: true
log-dir:
description: >-
Artifact directory. The rendered report is also written to
$log-dir/analysis.md so it travels with the uploaded artifact.
required: true
title:
description: Heading rendered at the top of the summary section.
required: false
default: "E2E failure analysis"
runs:
using: composite
steps:
- id: analyze
shell: bash
working-directory: ${{ github.action_path }}
env:
ANALYZE_JUNIT_GLOB: ${{ inputs.junit-glob }}
ANALYZE_LOG_DIR: ${{ inputs.log-dir }}
ANALYZE_TITLE: ${{ inputs.title }}
run: |
go run . \
-junit-glob "$ANALYZE_JUNIT_GLOB" \
-log-dir "$ANALYZE_LOG_DIR" \
-title "$ANALYZE_TITLE"
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// Package main implements the e2e-analyze GitHub Action.
//
// Stage 1 of docs/development/improvements/e2e-go-failure-analysis.md:
// cluster failures from go-junit-report's junit-*.xml by error signature,
// pick the earliest non-cascade failure per suite as the likely root cause,
// and render a human-readable report.
//
// This file contains the pure logic (parsing, signature extraction,
// clustering, rendering). Side-effect handling lives in main.go.
package main
import (
"encoding/xml"
"fmt"
"path/filepath"
"regexp"
"sort"
"strings"
"time"
)
// JUnit XML schema produced by go-junit-report v2. Stable across versions
// we care about; only fields used downstream are decoded.
type junitSuites struct {
XMLName xml.Name `xml:"testsuites"`
Suites []junitSuite `xml:"testsuite"`
}
type junitSuite struct {
Name string `xml:"name,attr"`
Tests int `xml:"tests,attr"`
Failures int `xml:"failures,attr"`
Errors int `xml:"errors,attr"`
Skipped int `xml:"skipped,attr"`
Timestamp string `xml:"timestamp,attr"`
Time float64 `xml:"time,attr"`
Cases []junitTC `xml:"testcase"`
}
type junitTC struct {
Name string `xml:"name,attr"`
Classname string `xml:"classname,attr"`
Time float64 `xml:"time,attr"`
Failure *junitFailure `xml:"failure"`
Error *junitFailure `xml:"error"`
Skipped *junitSkipped `xml:"skipped"`
SystemOut string `xml:"system-out"`
}
type junitFailure struct {
Message string `xml:"message,attr"`
Type string `xml:"type,attr"`
Body string `xml:",chardata"`
}
type junitSkipped struct {
Message string `xml:"message,attr"`
}
// Failure is the analyzer's normalized view of one failed testcase.
type Failure struct {
SuiteFile string // e.g. "single" (derived from junit-single.xml)
Name string // e.g. "TestSingleNode/Phase5_LaunchInstance"
Duration float64 // seconds
Order int // position within the suite (0-based)
StartAt time.Time // estimated wall-clock start: suite.timestamp + sum(prior durations)
Error string // last meaningful error line, ANSI-stripped
FileHint string // e.g. "vpc_test.go:227", parsed from failure body
Cascade bool // signature matched a known downstream pattern
Signature string // normalized error key for bucketing
// OffsetFromSuiteStart is sum(prior testcase durations) at the time
// this test started. Persisted separately from StartAt so a caller
// that has a more authoritative suite wall-clock origin (e.g. a
// `test-<suite>.start` file written by the workflow before the suite
// runs) can recompute StartAt without re-parsing the XML.
OffsetFromSuiteStart time.Duration
// BundlePath is the relative path (from log-dir) to the per-failure
// bundle written by Stage 2's WriteBundles. Empty when bundles were
// not generated (e.g. unit tests that call Render directly).
BundlePath string
}
// SuiteReport summarises one junit-*.xml file.
type SuiteReport struct {
File string // basename, e.g. "junit-single.xml"
Label string // short name, e.g. "single"
Total int
FailCount int
Root *Failure // nil if no failures
Cascades []Failure // everything else that failed in this suite
Buckets [][]Failure // failures grouped by signature (root's bucket first)
}
// Report is the full analysis across every junit file.
type Report struct {
Title string
Suites []SuiteReport
}
// ansiSeq matches ANSI CSI escapes the harness sprinkles through log
// output (colours, bold). Three forms in the wild:
// - real ESC: `\x1b[36m…`
// - U+FFFD replacement (XML serialiser dropped the ESC byte): `�[36m…`
// - bare CSI with the leading byte gone entirely: `[36m…`
//
// All three are stripped so colour state doesn't fork the signature bucket.
var ansiSeq = regexp.MustCompile(
"\x1b\\[[0-9;]*[a-zA-Z]" + // real ESC CSI
"|�\\[[0-9;]*[a-zA-Z]" + // replacement-char CSI
"|\\[[0-9]{1,2}(?:;[0-9]{1,2})*m", // bare colour code, "mode" form only
)
// cascadeMarkers are message fragments that only appear in tests that
// depend on a fixture field populated by an earlier phase. Their presence
// means the failure is downstream of some other failure that happened
// first; the report collapses them under that root cause.
var cascadeMarkers = []string{
"must populate fix.",
"Should NOT be empty",
"Expected value not to be nil",
}
// noiseReplacers normalise dynamic identifiers so that "ten failures, same
// bug" bucket together. Pattern ordering matters: longer/more-specific
// patterns must precede the catch-alls.
var noiseReplacers = []struct {
re *regexp.Regexp
repl string
}{
{regexp.MustCompile(`\b(vpc|subnet|sg|rtb|igw|i|ami|vol|snap|rtbassoc|key)-[0-9a-f]{8,}\b`), `${1}-<id>`},
{regexp.MustCompile(`\b[0-9a-f]{8}-[0-9a-f]{4}-[0-9a-f]{4}-[0-9a-f]{4}-[0-9a-f]{12}\b`), `<uuid>`},
{regexp.MustCompile(`\b[0-9a-f]{32,}\b`), `<hex>`},
{regexp.MustCompile(`\b\d{1,3}(\.\d{1,3}){3}(:\d+)?\b`), `<ip>`},
{regexp.MustCompile(`\b\d{4}-\d{2}-\d{2}T\d{2}:\d{2}:\d{2}(?:\.\d+)?(?:Z|[+-]\d{2}:?\d{2})?\b`), `<ts>`},
{regexp.MustCompile(`request-id:\s*\S+`), `request-id: <id>`},
{regexp.MustCompile(`(_test\.go):\d+`), `${1}:<line>`},
{regexp.MustCompile(`\s+`), ` `},
}
// fileHintRe pulls the last "foo_test.go:NNN" we see in a failure body so
// the report can point a reader at the source line. Test files dominate the
// hint set; harness/helper file matches go through goFileLineRe below.
var fileHintRe = regexp.MustCompile(`([A-Za-z0-9_]+_test\.go:\d+)`)
// goFileLineRe matches any "foo.go:NNN:" prefix (test or non-test). Used to
// surface harness/helper-level error text like
// `ec2helpers.go:164: describe-vpcs: InvalidParameterValue …` which Go test
// emits when a non-test file calls t.Errorf.
var goFileLineRe = regexp.MustCompile(`^[A-Za-z0-9_]+\.go:\d+:\s*(.+)$`)
// testifyErrorPlaceholder is testify's "Error:" boilerplate when the
// assertion failed because of a wrapped error. The next non-blank line in
// the trace holds the actual error text.
const testifyErrorPlaceholder = "Received unexpected error:"
// stripANSI removes CSI escapes; leaves everything else intact.
func stripANSI(s string) string {
return ansiSeq.ReplaceAllString(s, "")
}
// extractErrorLine finds the most useful single-line summary in a failure
// body. Priority order, highest first:
// 1. Testify "Messages:" line — user-supplied context, the most signal-rich.
// 2. Testify "Error:" content (with one-line lookahead when the placeholder
// "Received unexpected error:" defers to the next line).
// 3. Leading "foo.go:NNN: text" content line — t.Errorf from non-test code.
// 4. Last `_test.go:NNN: text` line — bare t.Fatalf/Errorf from a test file.
// 5. First non-empty line of the body.
func extractErrorLine(body string) string {
body = stripANSI(body)
lines := strings.Split(body, "\n")
var (
msgLine string
errLine string
goFileLine string
lastTestLine string
)
for i, raw := range lines {
l := strings.TrimSpace(raw)
if l == "" {
continue
}
if strings.HasPrefix(l, "Messages:") {
msgLine = strings.TrimSpace(strings.TrimPrefix(l, "Messages:"))
continue
}
if strings.HasPrefix(l, "Error:") && errLine == "" {
content := strings.TrimSpace(strings.TrimPrefix(l, "Error:"))
if content == testifyErrorPlaceholder {
// Look ahead for the wrapped error text on the next non-blank line.
for j := i + 1; j < len(lines); j++ {
nxt := strings.TrimSpace(lines[j])
if nxt == "" {
continue
}
if strings.HasPrefix(nxt, "Test:") || strings.HasPrefix(nxt, "Messages:") {
break
}
content = content + " " + nxt
break
}
}
errLine = content
continue
}
if m := goFileLineRe.FindStringSubmatch(l); m != nil {
// Keep the LAST occurrence: t.Log / harness traces emit
// progress lines from the same file:line pattern before the
// failing assertion finally fires.
goFileLine = strings.TrimSpace(m[1])
continue
}
if fileHintRe.MatchString(l) {
lastTestLine = l
}
}
switch {
case msgLine != "":
return msgLine
case errLine != "":
return errLine
case goFileLine != "":
return goFileLine
case lastTestLine != "":
// "vpc_test.go:227: Eventually: condition not met …" → trim the file prefix.
if i := strings.Index(lastTestLine, ": "); i > 0 {
return strings.TrimSpace(lastTestLine[i+2:])
}
return lastTestLine
}
// Last resort: first non-empty line of the body.
for _, raw := range lines {
l := strings.TrimSpace(raw)
if l != "" {
return l
}
}
return ""
}
// errorTraceRe extracts the path from testify's "Error Trace:" line — e.g.
//
// Error Trace: tests/e2e/harness/ec2helpers.go:164
//
// — which points at the assertion site even when it lives in helper code
// outside *_test.go.
var errorTraceRe = regexp.MustCompile(`Error Trace:\s*(\S+\.go:\d+)`)
// extractFileHint returns the most precise pointer at the assertion site
// we can pull from the failure body: testify Error Trace wins, otherwise
// the last `*_test.go:NNN` line in the body.
func extractFileHint(body string) string {
body = stripANSI(body)
if m := errorTraceRe.FindStringSubmatch(body); m != nil {
return m[1]
}
all := fileHintRe.FindAllString(body, -1)
if len(all) == 0 {
return ""
}
return all[len(all)-1]
}
// signature normalises an error line so different runs of the same root
// cause bucket together. Empty signatures (e.g. parent-test placeholders
// where the failure body is empty) bucket together under "".
func signature(errLine string) string {
s := strings.ToLower(errLine)
for _, r := range noiseReplacers {
s = r.re.ReplaceAllString(s, r.repl)
}
return strings.TrimSpace(s)
}
// isCascade reports whether the error line contains any of the well-known
// fixture-propagation markers — i.e. "this test failed because something
// upstream of it failed first".
func isCascade(errLine string) bool {
for _, m := range cascadeMarkers {
if strings.Contains(errLine, m) {
return true
}
}
return false
}
// computeLeafSet returns the testcase names that are leaves — i.e. no
// other testcase name in `cases` starts with `<name>/`. go-junit-report
// emits one <testcase> for the parent Go test AND each subtest, with the
// parent's time = sum of its children, so summing every entry into the
// suite's cumulative offset double-counts. Restrict accumulation to
// leaves only.
func computeLeafSet(cases []junitTC) map[string]bool {
leaf := make(map[string]bool, len(cases))
for _, tc := range cases {
leaf[tc.Name] = true
}
for _, tc := range cases {
// Strip the deepest path segment; any ancestor of this test is
// not a leaf.
name := tc.Name
for {
i := strings.LastIndex(name, "/")
if i <= 0 {
break
}
name = name[:i]
if _, ok := leaf[name]; ok {
leaf[name] = false
}
}
}
return leaf
}
// parseStartTime turns a junit timestamp attr (RFC3339) into a time.Time;
// zero value if unparseable.
func parseStartTime(s string) time.Time {
if s == "" {
return time.Time{}
}
t, err := time.Parse(time.RFC3339, s)
if err != nil {
return time.Time{}
}
return t
}
// suiteLabel turns "junit-single.xml" into "single".
func suiteLabel(path string) string {
base := filepath.Base(path)
base = strings.TrimSuffix(base, ".xml")
base = strings.TrimPrefix(base, "junit-")
if base == "" {
return filepath.Base(path)
}
return base
}
// ParseFile decodes one junit-*.xml file into our normalized failure list.
// Returns the suite label, total testcase count, and the (ordered) failures.
func ParseFile(path string, data []byte) (SuiteReport, error) {
var doc junitSuites
if err := xml.Unmarshal(data, &doc); err != nil {
return SuiteReport{}, fmt.Errorf("parse %s: %w", path, err)
}
rep := SuiteReport{
File: filepath.Base(path),
Label: suiteLabel(path),
}
order := 0
for _, suite := range doc.Suites {
start := parseStartTime(suite.Timestamp)
// go-junit-report emits a testcase for both the parent Go test
// (e.g. `TestSingleNode`) AND each subtest (`TestSingleNode/PhaseX`).
// The parent's `time` attribute is the aggregate of its children, so
// summing every testcase double-counts. Pre-compute the leaf set so
// only leaves contribute to the suite's running offset.
isLeaf := computeLeafSet(suite.Cases)
cumul := 0.0
for _, tc := range suite.Cases {
rep.Total++
leaf := isLeaf[tc.Name]
var body string
switch {
case tc.Failure != nil:
body = tc.Failure.Body
case tc.Error != nil:
body = tc.Error.Body
default:
if leaf {
cumul += tc.Time
}
continue
}
// Skip the synthetic parent-test "Failed" stub that go-junit-report
// emits for any Go test whose subtests failed. It has an empty body
// and would otherwise outrank real failures by XML order.
trimmed := strings.TrimSpace(stripANSI(body))
if trimmed == "" {
if leaf {
cumul += tc.Time
}
continue
}
errLine := extractErrorLine(body)
offset := time.Duration(cumul * float64(time.Second))
f := Failure{
SuiteFile: rep.Label,
Name: tc.Name,
Duration: tc.Time,
Order: order,
Error: errLine,
FileHint: extractFileHint(body),
Cascade: isCascade(errLine),
Signature: signature(errLine),
OffsetFromSuiteStart: offset,
}
if !start.IsZero() {
f.StartAt = start.Add(offset)
}
rep.FailCount++
rep.Cascades = append(rep.Cascades, f) // temp staging; split below
order++
if leaf {
cumul += tc.Time
}
}
}
if rep.FailCount == 0 {
rep.Cascades = nil
return rep, nil
}
all := rep.Cascades
rep.Cascades = nil
// Root = earliest non-cascade. If every failure is a cascade (the whole
// suite tripped on the same upstream gap), fall back to earliest overall.
rootIdx := -1
for i, f := range all {
if !f.Cascade {
rootIdx = i
break
}
}
if rootIdx == -1 {
rootIdx = 0
}
root := all[rootIdx]
rep.Root = &root
// Bucket the remainder by signature so the report can collapse the
// "ten failures, same bug" pattern.
bucketKeys := []string{}
buckets := map[string][]Failure{}
for i, f := range all {
if i == rootIdx {
continue
}
if _, seen := buckets[f.Signature]; !seen {
bucketKeys = append(bucketKeys, f.Signature)
}
buckets[f.Signature] = append(buckets[f.Signature], f)
rep.Cascades = append(rep.Cascades, f)
}
// Largest bucket first; ties broken by first-seen order so output is
// deterministic across runs.
sort.SliceStable(bucketKeys, func(i, j int) bool {
return len(buckets[bucketKeys[i]]) > len(buckets[bucketKeys[j]])
})
for _, k := range bucketKeys {
rep.Buckets = append(rep.Buckets, buckets[k])
}
return rep, nil
}
// Render writes the markdown report. Format is documented in
// docs/development/improvements/e2e-go-failure-analysis.md (Stage 1).
func Render(r Report) string {
var b strings.Builder
fmt.Fprintf(&b, "## %s\n\n", r.Title)
totalFail := 0
for _, s := range r.Suites {
totalFail += s.FailCount
}
if totalFail == 0 {
b.WriteString("✅ No failures across any suite.\n")
return b.String()
}
for _, s := range r.Suites {
if s.FailCount == 0 {
fmt.Fprintf(&b, "### Suite `%s`: ✅ pass (%d tests)\n\n", s.Label, s.Total)
continue
}
fmt.Fprintf(&b, "### Suite `%s`: %d failed, 1 root cause likely\n\n", s.Label, s.FailCount)
if s.Root != nil {
b.WriteString("**Root cause (earliest non-cascade)**\n\n")
fmt.Fprintf(&b, "- Test: `%s`\n", s.Root.Name)
if !s.Root.StartAt.IsZero() {
fmt.Fprintf(&b, "- Start: %s (duration %.1fs)\n",
s.Root.StartAt.Format("15:04:05"), s.Root.Duration)
} else {
fmt.Fprintf(&b, "- Duration: %.1fs\n", s.Root.Duration)
}
if s.Root.Error != "" {
fmt.Fprintf(&b, "- Error: %s\n", oneLine(s.Root.Error))
}
if s.Root.FileHint != "" {
fmt.Fprintf(&b, "- File: `%s`\n", s.Root.FileHint)
}
if s.Root.BundlePath != "" {
fmt.Fprintf(&b, "- Bundle: `%s/`\n", s.Root.BundlePath)
}
b.WriteString("\n")
}
if len(s.Buckets) > 0 {
fmt.Fprintf(&b, "**Cascaded failures (%d) — grouped by signature**\n\n",
len(s.Cascades))
for _, bucket := range s.Buckets {
sample := bucket[0]
label := oneLine(sample.Error)
if label == "" {
label = "(no error message)"
}
fmt.Fprintf(&b, "- %d× %s\n", len(bucket), label)
// List up to 5 test names per bucket; collapse the rest.
const cap = 5
for i, f := range bucket {
if i == cap && len(bucket) > cap {
fmt.Fprintf(&b, " - … and %d more\n", len(bucket)-cap)
break
}
if f.BundlePath != "" {
fmt.Fprintf(&b, " - `%s` → `%s/`\n", f.Name, f.BundlePath)
} else {
fmt.Fprintf(&b, " - `%s`\n", f.Name)
}
}
}
b.WriteString("\n")
}
}
return b.String()
}
// oneLine collapses whitespace and caps length so a runaway assertion
// message doesn't blow out the summary card width.
func oneLine(s string) string {
s = strings.TrimSpace(s)
s = strings.ReplaceAll(s, "\n", " ")
s = strings.ReplaceAll(s, "\r", " ")
s = regexp.MustCompile(`\s+`).ReplaceAllString(s, " ")
const max = 160
if len(s) > max {
s = s[:max-1] + "…"
}
return s
}
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@@ -0,0 +1,191 @@
package main
import (
"flag"
"os"
"path/filepath"
"sort"
"strings"
"testing"
)
// updateGolden lets `go test ./.github/actions/e2e-analyze/ -update` rewrite
// the expected analysis.md files when the rendering format changes
// intentionally. Day-to-day, leave it unset: tests diff against the on-disk
// snapshot to catch unintended drift in signature extraction or layout.
var updateGolden = flag.Bool("update", false, "rewrite testdata/*/analysis.md from current output")
// TestGoldenFixtures runs the full ParseFile + Render pipeline against each
// fixture directory under testdata/ and asserts the output matches the
// adjacent analysis.md snapshot. Each subdir is one named scenario; the
// fixture XMLs match the same junit-*.xml glob the production action uses
// so behaviour stays representative of CI.
func TestGoldenFixtures(t *testing.T) {
entries, err := os.ReadDir("testdata")
if err != nil {
t.Fatalf("read testdata: %v", err)
}
for _, e := range entries {
if !e.IsDir() {
continue
}
name := e.Name()
t.Run(name, func(t *testing.T) {
dir := filepath.Join("testdata", name)
matches, err := filepath.Glob(filepath.Join(dir, "junit-*.xml"))
if err != nil {
t.Fatalf("glob: %v", err)
}
sort.Strings(matches)
if len(matches) == 0 {
t.Fatalf("no junit-*.xml fixtures in %s", dir)
}
rep := Report{Title: "E2E failure analysis"}
for _, p := range matches {
data, err := os.ReadFile(p)
if err != nil {
t.Fatalf("read %s: %v", p, err)
}
sr, err := ParseFile(p, data)
if err != nil {
t.Fatalf("parse %s: %v", p, err)
}
rep.Suites = append(rep.Suites, sr)
}
got := Render(rep)
goldenPath := filepath.Join(dir, "analysis.md")
if *updateGolden {
if err := os.WriteFile(goldenPath, []byte(got), 0o644); err != nil {
t.Fatalf("write golden: %v", err)
}
return
}
want, err := os.ReadFile(goldenPath)
if err != nil {
t.Fatalf("read golden (run with -update to seed): %v", err)
}
if string(want) != got {
t.Errorf("rendered output differs from %s\n--- want ---\n%s\n--- got ---\n%s",
goldenPath, string(want), got)
}
})
}
}
func TestSignatureCollapsesNoise(t *testing.T) {
a := signature("describe-vpcs: InvalidParameterValue request-id: abc-123 vpc-deadbeefcafe1234")
b := signature("describe-vpcs: InvalidParameterValue request-id: xyz-999 vpc-1111222233334444")
if a != b {
t.Errorf("signatures should collapse to same bucket:\n a=%q\n b=%q", a, b)
}
if !strings.Contains(a, "<id>") || !strings.Contains(a, "vpc-<id>") {
t.Errorf("expected normalised placeholders in signature, got %q", a)
}
}
func TestCascadeDetection(t *testing.T) {
cases := []struct {
in string
want bool
}{
{"Phase 5 must populate fix.InstanceID", true},
{"Should NOT be empty", true},
{"Expected value not to be nil", true},
{"describe-vpcs: InvalidParameterValue", false},
{"Eventually: condition not met within 3m0s", false},
}
for _, c := range cases {
if got := isCascade(c.in); got != c.want {
t.Errorf("isCascade(%q) = %v, want %v", c.in, got, c.want)
}
}
}
func TestExtractErrorLine_MessagesWinsOverError(t *testing.T) {
body := ` lifecycle_test.go:28:
Error Trace: tests/e2e/single/lifecycle_test.go:28
Error: Should NOT be empty
Messages: Phase 5 must populate fix.InstanceID
Test: TestSingleNode/Phase5a_pre_ClusterStats`
got := extractErrorLine(body)
want := "Phase 5 must populate fix.InstanceID"
if got != want {
t.Errorf("extractErrorLine = %q, want %q", got, want)
}
}
func TestExtractErrorLine_FallsBackToLastTestLine(t *testing.T) {
body := " vpc_test.go:227: Eventually: condition not met within 3m0s: [SSH handshake never completed]"
got := extractErrorLine(body)
if !strings.HasPrefix(got, "Eventually:") {
t.Errorf("expected fallback to test-line content, got %q", got)
}
}
func TestExtractFileHint_PicksLastMatch(t *testing.T) {
body := "ec2helpers.go:50: setup\n vpc_test.go:227: Eventually: condition not met"
got := extractFileHint(body)
want := "vpc_test.go:227"
if got != want {
t.Errorf("extractFileHint = %q, want %q", got, want)
}
}
func TestParseFile_SkipsEmptyParentFailure(t *testing.T) {
// The synthetic "TestSingleNode" parent gets a <failure message="Failed"/>
// with no body whenever any subtest fails. The analyzer must skip it so
// it doesn't outrank the real first failure on XML order.
xml := []byte(`<?xml version="1.0"?>
<testsuites><testsuite name="" tests="2" failures="2">
<testcase name="TestX" time="1.0"><failure message="Failed"></failure></testcase>
<testcase name="TestX/RealFailure" time="0.5"><failure message="Failed"><![CDATA[
foo_test.go:10:
Messages: real assertion message
]]></failure></testcase>
</testsuite></testsuites>`)
sr, err := ParseFile("junit-x.xml", xml)
if err != nil {
t.Fatalf("ParseFile: %v", err)
}
if sr.FailCount != 1 {
t.Fatalf("FailCount = %d, want 1 (empty parent should be skipped)", sr.FailCount)
}
if sr.Root == nil || sr.Root.Name != "TestX/RealFailure" {
t.Fatalf("expected real failure as root, got %+v", sr.Root)
}
}
func TestParseFile_CascadeFallbackWhenAllCascades(t *testing.T) {
// If every failure is a cascade marker, the earliest one becomes root
// so the report isn't blank.
xml := []byte(`<?xml version="1.0"?>
<testsuites><testsuite name="" tests="2" failures="2">
<testcase name="TestX/A" time="1.0"><failure message="Failed"><![CDATA[
Messages: Phase 5 must populate fix.InstanceID
]]></failure></testcase>
<testcase name="TestX/B" time="1.0"><failure message="Failed"><![CDATA[
Messages: Phase 5 must populate fix.InstanceID
]]></failure></testcase>
</testsuite></testsuites>`)
sr, err := ParseFile("junit-x.xml", xml)
if err != nil {
t.Fatalf("ParseFile: %v", err)
}
if sr.Root == nil || sr.Root.Name != "TestX/A" {
t.Fatalf("expected TestX/A as fallback root, got %+v", sr.Root)
}
}
func TestRender_NoFailuresIsClean(t *testing.T) {
out := Render(Report{
Title: "E2E failure analysis",
Suites: []SuiteReport{
{File: "junit-single.xml", Label: "single", Total: 3, FailCount: 0},
},
})
if !strings.Contains(out, "No failures") {
t.Errorf("expected zero-failure banner, got:\n%s", out)
}
}
+208
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package main
// Stage 2 of docs/development/improvements/e2e-go-failure-analysis.md:
// for each failure surfaced by Stage 1, materialise a per-failure bundle
// directory containing the failure summary, a time-window slice of the
// daemon journal, a testcase-window slice of the suite's stdout log, and
// any per-test artifacts the harness already dumped at run-time.
import (
"errors"
"fmt"
"io/fs"
"os"
"path/filepath"
"regexp"
"strings"
"time"
)
// bundlePad is the per-failure window padding either side of the
// [StartAt, StartAt+Duration] testcase span. Five seconds matches the
// plan doc: long enough to catch the daemon's pre-test setup and
// post-test cleanup chatter, short enough to keep the slice focused.
const bundlePad = 5 * time.Second
// nameSanitiseRe replaces characters unsafe in directory names with `_`.
// Tracks tests/e2e/harness/artifacts.go which uses the same convention
// when the test's own dump dir is created, so we can pick its contents
// up by path without a second translation table.
var nameSanitiseRe = regexp.MustCompile(`[^A-Za-z0-9._-]+`)
func sanitiseTestName(s string) string {
return nameSanitiseRe.ReplaceAllString(s, "_")
}
// ApplySuiteStartFiles overrides each failure's StartAt by reading
// <logDir>/test-<suiteLabel>.start (RFC3339 timestamp written by the
// workflow before the suite runs). Required because go-junit-report's
// `timestamp` attribute on <testsuite> records the time the XML was
// produced — i.e. after the suite has finished — so it can't be used
// as the suite wall-clock origin for journal slicing.
//
// Missing or unparseable files are silently ignored: the analyzer
// falls back to the junit timestamp and the bundle still gets created,
// it just may have an empty (or off-window) journal slice.
func ApplySuiteStartFiles(rep *Report, logDir string) {
if logDir == "" {
return
}
for si := range rep.Suites {
s := &rep.Suites[si]
startPath := filepath.Join(logDir, fmt.Sprintf("test-%s.start", s.Label))
data, err := os.ReadFile(startPath)
if err != nil {
continue
}
ts, err := time.Parse(time.RFC3339, strings.TrimSpace(string(data)))
if err != nil {
fmt.Fprintf(os.Stderr, "::warning::e2e-analyze: parse %s: %v\n", startPath, err)
continue
}
if s.Root != nil {
s.Root.StartAt = ts.Add(s.Root.OffsetFromSuiteStart)
}
for ci := range s.Cascades {
s.Cascades[ci].StartAt = ts.Add(s.Cascades[ci].OffsetFromSuiteStart)
}
for bi := range s.Buckets {
for fi := range s.Buckets[bi] {
f := &s.Buckets[bi][fi]
f.StartAt = ts.Add(f.OffsetFromSuiteStart)
}
}
}
}
// WriteBundles materialises per-failure bundles under <logDir>/analysis/.
// Mutates rep in-place so each Failure.BundlePath holds the relative
// path the renderer will link from the summary.
//
// Failures with no parseable wall-clock start still get a bundle dir
// (and the testcase-window test.log slice), but no journal slice — the
// time window is unknown.
//
// Errors are non-fatal: a bundle that partially fails still gets linked
// from the report so a reader sees what's available, and the analyzer
// keeps printing warnings so CI logs surface the gap.
func WriteBundles(rep *Report, logDir string) {
if logDir == "" {
return
}
base := filepath.Join(logDir, "analysis")
if err := os.MkdirAll(base, 0o755); err != nil {
fmt.Fprintf(os.Stderr, "::warning::e2e-analyze: mkdir %s: %v\n", base, err)
return
}
for si := range rep.Suites {
s := &rep.Suites[si]
if s.Root != nil {
writeOneBundle(logDir, base, s.Label, s.Root)
}
for ci := range s.Cascades {
writeOneBundle(logDir, base, s.Label, &s.Cascades[ci])
}
// Bucket entries share storage with Cascades but live in a
// separate slice in SuiteReport; mirror the bundle path so the
// renderer's bucket loop sees it too.
for bi := range s.Buckets {
for fi := range s.Buckets[bi] {
f := &s.Buckets[bi][fi]
if bp := findBundlePath(s, f.Name); bp != "" {
f.BundlePath = bp
}
}
}
}
}
// findBundlePath looks up a Failure's already-written BundlePath by test
// name within a suite. Buckets reference the same logical failure as
// Cascades but are independent slice values, so we copy the path across
// rather than re-deriving it.
func findBundlePath(s *SuiteReport, testName string) string {
if s.Root != nil && s.Root.Name == testName {
return s.Root.BundlePath
}
for _, c := range s.Cascades {
if c.Name == testName {
return c.BundlePath
}
}
return ""
}
func writeOneBundle(logDir, base, suiteLabel string, f *Failure) {
name := fmt.Sprintf("%02d-%s", f.Order+1, sanitiseTestName(f.Name))
dir := filepath.Join(base, name)
if err := os.MkdirAll(dir, 0o755); err != nil {
fmt.Fprintf(os.Stderr, "::warning::e2e-analyze: mkdir %s: %v\n", dir, err)
return
}
f.BundlePath = filepath.Join("analysis", name)
writeFailureSummary(dir, suiteLabel, f)
if !f.StartAt.IsZero() {
start := f.StartAt.Add(-bundlePad)
end := f.StartAt.Add(time.Duration(f.Duration * float64(time.Second))).Add(bundlePad)
journalSrc := filepath.Join(logDir, "spinifex-journal.log")
if _, err := SliceJournal(journalSrc, start, end, filepath.Join(dir, "journal.log")); err != nil {
fmt.Fprintf(os.Stderr, "::warning::e2e-analyze: slice journal for %s: %v\n", f.Name, err)
}
}
testLogSrc := filepath.Join(logDir, fmt.Sprintf("test-%s.log", suiteLabel))
if _, err := SliceTestLog(testLogSrc, f.Name, filepath.Join(dir, "test.log")); err != nil {
fmt.Fprintf(os.Stderr, "::warning::e2e-analyze: slice test log for %s: %v\n", f.Name, err)
}
// Per-test artifact subdir written by harness.ArtifactDir lives at
// <logDir>/<TestName with / replaced by _>/. Copy any files into
// the bundle so qemu/ovs/etc. dumps already collected by the test
// travel alongside the analysis.
perTestSrc := filepath.Join(logDir, strings.ReplaceAll(f.Name, "/", "_"))
if entries, err := os.ReadDir(perTestSrc); err == nil {
for _, e := range entries {
if e.IsDir() {
continue
}
_ = copyFile(filepath.Join(perTestSrc, e.Name()), filepath.Join(dir, e.Name()))
}
} else if !os.IsNotExist(err) && !errorsIsNotDir(err) {
fmt.Fprintf(os.Stderr, "::warning::e2e-analyze: read per-test dir %s: %v\n", perTestSrc, err)
}
}
// errorsIsNotDir handles the case where the harness wrote a file at the
// per-test name instead of a directory — best-effort skip.
func errorsIsNotDir(err error) bool {
var pe *fs.PathError
if !errors.As(err, &pe) {
return false
}
return pe.Err != nil && strings.Contains(pe.Err.Error(), "not a directory")
}
func writeFailureSummary(dir, suiteLabel string, f *Failure) {
var b strings.Builder
fmt.Fprintf(&b, "Suite: %s\n", suiteLabel)
fmt.Fprintf(&b, "Test: %s\n", f.Name)
if !f.StartAt.IsZero() {
fmt.Fprintf(&b, "Start: %s\n", f.StartAt.Format(time.RFC3339))
}
fmt.Fprintf(&b, "Duration: %.3fs\n", f.Duration)
if f.FileHint != "" {
fmt.Fprintf(&b, "Site: %s\n", f.FileHint)
}
if f.Cascade {
b.WriteString("Cascade: yes (downstream of another failure)\n")
}
if f.Error != "" {
b.WriteString("\nError:\n")
b.WriteString(oneLine(f.Error))
b.WriteString("\n")
}
_ = os.WriteFile(filepath.Join(dir, "failure.txt"), []byte(b.String()), 0o644)
}
+229
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@@ -0,0 +1,229 @@
package main
import (
"fmt"
"os"
"path/filepath"
"strings"
"testing"
"time"
)
func TestSliceJournal_KeepsOnlyWindow(t *testing.T) {
src := filepath.Join(t.TempDir(), "journal.log")
dst := filepath.Join(t.TempDir(), "out.log")
body := strings.Join([]string{
"2026-05-19T12:32:30+1000 host spinifex-daemon[1]: pre",
" continuation of pre",
"2026-05-19T12:32:35+1000 host spinifex-daemon[1]: IN window",
" multiline inside window",
"2026-05-19T12:32:45+1000 host spinifex-daemon[1]: post",
"",
}, "\n")
if err := os.WriteFile(src, []byte(body), 0o644); err != nil {
t.Fatalf("write src: %v", err)
}
start, _ := time.Parse(time.RFC3339, "2026-05-19T12:32:33+10:00")
end, _ := time.Parse(time.RFC3339, "2026-05-19T12:32:40+10:00")
n, err := SliceJournal(src, start, end, dst)
if err != nil {
t.Fatalf("SliceJournal: %v", err)
}
if n != 2 {
t.Fatalf("written = %d, want 2", n)
}
got, _ := os.ReadFile(dst)
if !strings.Contains(string(got), "IN window") || !strings.Contains(string(got), "multiline inside window") {
t.Errorf("missing in-window content:\n%s", got)
}
if strings.Contains(string(got), "pre") || strings.Contains(string(got), "post") {
t.Errorf("kept out-of-window content:\n%s", got)
}
}
func TestSliceJournal_AcceptsRFC3339ColonOffset(t *testing.T) {
// systemd's `journalctl --output=short-iso` ships RFC3339 timestamps
// (offset includes a colon, e.g. "+10:00") on most versions. Earlier
// regex only matched "+1000" — make sure both forms work.
src := filepath.Join(t.TempDir(), "journal.log")
dst := filepath.Join(t.TempDir(), "out.log")
body := strings.Join([]string{
"2026-05-19T12:32:30+10:00 host spinifex-daemon[1]: pre",
"2026-05-19T12:32:35+10:00 host spinifex-daemon[1]: IN window",
"2026-05-19T12:32:50+10:00 host spinifex-daemon[1]: post",
"",
}, "\n")
if err := os.WriteFile(src, []byte(body), 0o644); err != nil {
t.Fatalf("write src: %v", err)
}
start, _ := time.Parse(time.RFC3339, "2026-05-19T12:32:33+10:00")
end, _ := time.Parse(time.RFC3339, "2026-05-19T12:32:40+10:00")
n, err := SliceJournal(src, start, end, dst)
if err != nil {
t.Fatalf("SliceJournal: %v", err)
}
if n != 1 {
t.Fatalf("written = %d, want 1", n)
}
got, _ := os.ReadFile(dst)
if !strings.Contains(string(got), "IN window") {
t.Errorf("missing in-window content:\n%s", got)
}
}
func TestSliceJournal_MissingSrcIsNotError(t *testing.T) {
dst := filepath.Join(t.TempDir(), "out.log")
n, err := SliceJournal("/no/such/file", time.Now(), time.Now(), dst)
if err != nil {
t.Fatalf("unexpected err: %v", err)
}
if n != 0 {
t.Errorf("written = %d, want 0", n)
}
}
func TestSliceTestLog_PicksOneTestcase(t *testing.T) {
src := filepath.Join(t.TempDir(), "test.log")
dst := filepath.Join(t.TempDir(), "out.log")
body := strings.Join([]string{
"=== RUN TestSingleNode",
" before subtests",
"=== RUN TestSingleNode/Phase5_LaunchInstance",
" runinstances",
" ec2helpers.go:164: describe-vpcs: InvalidParameterValue",
"--- FAIL: TestSingleNode/Phase5_LaunchInstance (2.50s)",
"=== RUN TestSingleNode/Phase6_Volumes",
" other content",
"--- FAIL: TestSingleNode/Phase6_Volumes (0.10s)",
"--- FAIL: TestSingleNode (10.0s)",
"",
}, "\n")
if err := os.WriteFile(src, []byte(body), 0o644); err != nil {
t.Fatalf("write src: %v", err)
}
n, err := SliceTestLog(src, "TestSingleNode/Phase5_LaunchInstance", dst)
if err != nil {
t.Fatalf("SliceTestLog: %v", err)
}
if n != 4 {
t.Fatalf("written = %d, want 4 (RUN + 2 inner + FAIL)", n)
}
got, _ := os.ReadFile(dst)
s := string(got)
if !strings.Contains(s, "describe-vpcs: InvalidParameterValue") {
t.Errorf("missing failure line:\n%s", s)
}
if strings.Contains(s, "Phase6_Volumes") || strings.Contains(s, "before subtests") {
t.Errorf("leaked sibling test content:\n%s", s)
}
}
func TestSliceTestLog_UnknownTestcaseIsEmpty(t *testing.T) {
src := filepath.Join(t.TempDir(), "test.log")
dst := filepath.Join(t.TempDir(), "out.log")
if err := os.WriteFile(src, []byte("=== RUN TestX\n--- PASS: TestX (0.0s)\n"), 0o644); err != nil {
t.Fatalf("write src: %v", err)
}
n, err := SliceTestLog(src, "TestY", dst)
if err != nil {
t.Fatalf("SliceTestLog: %v", err)
}
if n != 0 {
t.Errorf("written = %d, want 0", n)
}
if _, err := os.Stat(dst); err != nil {
t.Errorf("dst not created: %v", err)
}
}
// TestWriteBundles_EndToEnd builds a fake artifact dir with a junit XML,
// a journal log, a test log, and a per-test artifact subdir, then runs
// the full ParseFile → WriteBundles pipeline and asserts the bundle dir
// contains everything the report links to.
func TestWriteBundles_EndToEnd(t *testing.T) {
dir := t.TempDir()
junit := `<?xml version="1.0"?>
<testsuites><testsuite name="" tests="2" failures="1" timestamp="2026-05-19T12:32:30+10:00" time="3.0">
<testcase name="TestSingleNode/Phase5_LaunchInstance" time="2.500">
<failure message="Failed"><![CDATA[
ec2helpers.go:164: describe-vpcs: InvalidParameterValue (status 400)
Error Trace: tests/e2e/harness/ec2helpers.go:164
Test: TestSingleNode/Phase5_LaunchInstance]]></failure>
</testcase>
</testsuite></testsuites>`
if err := os.WriteFile(filepath.Join(dir, "junit-single.xml"), []byte(junit), 0o644); err != nil {
t.Fatalf("write junit: %v", err)
}
journal := strings.Join([]string{
"2026-05-19T12:32:20+1000 host spinifex-daemon[1]: too-early",
"2026-05-19T12:32:30+1000 host spinifex-daemon[1]: in-window-start",
"2026-05-19T12:32:32+1000 host spinifex-daemon[1]: describe-vpcs filter=is_default",
"2026-05-19T12:32:50+1000 host spinifex-daemon[1]: too-late",
"",
}, "\n")
if err := os.WriteFile(filepath.Join(dir, "spinifex-journal.log"), []byte(journal), 0o644); err != nil {
t.Fatalf("write journal: %v", err)
}
testlog := strings.Join([]string{
"=== RUN TestSingleNode/Phase5_LaunchInstance",
" ec2helpers.go:164: describe-vpcs: InvalidParameterValue",
"--- FAIL: TestSingleNode/Phase5_LaunchInstance (2.50s)",
"",
}, "\n")
if err := os.WriteFile(filepath.Join(dir, "test-single.log"), []byte(testlog), 0o644); err != nil {
t.Fatalf("write test log: %v", err)
}
// Per-test artifact subdir (matches harness.ArtifactDir convention).
perTest := filepath.Join(dir, "TestSingleNode_Phase5_LaunchInstance")
if err := os.MkdirAll(perTest, 0o755); err != nil {
t.Fatalf("mkdir per-test: %v", err)
}
if err := os.WriteFile(filepath.Join(perTest, "qemu-console.log"), []byte("[qemu] boot\n"), 0o644); err != nil {
t.Fatalf("write per-test file: %v", err)
}
data, _ := os.ReadFile(filepath.Join(dir, "junit-single.xml"))
sr, err := ParseFile("junit-single.xml", data)
if err != nil {
t.Fatalf("ParseFile: %v", err)
}
rep := Report{Title: "E2E failure analysis", Suites: []SuiteReport{sr}}
WriteBundles(&rep, dir)
if rep.Suites[0].Root == nil {
t.Fatal("no root")
}
bp := rep.Suites[0].Root.BundlePath
if bp == "" {
t.Fatal("BundlePath not set")
}
bundle := filepath.Join(dir, bp)
for _, want := range []string{"failure.txt", "journal.log", "test.log", "qemu-console.log"} {
if _, err := os.Stat(filepath.Join(bundle, want)); err != nil {
t.Errorf("missing %s in bundle %s: %v", want, bp, err)
}
}
jl, _ := os.ReadFile(filepath.Join(bundle, "journal.log"))
if !strings.Contains(string(jl), "describe-vpcs filter=is_default") {
t.Errorf("journal.log lacks in-window line:\n%s", jl)
}
if strings.Contains(string(jl), "too-early") || strings.Contains(string(jl), "too-late") {
t.Errorf("journal.log includes out-of-window content:\n%s", jl)
}
tl, _ := os.ReadFile(filepath.Join(bundle, "test.log"))
if !strings.Contains(string(tl), "--- FAIL: TestSingleNode/Phase5_LaunchInstance") {
t.Errorf("test.log missing FAIL marker:\n%s", tl)
}
out := Render(rep)
wantLink := fmt.Sprintf("- Bundle: `%s/`", bp)
if !strings.Contains(out, wantLink) {
t.Errorf("render missing bundle link %q:\n%s", wantLink, out)
}
}
+78
View File
@@ -0,0 +1,78 @@
package main
import (
"flag"
"fmt"
"os"
"path/filepath"
"sort"
)
func main() {
var junitGlob, logDir, title string
flag.StringVar(&junitGlob, "junit-glob", os.Getenv("ANALYZE_JUNIT_GLOB"), "glob matching junit-*.xml files")
flag.StringVar(&logDir, "log-dir", os.Getenv("ANALYZE_LOG_DIR"), "artifact dir to write analysis.md into")
flag.StringVar(&title, "title", os.Getenv("ANALYZE_TITLE"), "report heading")
flag.Parse()
if title == "" {
title = "E2E failure analysis"
}
if junitGlob == "" {
fmt.Fprintln(os.Stderr, "::error::e2e-analyze: -junit-glob is required")
os.Exit(0) // analyzer is advisory only; existing gate owns exit code
}
paths, err := filepath.Glob(junitGlob)
if err != nil {
fmt.Fprintf(os.Stderr, "::warning::e2e-analyze: bad glob %q: %v\n", junitGlob, err)
os.Exit(0)
}
sort.Strings(paths)
report := Report{Title: title}
for _, p := range paths {
data, err := os.ReadFile(p)
if err != nil {
fmt.Fprintf(os.Stderr, "::warning::e2e-analyze: read %s: %v\n", p, err)
continue
}
sr, err := ParseFile(p, data)
if err != nil {
fmt.Fprintf(os.Stderr, "::warning::e2e-analyze: %v\n", err)
continue
}
report.Suites = append(report.Suites, sr)
}
// Stage 2: prefer authoritative per-suite start times written by the
// workflow over junit-report's conversion-time `timestamp` attribute,
// then materialise per-failure bundles so Render can link them.
if logDir != "" {
ApplySuiteStartFiles(&report, logDir)
WriteBundles(&report, logDir)
}
out := Render(report)
if logDir != "" {
if err := os.MkdirAll(logDir, 0o755); err == nil {
if err := os.WriteFile(filepath.Join(logDir, "analysis.md"), []byte(out), 0o644); err != nil {
fmt.Fprintf(os.Stderr, "::warning::e2e-analyze: write analysis.md: %v\n", err)
}
}
}
if summaryPath := os.Getenv("GITHUB_STEP_SUMMARY"); summaryPath != "" {
f, err := os.OpenFile(summaryPath, os.O_APPEND|os.O_CREATE|os.O_WRONLY, 0o644)
if err == nil {
defer f.Close()
if _, werr := f.WriteString(out); werr != nil {
fmt.Fprintf(os.Stderr, "::warning::e2e-analyze: append summary: %v\n", werr)
}
}
} else {
// Local invocation (developer running the tool by hand). Mirror to stdout.
fmt.Print(out)
}
}
+176
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@@ -0,0 +1,176 @@
package main
// Stage 2 of docs/development/improvements/e2e-go-failure-analysis.md:
// per-failure log slicers used by bundle.go to materialise time-window /
// testcase-window log excerpts next to each named failure.
import (
"bufio"
"io"
"os"
"regexp"
"strings"
"time"
)
// shortIsoTSRe matches the timestamp prefix produced by
// `journalctl --output=short-iso`. The offset format varies across
// systemd versions: most ship "+10:00" (RFC3339), some ship "+1000"
// (no colon). Match either — the parser below picks the right layout.
var shortIsoTSRe = regexp.MustCompile(`^(\d{4}-\d{2}-\d{2}T\d{2}:\d{2}:\d{2}(?:[+-]\d{2}:?\d{2}|Z))\s`)
// shortIsoLayouts are tried in order; the first parse that succeeds wins.
var shortIsoLayouts = []string{
time.RFC3339, // 2026-05-19T12:32:30+10:00
"2006-01-02T15:04:05-0700", // 2026-05-19T12:32:30+1000
}
func parseShortIso(s string) (time.Time, error) {
var lastErr error
for _, layout := range shortIsoLayouts {
t, err := time.Parse(layout, s)
if err == nil {
return t, nil
}
lastErr = err
}
return time.Time{}, lastErr
}
// SliceJournal copies lines from src whose `short-iso` timestamp falls in
// [start, end] to dst. Lines without a parseable timestamp inherit the
// previous line's classification — that keeps multi-line journal records
// (stack traces, panics) intact rather than orphaning their continuation
// lines. Lines that precede the first parseable timestamp are dropped.
//
// Returns the number of lines written; missing src is not an error (the
// journal may be empty if collection failed).
func SliceJournal(src string, start, end time.Time, dst string) (int, error) {
f, err := os.Open(src)
if err != nil {
if os.IsNotExist(err) {
return 0, nil
}
return 0, err
}
defer f.Close()
out, err := os.Create(dst)
if err != nil {
return 0, err
}
defer out.Close()
bw := bufio.NewWriter(out)
defer bw.Flush()
sc := bufio.NewScanner(f)
// Journal lines can be long (panic dumps); bump scanner buffer.
sc.Buffer(make([]byte, 0, 64*1024), 1024*1024)
keep := false
written := 0
for sc.Scan() {
line := sc.Text()
if m := shortIsoTSRe.FindStringSubmatch(line); m != nil {
ts, err := parseShortIso(m[1])
if err != nil {
continue
}
keep = !ts.Before(start) && !ts.After(end)
}
if keep {
if _, err := bw.WriteString(line); err != nil {
return written, err
}
if err := bw.WriteByte('\n'); err != nil {
return written, err
}
written++
}
}
return written, sc.Err()
}
// runRePrefix and finishRePrefix bracket a single testcase's output in
// `go test -v` stdout. Subtests have their own `=== RUN` / `--- FAIL`
// markers, so slicing on the exact testcase name yields just that test's
// lines (including any nested phase logs).
var (
runRe = regexp.MustCompile(`^=== RUN\s+(\S+)$`)
finishRe = regexp.MustCompile(`^\s*---\s+(PASS|FAIL|SKIP):\s+(\S+)\s+\(`)
)
// SliceTestLog copies lines belonging to the named testcase from src to
// dst. The block starts at `=== RUN <name>` and ends at the matching
// `--- PASS|FAIL|SKIP: <name> (…)` line (inclusive). If the testcase is
// never seen the destination file is created empty so the bundle has a
// stable shape.
//
// Returns the number of lines written; missing src is not an error.
func SliceTestLog(src, testName, dst string) (int, error) {
f, err := os.Open(src)
if err != nil {
if os.IsNotExist(err) {
return 0, nil
}
return 0, err
}
defer f.Close()
out, err := os.Create(dst)
if err != nil {
return 0, err
}
defer out.Close()
bw := bufio.NewWriter(out)
defer bw.Flush()
sc := bufio.NewScanner(f)
sc.Buffer(make([]byte, 0, 64*1024), 1024*1024)
in := false
written := 0
for sc.Scan() {
line := sc.Text()
if !in {
if m := runRe.FindStringSubmatch(strings.TrimRight(line, "\r")); m != nil && m[1] == testName {
in = true
} else {
continue
}
}
if _, err := bw.WriteString(line); err != nil {
return written, err
}
if err := bw.WriteByte('\n'); err != nil {
return written, err
}
written++
if m := finishRe.FindStringSubmatch(line); m != nil && m[2] == testName {
return written, nil
}
}
return written, sc.Err()
}
// copyFile is a small helper used when bundling pre-collected per-test
// artifacts. Best-effort: missing src is silently skipped.
func copyFile(src, dst string) error {
in, err := os.Open(src)
if err != nil {
if os.IsNotExist(err) {
return nil
}
return err
}
defer in.Close()
out, err := os.Create(dst)
if err != nil {
return err
}
defer out.Close()
_, err = io.Copy(out, in)
return err
}
@@ -0,0 +1,23 @@
## E2E failure analysis
### Suite `single`: 16 failed, 1 root cause likely
**Root cause (earliest non-cascade)**
- Test: `TestSingleNode/Phase5_LaunchInstance`
- Start: 12:30:00 (duration 2.5s)
- Error: Received unexpected error: InvalidParameterValue (HTTP 400)
- File: `tests/e2e/harness/ec2helpers.go:164`
**Cascaded failures (15) — grouped by signature**
- 14× Phase 5 must populate fix.InstanceID
- `TestSingleNode/Phase5a_pre_ClusterStats`
- `TestSingleNode/Phase5a_Metadata`
- `TestSingleNode/Phase5b_DescribeInstances`
- `TestSingleNode/Phase5c_StopStart`
- `TestSingleNode/Phase6_Volumes`
- … and 9 more
- 1× Phase 2 must populate fix.AZName
- `TestSingleNode/Phase8_NatGW`
@@ -0,0 +1,143 @@
<?xml version="1.0" encoding="UTF-8"?>
<testsuites tests="20" failures="17" skipped="0">
<testsuite name="" tests="20" failures="17" errors="0" id="0" hostname="banksia" skipped="0" time="600.000" timestamp="2026-04-12T12:30:00+10:00">
<testcase name="TestSingleNode" classname="" time="600.000">
<failure message="Failed"></failure>
</testcase>
<testcase name="TestSingleNode/Phase1_Environment" classname="" time="0.300">
<system-out><![CDATA[
&#x2501;&#x2501; Phase 1 &#x2501;&#x2501;]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase2_Discovery" classname="" time="0.010"/>
<testcase name="TestSingleNode/Phase3_KeyPairs" classname="" time="0.540"/>
<testcase name="TestSingleNode/Phase4_Image" classname="" time="0.060"/>
<testcase name="TestSingleNode/Phase5_LaunchInstance" classname="" time="2.500">
<failure message="Failed"><![CDATA[
ec2helpers.go:164: describe-vpcs: InvalidParameterValue: Filter 'is_default' is invalid (status 400)
Error Trace: tests/e2e/harness/ec2helpers.go:164
Error: Received unexpected error:
InvalidParameterValue (HTTP 400)
Test: TestSingleNode/Phase5_LaunchInstance]]></failure>
</testcase>
<testcase name="TestSingleNode/Phase5a_pre_ClusterStats" classname="" time="0.020">
<failure message="Failed"><![CDATA[
lifecycle_test.go:28:
Error Trace: tests/e2e/single/lifecycle_test.go:28
Error: Should NOT be empty
Messages: Phase 5 must populate fix.InstanceID
Test: TestSingleNode/Phase5a_pre_ClusterStats]]></failure>
</testcase>
<testcase name="TestSingleNode/Phase5a_Metadata" classname="" time="0.020">
<failure message="Failed"><![CDATA[
lifecycle_test.go:57:
Error Trace: tests/e2e/single/lifecycle_test.go:57
Error: Should NOT be empty
Messages: Phase 5 must populate fix.InstanceID
Test: TestSingleNode/Phase5a_Metadata]]></failure>
</testcase>
<testcase name="TestSingleNode/Phase5b_DescribeInstances" classname="" time="0.020">
<failure message="Failed"><![CDATA[
lifecycle_test.go:109:
Error Trace: tests/e2e/single/lifecycle_test.go:109
Error: Should NOT be empty
Messages: Phase 5 must populate fix.InstanceID
Test: TestSingleNode/Phase5b_DescribeInstances]]></failure>
</testcase>
<testcase name="TestSingleNode/Phase5c_StopStart" classname="" time="0.020">
<failure message="Failed"><![CDATA[
lifecycle_test.go:222:
Error Trace: tests/e2e/single/lifecycle_test.go:222
Error: Should NOT be empty
Messages: Phase 5 must populate fix.InstanceID
Test: TestSingleNode/Phase5c_StopStart]]></failure>
</testcase>
<testcase name="TestSingleNode/Phase6_Volumes" classname="" time="0.020">
<failure message="Failed"><![CDATA[
volume_test.go:23:
Error Trace: tests/e2e/single/volume_test.go:23
Error: Should NOT be empty
Messages: Phase 5 must populate fix.InstanceID
Test: TestSingleNode/Phase6_Volumes]]></failure>
</testcase>
<testcase name="TestSingleNode/Phase6b_AttachVolume" classname="" time="0.020">
<failure message="Failed"><![CDATA[
volume_test.go:24:
Error Trace: tests/e2e/single/volume_test.go:24
Error: Should NOT be empty
Messages: Phase 5 must populate fix.InstanceID
Test: TestSingleNode/Phase6b_AttachVolume]]></failure>
</testcase>
<testcase name="TestSingleNode/Phase7_Tags" classname="" time="0.020">
<failure message="Failed"><![CDATA[
tags_test.go:23:
Error Trace: tests/e2e/single/tags_test.go:23
Error: Should NOT be empty
Messages: Phase 5 must populate fix.InstanceID
Test: TestSingleNode/Phase7_Tags]]></failure>
</testcase>
<testcase name="TestSingleNode/Phase7a_Snapshots" classname="" time="0.020">
<failure message="Failed"><![CDATA[
snapshot_test.go:23:
Error Trace: tests/e2e/single/snapshot_test.go:23
Error: Should NOT be empty
Messages: Phase 5 must populate fix.InstanceID
Test: TestSingleNode/Phase7a_Snapshots]]></failure>
</testcase>
<testcase name="TestSingleNode/Phase7b_DescribeInstanceAttribute" classname="" time="0.020">
<failure message="Failed"><![CDATA[
instance_test.go:81:
Error Trace: tests/e2e/single/instance_test.go:81
Error: Should NOT be empty
Messages: Phase 5 must populate fix.InstanceID
Test: TestSingleNode/Phase7b_DescribeInstanceAttribute]]></failure>
</testcase>
<testcase name="TestSingleNode/Phase7c_ModifyInstanceAttribute" classname="" time="0.020">
<failure message="Failed"><![CDATA[
instance_test.go:92:
Error Trace: tests/e2e/single/instance_test.go:92
Error: Should NOT be empty
Messages: Phase 5 must populate fix.InstanceID
Test: TestSingleNode/Phase7c_ModifyInstanceAttribute]]></failure>
</testcase>
<testcase name="TestSingleNode/Phase7d_Console" classname="" time="0.020">
<failure message="Failed"><![CDATA[
instance_test.go:121:
Error Trace: tests/e2e/single/instance_test.go:121
Error: Should NOT be empty
Messages: Phase 5 must populate fix.InstanceID
Test: TestSingleNode/Phase7d_Console]]></failure>
</testcase>
<testcase name="TestSingleNode/Phase7e_Negative" classname="" time="0.020">
<failure message="Failed"><![CDATA[
negative_test.go:43:
Error Trace: tests/e2e/single/negative_test.go:43
Error: Should NOT be empty
Messages: Phase 5 must populate fix.InstanceID
Test: TestSingleNode/Phase7e_Negative]]></failure>
</testcase>
<testcase name="TestSingleNode/Phase8_NatGW" classname="" time="0.020">
<failure message="Failed"><![CDATA[
natgw_test.go:39:
Error Trace: tests/e2e/single/natgw_test.go:39
Error: Should NOT be empty
Messages: Phase 2 must populate fix.AZName
Test: TestSingleNode/Phase8_NatGW]]></failure>
</testcase>
<testcase name="TestSingleNode/Phase8a_DataPath" classname="" time="0.020">
<failure message="Failed"><![CDATA[
datapath_test.go:48:
Error Trace: tests/e2e/single/datapath_test.go:48
Error: Should NOT be empty
Messages: Phase 5 must populate fix.InstanceID
Test: TestSingleNode/Phase8a_DataPath]]></failure>
</testcase>
<testcase name="TestSingleNode/Phase9_SecurityGroups" classname="" time="0.020">
<failure message="Failed"><![CDATA[
securitygroup_test.go:35:
Error Trace: tests/e2e/single/securitygroup_test.go:35
Error: Should NOT be empty
Messages: Phase 5 must populate fix.InstanceID
Test: TestSingleNode/Phase9_SecurityGroups]]></failure>
</testcase>
</testsuite>
</testsuites>
@@ -0,0 +1,3 @@
## E2E failure analysis
✅ No failures across any suite.
@@ -0,0 +1,8 @@
<?xml version="1.0" encoding="UTF-8"?>
<testsuites tests="3" failures="0" skipped="0">
<testsuite name="" tests="3" failures="0" errors="0" id="0" hostname="banksia" skipped="0" time="1.500" timestamp="2026-04-12T12:30:00+10:00">
<testcase name="TestSingleNode" classname="" time="1.500"/>
<testcase name="TestSingleNode/Phase1_Environment" classname="" time="0.300"/>
<testcase name="TestSingleNode/Phase2_Discovery" classname="" time="1.200"/>
</testsuite>
</testsuites>
@@ -0,0 +1,11 @@
## E2E failure analysis
### Suite `single`: 1 failed, 1 root cause likely
**Root cause (earliest non-cascade)**
- Test: `TestSingleNode/Phase8b_VPCSubnetE2E`
- Start: 00:26:18 (duration 200.5s)
- Error: Eventually: condition not met within 3m0s: [SSH handshake 192.168.0.202:22 never completed]
- File: `vpc_test.go:227`
@@ -0,0 +1,993 @@
<?xml version="1.0" encoding="UTF-8"?>
<testsuites tests="79" failures="2" skipped="6">
<testsuite name="" tests="79" failures="2" errors="0" id="0" hostname="banksia" skipped="6" time="1708.140" timestamp="2026-05-19T00:19:45+10:00">
<testcase name="TestSingleNode" classname="" time="800.320">
<failure message="Failed"></failure>
</testcase>
<testcase name="TestSingleNode/Phase1_Environment" classname="" time="0.300">
<system-out><![CDATA[
�[1m�[36m━━ Phase 1 — Environment ━━�[0m
�[2m· checking /dev/kvm�[0m
discovery_test.go:29: �[2m· checking /dev/kvm�[0m
�[2mkvm�[0m=writable
discovery_test.go:38: �[2mkvm�[0m=writable
�[2m· waiting for AWS gateway�[0m
discovery_test.go:45: �[2m· waiting for AWS gateway�[0m
�[2mgateway�[0m=https://192.168.0.10:9999/
discovery_test.go:55: �[2mgateway�[0m=https://192.168.0.10:9999/
�[2m· waiting for daemon NATS subscriptions�[0m
discovery_test.go:60: �[2m· waiting for daemon NATS subscriptions�[0m
�[2m· describe-regions / describe-availability-zones�[0m
discovery_test.go:73: �[2m· describe-regions / describe-availability-zones�[0m
�[2maz�[0m=ap-southeast-2a �[2mregion�[0m=ap-southeast-2
discovery_test.go:84: �[2maz�[0m=ap-southeast-2a �[2mregion�[0m=ap-southeast-2]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase1b_ClusterStats" classname="" time="9.200">
<system-out><![CDATA[
�[1m�[36m━━ Phase 1b — Cluster Stats CLI ━━�[0m
�[2m· spx get nodes�[0m
discovery_test.go:101: �[2m· spx get nodes�[0m
�[2m· spx top nodes�[0m
discovery_test.go:105: �[2m· spx top nodes�[0m
�[2m· spx get vms (empty before any launches)�[0m
discovery_test.go:112: �[2m· spx get vms (empty before any launches)�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase2_Discovery" classname="" time="0.010">
<system-out><![CDATA[
�[1m�[36m━━ Phase 2 — Discovery & Metadata ━━�[0m
�[2m· discovering nano instance type�[0m
discovery_test.go:133: �[2m· discovering nano instance type�[0m
�[2minstance_type�[0m=t3.nano �[2march�[0m=x86_64 �[2maz�[0m=ap-southeast-2a
discovery_test.go:159: �[2minstance_type�[0m=t3.nano �[2march�[0m=x86_64 �[2maz�[0m=ap-southeast-2a]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase2b_SerialConsole" classname="" time="0.020">
<system-out><![CDATA[
�[1m�[36m━━ Phase 2b — Serial Console Access ━━�[0m
�[2m· default state should be disabled�[0m
discovery_test.go:168: �[2m· default state should be disabled�[0m
�[2m· enable�[0m
discovery_test.go:173: �[2m· enable�[0m
�[2mstate�[0m=enabled
discovery_test.go:180: �[2mstate�[0m=enabled
�[2m· disable�[0m
discovery_test.go:182: �[2m· disable�[0m
�[2mstate�[0m=disabled
discovery_test.go:189: �[2mstate�[0m=disabled]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase3_KeyPairs" classname="" time="0.540">
<system-out><![CDATA[
�[1m�[36m━━ Phase 3 — SSH Key Management ━━�[0m
�[2m· create-key-pair "test-key-1"�[0m
keypair_test.go:37: �[2m· create-key-pair "test-key-1"�[0m
�[2mkey�[0m=test-key-1 �[2mpem�[0m=/tmp/TestSingleNode1289015487/001/test-key-1.pem
keypair_test.go:51: �[2mkey�[0m=test-key-1 �[2mpem�[0m=/tmp/TestSingleNode1289015487/001/test-key-1.pem
�[2m· import-key-pair "test-key-2" (local-generated RSA)�[0m
keypair_test.go:58: �[2m· import-key-pair "test-key-2" (local-generated RSA)�[0m
�[2mimported�[0m=test-key-2
keypair_test.go:65: �[2mimported�[0m=test-key-2
�[2m· describe-key-pairs (both present)�[0m
keypair_test.go:67: �[2m· describe-key-pairs (both present)�[0m
�[2m· delete "test-key-2"�[0m
keypair_test.go:72: �[2m· delete "test-key-2"�[0m
�[2m· describe-key-pairs (only test-key-1 remains)�[0m
keypair_test.go:76: �[2m· describe-key-pairs (only test-key-1 remains)�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase4_Image" classname="" time="0.060">
<system-out><![CDATA[
�[1m�[36m━━ Phase 4 — Image Management ━━�[0m
�[2mimage�[0m=ubuntu-24.04-x86_64 �[2march�[0m=x86_64
image_test.go:33: �[2mimage�[0m=ubuntu-24.04-x86_64 �[2march�[0m=x86_64
�[2m· spx admin images import --name ubuntu-24.04-x86_64�[0m
image_test.go:35: �[2m· spx admin images import --name ubuntu-24.04-x86_64�[0m
�[2m· spx import did not yield AMI ID; falling back to describe-images�[0m
image_test.go:48: �[2m· spx import did not yield AMI ID; falling back to describe-images�[0m
�[2m· describe-images by AMI ID (verify exactly one match)�[0m
image_test.go:78: �[2m· describe-images by AMI ID (verify exactly one match)�[0m
�[2mami�[0m=ami-6f60f2b3bf04b5453 �[2mname�[0m=ami-ubuntu-24.04-x86_64
image_test.go:86: �[2mami�[0m=ami-6f60f2b3bf04b5453 �[2mname�[0m=ami-ubuntu-24.04-x86_64]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase5_LaunchInstance" classname="" time="10.830">
<system-out><![CDATA[
�[1m�[36m━━ Phase 5 — Instance Lifecycle ━━�[0m
�[2mvpc�[0m=vpc-531252db3b4e1fc08 �[2msg�[0m=sg-764a7fa2a39577204 �[2msubnet�[0m=subnet-cd62e4c1c3cb50c63
instance_test.go:31: �[2mvpc�[0m=vpc-531252db3b4e1fc08 �[2msg�[0m=sg-764a7fa2a39577204 �[2msubnet�[0m=subnet-cd62e4c1c3cb50c63
�[2m· run-instances ami=ami-6f60f2b3bf04b5453 type=t3.nano key=test-key-1�[0m
instance_test.go:35: �[2m· run-instances ami=ami-6f60f2b3bf04b5453 type=t3.nano key=test-key-1�[0m
�[2minstance�[0m=i-0c615e5dd74050f53
instance_test.go:48: �[2minstance�[0m=i-0c615e5dd74050f53
instance_test.go:50: instance i-0c615e5dd74050f53 reached state running
�[2mroot_volume�[0m=vol-2230138124fb51ee2 �[2mroot_device�[0m=
instance_test.go:70: �[2mroot_volume�[0m=vol-2230138124fb51ee2 �[2mroot_device�[0m=]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase5a_pre_ClusterStats" classname="" time="3.040">
<system-out><![CDATA[
�[1m�[36m━━ Phase 5a-pre — Cluster Stats CLI (with running VM) ━━�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase5a_Metadata" classname="" time="0.510">
<system-out><![CDATA[
�[1m�[36m━━ Phase 5a — Instance Metadata Validation ━━�[0m
�[2mtype�[0m=t3.nano �[2mkey�[0m=test-key-1 �[2mimage�[0m=ami-6f60f2b3bf04b5453 �[2mbdms�[0m=1
instance_test.go:108: �[2mtype�[0m=t3.nano �[2mkey�[0m=test-key-1 �[2mimage�[0m=ami-6f60f2b3bf04b5453 �[2mbdms�[0m=1]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase5a_ii_SSH" classname="" time="49.450">
<system-out><![CDATA[
�[1m�[36m━━ Phase 5a-ii — SSH Connectivity & Volume Verification ━━�[0m
�[2mssh_host�[0m=192.168.0.201 �[2mssh_port�[0m=22
instance_test.go:127: �[2mssh_host�[0m=192.168.0.201 �[2mssh_port�[0m=22
�[2m· waiting for SSH handshake 192.168.0.201:22�[0m
instance_test.go:130: �[2m· waiting for SSH handshake 192.168.0.201:22�[0m
�[2m· waiting for SSH handshake 192.168.0.201:22�[0m
lifecycle_test.go:384: �[2m· waiting for SSH handshake 192.168.0.201:22�[0m
�[2m· ssh id�[0m
instance_test.go:136: �[2m· ssh id�[0m
�[2m· lsblk root-volume cross-check vs API�[0m
instance_test.go:140: �[2m· lsblk root-volume cross-check vs API�[0m
�[2mguest_gib�[0m=4 �[2mapi_gib�[0m=4
instance_test.go:159: �[2mguest_gib�[0m=4 �[2mapi_gib�[0m=4
�[2m· ssh hostname�[0m
instance_test.go:161: �[2m· ssh hostname�[0m
�[2mhostname�[0m=spinifex-vm-0c615e5d �[2mmatches_short_id�[0m=0c615e5d
instance_test.go:172: �[2mhostname�[0m=spinifex-vm-0c615e5d �[2mmatches_short_id�[0m=0c615e5d]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase5a_iii_Console" classname="" time="0.010">
<system-out><![CDATA[
�[1m�[36m━━ Phase 5a-iii — Console Output ━━�[0m
�[2minstance�[0m=i-0c615e5dd74050f53 �[2mhas_output�[0m=true
instance_test.go:191: �[2minstance�[0m=i-0c615e5dd74050f53 �[2mhas_output�[0m=true]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase5b_Volume" classname="" time="4.540">
<system-out><![CDATA[
�[1m�[36m━━ Phase 5b — Volume Lifecycle (Attach/Detach) ━━�[0m
�[2m· create-volume size=10 az=ap-southeast-2a�[0m
volume_test.go:26: �[2m· create-volume size=10 az=ap-southeast-2a�[0m
�[2mvolume�[0m=vol-a885f79173e0a8030
volume_test.go:34: �[2mvolume�[0m=vol-a885f79173e0a8030
volume_test.go:39: volume vol-a885f79173e0a8030 reached state available
�[2m· modify-volume size=20�[0m
volume_test.go:42: �[2m· modify-volume size=20�[0m
�[2mresized_gib�[0m=20
volume_test.go:66: �[2mresized_gib�[0m=20
�[2m· attach-volume vol-a885f79173e0a8030 -> i-0c615e5dd74050f53 as /dev/sdf�[0m
volume_test.go:68: �[2m· attach-volume vol-a885f79173e0a8030 -> i-0c615e5dd74050f53 as /dev/sdf�[0m
volume_test.go:76: volume vol-a885f79173e0a8030 reached state in-use
�[2m· detach-volume vol-a885f79173e0a8030�[0m
volume_test.go:90: �[2m· detach-volume vol-a885f79173e0a8030�[0m
volume_test.go:96: volume vol-a885f79173e0a8030 reached state available
�[2m· delete-volume vol-a885f79173e0a8030�[0m
volume_test.go:98: �[2m· delete-volume vol-a885f79173e0a8030�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase5b_ii_VolumeStatus" classname="" time="0.000">
<system-out><![CDATA[
�[1m�[36m━━ Phase 5b-ii — DescribeVolumeStatus ━━�[0m
�[2mvolume�[0m=vol-2230138124fb51ee2 �[2mstatus�[0m=ok
volume_test.go:158: �[2mvolume�[0m=vol-2230138124fb51ee2 �[2mstatus�[0m=ok]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase5c_Snapshot" classname="" time="0.190">
<system-out><![CDATA[
�[1m�[36m━━ Phase 5c — Snapshot Lifecycle ━━�[0m
�[2m· create-snapshot volume=vol-2230138124fb51ee2�[0m
snapshot_test.go:34: �[2m· create-snapshot volume=vol-2230138124fb51ee2�[0m
�[2msnapshot�[0m=snap-1188f92980e6470aa �[2msize�[0m=4 �[2mstate�[0m=completed �[2mprogress�[0m=100%
snapshot_test.go:50: �[2msnapshot�[0m=snap-1188f92980e6470aa �[2msize�[0m=4 �[2mstate�[0m=completed �[2mprogress�[0m=100%
snapshot_test.go:59: snapshot snap-1188f92980e6470aa reached state completed
�[2m· describe-snapshots snap-1188f92980e6470aa�[0m
snapshot_test.go:61: �[2m· describe-snapshots snap-1188f92980e6470aa�[0m
�[2m· copy-snapshot src=snap-1188f92980e6470aa region=ap-southeast-2�[0m
snapshot_test.go:76: �[2m· copy-snapshot src=snap-1188f92980e6470aa region=ap-southeast-2�[0m
�[2mcopy_snapshot�[0m=snap-cde6b5ddf467e2c0f
snapshot_test.go:86: �[2mcopy_snapshot�[0m=snap-cde6b5ddf467e2c0f
snapshot_test.go:88: snapshot snap-cde6b5ddf467e2c0f reached state completed
�[2m· describe-snapshots snap-1188f92980e6470aa,snap-cde6b5ddf467e2c0f (both visible)�[0m
snapshot_test.go:90: �[2m· describe-snapshots snap-1188f92980e6470aa,snap-cde6b5ddf467e2c0f (both visible)�[0m
�[2m· delete-snapshot snap-1188f92980e6470aa (original)�[0m
snapshot_test.go:107: �[2m· delete-snapshot snap-1188f92980e6470aa (original)�[0m
�[2m· verify copy snap-cde6b5ddf467e2c0f still completed�[0m
snapshot_test.go:135: �[2m· verify copy snap-cde6b5ddf467e2c0f still completed�[0m
�[2m· delete-snapshot snap-cde6b5ddf467e2c0f (copy)�[0m
snapshot_test.go:144: �[2m· delete-snapshot snap-cde6b5ddf467e2c0f (copy)�[0m
�[2mdeleted_original�[0m=snap-1188f92980e6470aa
snapshot_test.go:151: �[2mdeleted_original�[0m=snap-1188f92980e6470aa]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase5d_SnapshotBackedLaunch" classname="" time="0.010">
<system-out><![CDATA[
�[1m�[36m━━ Phase 5d — Snapshot-Backed Instance Launch ━━�[0m
�[2mami�[0m=ami-6f60f2b3bf04b5453 �[2msnapshot�[0m=snap-ami-6f60f2b3bf04b5453
snapshot_test.go:182: �[2mami�[0m=ami-6f60f2b3bf04b5453 �[2msnapshot�[0m=snap-ami-6f60f2b3bf04b5453]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase5e_CreateImage" classname="" time="0.660">
<system-out><![CDATA[
�[1m�[36m━━ Phase 5e — CreateImage Lifecycle ━━�[0m
�[2m· create-image instance=i-0c615e5dd74050f53 name=e2e-custom-ami (no-reboot)�[0m
createimage_test.go:26: �[2m· create-image instance=i-0c615e5dd74050f53 name=e2e-custom-ami (no-reboot)�[0m
�[2mcustom_ami�[0m=ami-7dcf263a412dd14c6
createimage_test.go:36: �[2mcustom_ami�[0m=ami-7dcf263a412dd14c6
createimage_test.go:38: image ami-7dcf263a412dd14c6 reached state available
�[2m· describe-images ami-7dcf263a412dd14c6�[0m
createimage_test.go:40: �[2m· describe-images ami-7dcf263a412dd14c6�[0m
�[2mcustom_ami_snapshot�[0m=snap-dde89b9ea2ef2e05a
createimage_test.go:67: �[2mcustom_ami_snapshot�[0m=snap-dde89b9ea2ef2e05a]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase5f_SecurityGroupEgress" classname="" time="4.880">
<skipped message="Skipped"><![CDATA[
�[1m�[36m━━ Phase 5f — Security Group Enforcement (egress ACL) ━━�[0m
�[2m· discover default gateway inside VM�[0m
securitygroup_test.go:53: �[2m· discover default gateway inside VM�[0m
�[2mprobe_gateway�[0m=172.31.0.1
securitygroup_test.go:66: �[2mprobe_gateway�[0m=172.31.0.1
�[2m· 5f-1 baseline egress (allow-all)�[0m
securitygroup_test.go:77: �[2m· 5f-1 baseline egress (allow-all)�[0m
securitygroup_test.go:80: Phase 5f: baseline ICMP did not succeed; env may block ICMP regardless of SG
Output:
PING 172.31.0.1 (172.31.0.1) 56(84) bytes of data.
--- 172.31.0.1 ping statistics ---
3 packets transmitted, 0 received, 100% packet loss, time 2044ms
]]></skipped>
</testcase>
<testcase name="TestSingleNode/Phase6_TagManagement" classname="" time="0.380">
<system-out><![CDATA[
�[1m�[36m━━ Phase 6 — Tag Management ━━�[0m
�[2m· 6a create-tags instance=i-0c615e5dd74050f53 (Name, Environment, DeleteMe)�[0m
tags_test.go:41: �[2m· 6a create-tags instance=i-0c615e5dd74050f53 (Name, Environment, DeleteMe)�[0m
�[2m· 6b describe-tags resource-id=i-0c615e5dd74050f53 want=3�[0m
tags_test.go:53: �[2m· 6b describe-tags resource-id=i-0c615e5dd74050f53 want=3�[0m
�[2m· 6c create-tags volume=vol-2230138124fb51ee2 (Name, Environment)�[0m
tags_test.go:65: �[2m· 6c create-tags volume=vol-2230138124fb51ee2 (Name, Environment)�[0m
�[2m· 6d describe-tags key=Environment want=2�[0m
tags_test.go:76: �[2m· 6d describe-tags key=Environment want=2�[0m
�[2m· 6e describe-tags resource-type=instance want=3�[0m
tags_test.go:85: �[2m· 6e describe-tags resource-type=instance want=3�[0m
�[2m· 6f overwrite instance Name -> e2e-test-updated�[0m
tags_test.go:95: �[2m· 6f overwrite instance Name -> e2e-test-updated�[0m
�[2m· 6g delete-tags Key=DeleteMe (no value)�[0m
tags_test.go:114: �[2m· 6g delete-tags Key=DeleteMe (no value)�[0m
�[2m· 6h delete-tags Key=Environment,Value=production (no-op)�[0m
tags_test.go:130: �[2m· 6h delete-tags Key=Environment,Value=production (no-op)�[0m
�[2m· 6i delete-tags Key=Environment,Value=testing (instance only)�[0m
tags_test.go:148: �[2m· 6i delete-tags Key=Environment,Value=testing (instance only)�[0m
�[2m· 6j final describe-tags resource-id=i-0c615e5dd74050f53 want=1�[0m
tags_test.go:171: �[2m· 6j final describe-tags resource-id=i-0c615e5dd74050f53 want=1�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase7_StopStart" classname="" time="8.090">
<system-out><![CDATA[
�[1m�[36m━━ Phase 7 — Instance State Transitions (Stop) ━━�[0m
�[2m· stop-instances i-0c615e5dd74050f53�[0m
lifecycle_test.go:30: �[2m· stop-instances i-0c615e5dd74050f53�[0m
lifecycle_test.go:36: instance i-0c615e5dd74050f53 reached state stopped
�[2m· reboot-instances on stopped instance (should fail)�[0m
lifecycle_test.go:40: �[2m· reboot-instances on stopped instance (should fail)�[0m
�[2mstopped_reject�[0m=IncorrectInstanceState
lifecycle_test.go:47: �[2mstopped_reject�[0m=IncorrectInstanceState]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase7a_AttachToStoppedError" classname="" time="0.300">
<system-out><![CDATA[
�[1m�[36m━━ Phase 7a — Attach Volume to Stopped Instance (Error Path) ━━�[0m
�[2m· create-volume size=10 az=ap-southeast-2a�[0m
lifecycle_test.go:60: �[2m· create-volume size=10 az=ap-southeast-2a�[0m
�[2mtest_volume�[0m=vol-8d3e1335938a378cd
lifecycle_test.go:68: �[2mtest_volume�[0m=vol-8d3e1335938a378cd
lifecycle_test.go:82: volume vol-8d3e1335938a378cd reached state available
�[2m· attach-volume vol-8d3e1335938a378cd -> i-0c615e5dd74050f53 (should fail)�[0m
lifecycle_test.go:84: �[2m· attach-volume vol-8d3e1335938a378cd -> i-0c615e5dd74050f53 (should fail)�[0m
�[2m· delete-volume vol-8d3e1335938a378cd�[0m
lifecycle_test.go:94: �[2m· delete-volume vol-8d3e1335938a378cd�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase7b_ModifyInstanceAttribute" classname="" time="55.620">
<system-out><![CDATA[
�[1m�[36m━━ Phase 7b — ModifyInstanceAttribute ━━�[0m
�[2mfrom_type�[0m=t3.nano �[2mto_type�[0m=t3.small
lifecycle_test.go:120: �[2mfrom_type�[0m=t3.nano �[2mto_type�[0m=t3.small
�[2mexpected_vcpus�[0m=2 �[2mexpected_mem_mib�[0m=2048
lifecycle_test.go:142: �[2mexpected_vcpus�[0m=2 �[2mexpected_mem_mib�[0m=2048
�[2m· modify-instance-attribute i-0c615e5dd74050f53 type=t3.small�[0m
lifecycle_test.go:144: �[2m· modify-instance-attribute i-0c615e5dd74050f53 type=t3.small�[0m
�[2m· start-instances i-0c615e5dd74050f53�[0m
lifecycle_test.go:165: �[2m· start-instances i-0c615e5dd74050f53�[0m
lifecycle_test.go:171: instance i-0c615e5dd74050f53 reached state running
�[2mssh_host�[0m=192.168.0.201 �[2mssh_port�[0m=22
lifecycle_test.go:177: �[2mssh_host�[0m=192.168.0.201 �[2mssh_port�[0m=22
�[2m· waiting for SSH handshake 192.168.0.201:22�[0m
lifecycle_test.go:179: �[2m· waiting for SSH handshake 192.168.0.201:22�[0m
�[2m· ssh nproc�[0m
lifecycle_test.go:182: �[2m· ssh nproc�[0m
�[2mvm_vcpus�[0m=2
lifecycle_test.go:188: �[2mvm_vcpus�[0m=2
�[2m· ssh MemTotal�[0m
lifecycle_test.go:190: �[2m· ssh MemTotal�[0m
�[2mvm_mem_mib�[0m=1967 �[2mthreshold_mib�[0m=1740
lifecycle_test.go:200: �[2mvm_mem_mib�[0m=1967 �[2mthreshold_mib�[0m=1740
�[2m· stop-instances i-0c615e5dd74050f53 (end of 7b)�[0m
lifecycle_test.go:206: �[2m· stop-instances i-0c615e5dd74050f53 (end of 7b)�[0m
lifecycle_test.go:211: instance i-0c615e5dd74050f53 reached state stopped]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase7c_pre_Reboot" classname="" time="83.480">
<system-out><![CDATA[
�[1m�[36m━━ Phase 7c-pre — Reboot Running Instance ━━�[0m
�[2m· start-instances i-0c615e5dd74050f53�[0m
lifecycle_test.go:226: �[2m· start-instances i-0c615e5dd74050f53�[0m
lifecycle_test.go:231: instance i-0c615e5dd74050f53 reached state running
�[2m· waiting for SSH handshake 192.168.0.201:22�[0m
lifecycle_test.go:236: �[2m· waiting for SSH handshake 192.168.0.201:22�[0m
�[2mpre_reboot_private_ip�[0m=172.31.0.4
lifecycle_test.go:246: �[2mpre_reboot_private_ip�[0m=172.31.0.4
�[2m· reboot-instances i-0c615e5dd74050f53�[0m
lifecycle_test.go:248: �[2m· reboot-instances i-0c615e5dd74050f53�[0m
�[2m· waiting for SSH handshake 192.168.0.201:22�[0m
lifecycle_test.go:279: �[2m· waiting for SSH handshake 192.168.0.201:22�[0m
�[2m· ssh uptime�[0m
lifecycle_test.go:282: �[2m· ssh uptime�[0m
�[2muptime_secs�[0m=25
lifecycle_test.go:288: �[2muptime_secs�[0m=25]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase7c_RunInstancesMultiCount" classname="" time="47.560">
<system-out><![CDATA[
�[1m�[36m━━ Phase 7c — RunInstances with MinCount/MaxCount > 1 ━━�[0m
�[2m· run-instances ami=ami-6f60f2b3bf04b5453 type=t3.small count=2�[0m
lifecycle_test.go:309: �[2m· run-instances ami=ami-6f60f2b3bf04b5453 type=t3.small count=2�[0m
�[2msibling_1�[0m=i-9bfadd8ebd378f846 �[2msibling_2�[0m=i-448a9e2bf45c58658
lifecycle_test.go:327: �[2msibling_1�[0m=i-9bfadd8ebd378f846 �[2msibling_2�[0m=i-448a9e2bf45c58658
lifecycle_test.go:342: instance i-9bfadd8ebd378f846 reached state running
lifecycle_test.go:342: instance i-448a9e2bf45c58658 reached state running
�[2m· terminate-instances i-9bfadd8ebd378f846 i-448a9e2bf45c58658�[0m
lifecycle_test.go:345: �[2m· terminate-instances i-9bfadd8ebd378f846 i-448a9e2bf45c58658�[0m
lifecycle_test.go:352: instance i-9bfadd8ebd378f846 reached state terminated
lifecycle_test.go:352: instance i-448a9e2bf45c58658 reached state terminated]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths" classname="" time="0.000">
<system-out><![CDATA[
�[1m�[36m━━ Phase 8 — Negative / Error Path Tests ━━�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8a_InvalidAMIIDMalformed" classname="" time="0.010">
<system-out><![CDATA[�[2m· run-instances image-id=notanami�[0m
negative_test.go:55: �[2m· run-instances image-id=notanami�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8b_InvalidInstanceType" classname="" time="0.210">
<system-out><![CDATA[�[2m· run-instances instance-type=x99.superlarge�[0m
negative_test.go:70: �[2m· run-instances instance-type=x99.superlarge�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8c_VolumeInUse" classname="" time="0.010">
<system-out><![CDATA[�[2m· attach-volume vol-2230138124fb51ee2 (root, in-use)�[0m
negative_test.go:85: �[2m· attach-volume vol-2230138124fb51ee2 (root, in-use)�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8d_DetachRootForbidden" classname="" time="0.010">
<system-out><![CDATA[�[2m· detach-volume vol-2230138124fb51ee2 (root)�[0m
negative_test.go:97: �[2m· detach-volume vol-2230138124fb51ee2 (root)�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8e_DeleteSnapshotNotFound" classname="" time="0.030">
<system-out><![CDATA[�[2m· delete-snapshot snap-nonexistent000000�[0m
negative_test.go:108: �[2m· delete-snapshot snap-nonexistent000000�[0m
�[2m· describe-volumes vol-0000000000000dead�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8f_InvalidActionRawHTTP" classname="" time="0.040">
<system-out><![CDATA[�[2m· POST Action=DescribeFakeThings�[0m
negative_test.go:122: �[2m· POST Action=DescribeFakeThings�[0m
negative_test.go:125: �[2mstatus�[0m=400 �[2mcode�[0m=InvalidAction]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8g_InvalidAMIIDNotFound" classname="" time="0.240">
<system-out><![CDATA[�[2m· reboot-instances i-nonexistent�[0m
�[2m· run-instances image-id=ami-0000000000000dead�[0m
negative_test.go:138: �[2m· run-instances image-id=ami-0000000000000dead�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8h_InvalidKeyPairNotFound" classname="" time="0.260">
<system-out><![CDATA[�[2m· run-instances key-name=nonexistent-key-xyz�[0m
negative_test.go:153: �[2m· run-instances key-name=nonexistent-key-xyz�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8i_DeleteVolumeNotFound" classname="" time="0.040">
<system-out><![CDATA[�[2m· delete-volume vol-0000000000000dead�[0m
negative_test.go:168: �[2m· delete-volume vol-0000000000000dead�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8j_CreateKeyPairDuplicate" classname="" time="0.040">
<system-out><![CDATA[ negative_test.go:178: �[2m· create-key-pair test-key-1 (duplicate)�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8k_ImportKeyPairDuplicate" classname="" time="0.040">
<system-out><![CDATA[�[2m· import-key-pair test-key-1 (duplicate)�[0m
negative_test.go:198: �[2m· import-key-pair test-key-1 (duplicate)�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8l_InvalidKeyFormat" classname="" time="0.040">
<system-out><![CDATA[ negative_test.go:210: �[2m· import-key-pair bad-format-key (bad material)�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8m_DescribeVolumesNotFound" classname="" time="0.040">
<system-out><![CDATA[ negative_test.go:230: �[2m· describe-volumes vol-0000000000000dead�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8n_DescribeImagesNotFound" classname="" time="0.040">
<system-out><![CDATA[�[2m· describe-images ami-0000000000000dead�[0m
negative_test.go:240: �[2m· describe-images ami-0000000000000dead�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8o_CreateImageDuplicateName" classname="" time="0.560">
<system-out><![CDATA[�[2m· create-key-pair test-key-1 (duplicate)�[0m
�[2m· create-image name=e2e-custom-ami (duplicate)�[0m
�[2m· import-key-pair bad-format-key (bad material)�[0m
negative_test.go:252: �[2m· create-image name=e2e-custom-ami (duplicate)�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8p_DeleteKeyPairIdempotent" classname="" time="0.020">
<system-out><![CDATA[�[2m· delete-key-pair nonexistent-key-99999 (idempotent)�[0m
negative_test.go:276: �[2m· delete-key-pair nonexistent-key-99999 (idempotent)�[0m
�[2mstatus�[0m=400 �[2mcode�[0m=InvalidAction]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8q_ModifyAttributeOnRunning" classname="" time="0.010">
<system-out><![CDATA[�[2m· modify-instance-attribute i-0c615e5dd74050f53 (running)�[0m
negative_test.go:289: �[2m· modify-instance-attribute i-0c615e5dd74050f53 (running)�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8_NegativeErrorPaths/8r_RebootInstanceNotFound" classname="" time="0.040">
<system-out><![CDATA[ negative_test.go:302: �[2m· reboot-instances i-nonexistent�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/IAM1_UserCRUD" classname="" time="0.070">
<system-out><![CDATA[
�[1m�[36m━━ IAM Phase 1 — User CRUD ━━�[0m
�[2m· list-users (root auth sanity)�[0m
iam_test.go:109: �[2m· list-users (root auth sanity)�[0m
�[2m· create-user "alice"�[0m
iam_test.go:114: �[2m· create-user "alice"�[0m
�[2muser�[0m=alice �[2marn�[0m=arn:aws:iam::000000000001:user/alice
iam_test.go:120: �[2muser�[0m=alice �[2marn�[0m=arn:aws:iam::000000000001:user/alice
�[2m· create-user "bob" path="/engineering/"�[0m
iam_test.go:122: �[2m· create-user "bob" path="/engineering/"�[0m
�[2m· create-user "alice" again (expect EntityAlreadyExists)�[0m
iam_test.go:131: �[2m· create-user "alice" again (expect EntityAlreadyExists)�[0m
�[2m· get-user "alice"�[0m
iam_test.go:137: �[2m· get-user "alice"�[0m
�[2m· get-user nonexistent (expect NoSuchEntity)�[0m
iam_test.go:142: �[2m· get-user nonexistent (expect NoSuchEntity)�[0m
�[2m· list-users (>=3 root+alice+bob)�[0m
iam_test.go:148: �[2m· list-users (>=3 root+alice+bob)�[0m
�[2m· list-users --path-prefix "/engineering/" (expect 1)�[0m
iam_test.go:154: �[2m· list-users --path-prefix "/engineering/" (expect 1)�[0m
iam_test.go:193: �[2m· create-user "iam-phase1-ephemeral" (delete idempotency probe)�[0m
�[2m· delete-user "iam-phase1-ephemeral"�[0m
iam_test.go:197: �[2m· delete-user "iam-phase1-ephemeral"�[0m
�[2m· delete-user "iam-phase1-ephemeral" again (expect NoSuchEntity)�[0m
iam_test.go:201: �[2m· delete-user "iam-phase1-ephemeral" again (expect NoSuchEntity)�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/IAM1_UserCRUD/UpdateUser" classname="" time="0.000">
<skipped message="Skipped"><![CDATA[ iam_test.go:165: daemon UpdateUser handler not implemented — InvalidAction
�[2m· create-user "iam-phase1-ephemeral" (delete idempotency probe)�[0m]]></skipped>
</testcase>
<testcase name="TestSingleNode/IAM2_AccessKeyLifecycle" classname="" time="0.040">
<system-out><![CDATA[
�[1m�[36m━━ IAM Phase 2 — Access Key Lifecycle ━━�[0m
�[2m· create-access-key user=alice (key 1)�[0m
iam_test.go:218: �[2m· create-access-key user=alice (key 1)�[0m
�[2mkey1�[0m=AKIA4984AE57CF8D721A879A
iam_test.go:227: �[2mkey1�[0m=AKIA4984AE57CF8D721A879A
�[2m· create-access-key user=alice (key 2)�[0m
iam_test.go:229: �[2m· create-access-key user=alice (key 2)�[0m
�[2mkey2�[0m=AKIAA1CD38D4F0E573216E11
iam_test.go:236: �[2mkey2�[0m=AKIAA1CD38D4F0E573216E11
�[2m· create-access-key user=alice key 3 (expect LimitExceeded)�[0m
iam_test.go:238: �[2m· create-access-key user=alice key 3 (expect LimitExceeded)�[0m
�[2m· create-access-key user=ghost (expect NoSuchEntity)�[0m
iam_test.go:246: �[2m· create-access-key user=ghost (expect NoSuchEntity)�[0m
�[2m· list-access-keys user=alice (expect 2)�[0m
iam_test.go:254: �[2m· list-access-keys user=alice (expect 2)�[0m
�[2m· list-access-keys user=bob (expect 0)�[0m
iam_test.go:261: �[2m· list-access-keys user=bob (expect 0)�[0m
�[2m· update-access-key AKIA4984AE57CF8D721A879A -> Inactive�[0m
iam_test.go:268: �[2m· update-access-key AKIA4984AE57CF8D721A879A -> Inactive�[0m
�[2m· update-access-key AKIA4984AE57CF8D721A879A -> Active�[0m
iam_test.go:279: �[2m· update-access-key AKIA4984AE57CF8D721A879A -> Active�[0m
�[2m· delete-access-key AKIAA1CD38D4F0E573216E11 (key 2)�[0m
iam_test.go:287: �[2m· delete-access-key AKIAA1CD38D4F0E573216E11 (key 2)�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/IAM3_UserAuthentication" classname="" time="0.000">
<skipped message="Skipped"><![CDATA[
�[1m�[36m━━ IAM Phase 3 — User Authentication ━━�[0m
iam_test.go:311: daemon IAM signature/principal lookup not implemented — mulga-siv-100]]></skipped>
</testcase>
<testcase name="TestSingleNode/IAM4_PolicyCRUD" classname="" time="0.040">
<system-out><![CDATA[
�[1m�[36m━━ IAM Phase 4 — Policy CRUD ━━�[0m
�[2m· create-policy EC2ReadOnly�[0m
iam_test.go:384: �[2m· create-policy EC2ReadOnly�[0m
�[2mpolicy�[0m=EC2ReadOnly �[2marn�[0m=arn:aws:iam::000000000001:policy/EC2ReadOnly �[2maccount�[0m=000000000001
iam_test.go:393: �[2mpolicy�[0m=EC2ReadOnly �[2marn�[0m=arn:aws:iam::000000000001:policy/EC2ReadOnly �[2maccount�[0m=000000000001
iam_test.go:440: �[2m· create-policy duplicate (expect EntityAlreadyExists)�[0m
�[2m· create-policy malformed (expect MalformedPolicyDocument)�[0m
iam_test.go:449: �[2m· create-policy malformed (expect MalformedPolicyDocument)�[0m
�[2m· get-policy EC2ReadOnly�[0m
iam_test.go:458: �[2m· get-policy EC2ReadOnly�[0m
�[2m· get-policy nonexistent (expect NoSuchEntity)�[0m
iam_test.go:463: �[2m· get-policy nonexistent (expect NoSuchEntity)�[0m
�[2m· get-policy-version EC2ReadOnly v1�[0m
iam_test.go:470: �[2m· get-policy-version EC2ReadOnly v1�[0m
iam_test.go:519: �[2m· list-policies (>=5)�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/IAM4_PolicyCRUD/create_policies_parallel" classname="" time="0.000"></testcase>
<testcase name="TestSingleNode/IAM4_PolicyCRUD/create_policies_parallel/FullAdmin" classname="" time="0.010">
<system-out><![CDATA[�[2m· create-policy FullAdmin path=/admin/�[0m
iam_test.go:402: �[2m· create-policy FullAdmin path=/admin/�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/IAM4_PolicyCRUD/create_policies_parallel/DenyTerminate" classname="" time="0.010">
<system-out><![CDATA[�[2m· create-policy DenyTerminate (mixed Allow+Deny)�[0m
iam_test.go:413: �[2m· create-policy DenyTerminate (mixed Allow+Deny)�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/IAM4_PolicyCRUD/create_policies_parallel/IAMReadOnly" classname="" time="0.020">
<system-out><![CDATA[�[2m· create-policy IAMReadOnly�[0m
iam_test.go:422: �[2m· create-policy IAMReadOnly�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/IAM4_PolicyCRUD/create_policies_parallel/EC2DescribeAll" classname="" time="0.020">
<system-out><![CDATA[�[2m· create-policy EC2DescribeAll (wildcard)�[0m
iam_test.go:431: �[2m· create-policy EC2DescribeAll (wildcard)�[0m
�[2m· create-policy duplicate (expect EntityAlreadyExists)�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/IAM4_PolicyCRUD/PolicyVersionLifecycle" classname="" time="0.000">
<skipped message="Skipped"><![CDATA[ iam_test.go:484: daemon CreatePolicyVersion handler not implemented — InvalidAction
�[2m· list-policies (>=5)�[0m]]></skipped>
</testcase>
<testcase name="TestSingleNode/IAM5_PolicyAttachmentEnforcement" classname="" time="0.000">
<skipped message="Skipped"><![CDATA[
�[1m�[36m━━ IAM Phase 5 — Policy Attachment & Enforcement ━━�[0m
iam_test.go:535: daemon IAM scoped-credential enforcement not implemented — mulga-siv-100]]></skipped>
</testcase>
<testcase name="TestSingleNode/IAM6_PolicyLifecycle" classname="" time="0.000">
<skipped message="Skipped"><![CDATA[
�[1m�[36m━━ IAM Phase 6 — Policy Lifecycle (Detach & Delete) ━━�[0m
iam_test.go:718: daemon DetachUserPolicy not implemented — mulga-siv-100]]></skipped>
</testcase>
<testcase name="TestSingleNode/IAM7_Cleanup" classname="" time="0.050">
<system-out><![CDATA[
�[1m�[36m━━ IAM Phase 7 — Cleanup ━━�[0m
�[2m· cleanup user alice�[0m
iam_test.go:770: �[2m· cleanup user alice�[0m
�[2m· cleanup user bob�[0m
iam_test.go:770: �[2m· cleanup user bob�[0m
�[2m· cleanup user charlie�[0m
iam_test.go:770: �[2m· cleanup user charlie�[0m
�[2mremaining_users�[0m=1 �[2mnames�[0m=[admin]
iam_test.go:779: �[2mremaining_users�[0m=1 �[2mnames�[0m=[admin]
�[2m· cleanup policy arn:aws:iam::000000000001:policy/EC2ReadOnly�[0m
iam_test.go:806: �[2m· cleanup policy arn:aws:iam::000000000001:policy/EC2ReadOnly�[0m
�[2m· cleanup policy arn:aws:iam::000000000001:policy/admin/FullAdmin�[0m
iam_test.go:806: �[2m· cleanup policy arn:aws:iam::000000000001:policy/admin/FullAdmin�[0m
�[2m· cleanup policy arn:aws:iam::000000000001:policy/IAMReadOnly�[0m
iam_test.go:806: �[2m· cleanup policy arn:aws:iam::000000000001:policy/IAMReadOnly�[0m
�[2m· cleanup policy arn:aws:iam::000000000001:policy/EC2DescribeAll�[0m
iam_test.go:806: �[2m· cleanup policy arn:aws:iam::000000000001:policy/EC2DescribeAll�[0m
�[2m· cleanup policy arn:aws:iam::000000000001:policy/DenyTerminate�[0m
iam_test.go:806: �[2m· cleanup policy arn:aws:iam::000000000001:policy/DenyTerminate�[0m
�[2mremaining_policies�[0m=1 �[2mnames�[0m=[AdministratorAccess]
iam_test.go:812: �[2mremaining_policies�[0m=1 �[2mnames�[0m=[AdministratorAccess]]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8Acct_AccountScoping" classname="" time="114.890">
<system-out><![CDATA[
�[1m�[36m━━ Phase 8 (acct) — EC2 Account Scoping ━━�[0m
account_test.go:75: �[2m· Phase 8 acct cleanup (deferred)�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8Acct_AccountScoping/Step1_AccountSetup" classname="" time="1.220">
<system-out><![CDATA[�[2m· create account 'Team Alpha'�[0m
account_test.go:206: �[2m· create account 'Team Alpha'�[0m
�[2malpha_account�[0m=000000000002 �[2malpha_key�[0m=AKIA374CBBB2A15D3E2EE822
account_test.go:211: �[2malpha_account�[0m=000000000002 �[2malpha_key�[0m=AKIA374CBBB2A15D3E2EE822
�[2m· create account 'Team Beta'�[0m
account_test.go:213: �[2m· create account 'Team Beta'�[0m
�[2mbeta_account�[0m=000000000003 �[2mbeta_key�[0m=AKIA0AA0B2845E3BD5A26D01
account_test.go:218: �[2mbeta_account�[0m=000000000003 �[2mbeta_key�[0m=AKIA0AA0B2845E3BD5A26D01]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8Acct_AccountScoping/Step2_InstanceScoping" classname="" time="52.380">
<system-out><![CDATA[�[2m· create per-account key pairs�[0m
account_test.go:242: �[2m· create per-account key pairs�[0m
�[2m· alpha run-instances�[0m
account_test.go:250: �[2m· alpha run-instances�[0m
�[2malpha_instance�[0m=i-a3072c2387630b8ee
account_test.go:262: �[2malpha_instance�[0m=i-a3072c2387630b8ee
�[2m· beta run-instances�[0m
account_test.go:264: �[2m· beta run-instances�[0m
�[2mbeta_instance�[0m=i-ad32cbb0afaee5eee
account_test.go:276: �[2mbeta_instance�[0m=i-ad32cbb0afaee5eee
account_test.go:278: instance i-a3072c2387630b8ee reached state running
account_test.go:279: instance i-ad32cbb0afaee5eee reached state running
�[2m· alpha sees only own instances�[0m
account_test.go:281: �[2m· alpha sees only own instances�[0m
�[2m· beta sees only own instances�[0m
account_test.go:285: �[2m· beta sees only own instances�[0m
�[2m· alpha OwnerId matches alpha account�[0m
account_test.go:289: �[2m· alpha OwnerId matches alpha account�[0m
�[2m· cross-account stop alpha->beta blocked�[0m
account_test.go:296: �[2m· cross-account stop alpha->beta blocked�[0m
�[2m· cross-account terminate beta->alpha blocked�[0m
account_test.go:304: �[2m· cross-account terminate beta->alpha blocked�[0m
�[2m· cross-account reboot alpha->beta blocked�[0m
account_test.go:312: �[2m· cross-account reboot alpha->beta blocked�[0m
�[2m· stop alpha instance for cross-account start/modify/console tests�[0m
account_test.go:321: �[2m· stop alpha instance for cross-account start/modify/console tests�[0m
account_test.go:326: instance i-a3072c2387630b8ee reached state stopped
�[2m· cross-account start beta->alpha blocked�[0m
account_test.go:328: �[2m· cross-account start beta->alpha blocked�[0m
�[2m· cross-account modify-instance-attribute beta->alpha blocked�[0m
account_test.go:336: �[2m· cross-account modify-instance-attribute beta->alpha blocked�[0m
�[2m· cross-account get-console-output beta->alpha blocked�[0m
account_test.go:345: �[2m· cross-account get-console-output beta->alpha blocked�[0m
�[2m· restart alpha instance�[0m
account_test.go:354: �[2m· restart alpha instance�[0m
account_test.go:359: instance i-a3072c2387630b8ee reached state running]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8Acct_AccountScoping/Step3_VolumeScoping" classname="" time="24.140">
<system-out><![CDATA[�[2m· alpha create-volume�[0m
account_test.go:366: �[2m· alpha create-volume�[0m
�[2malpha_vol�[0m=vol-ceef82652369780af
account_test.go:375: �[2malpha_vol�[0m=vol-ceef82652369780af
�[2m· beta create-volume�[0m
account_test.go:377: �[2m· beta create-volume�[0m
�[2mbeta_vol�[0m=vol-08024f32d23d9e18c
account_test.go:386: �[2mbeta_vol�[0m=vol-08024f32d23d9e18c
account_test.go:388: volume vol-ceef82652369780af reached state available
account_test.go:389: volume vol-08024f32d23d9e18c reached state available
�[2m· alpha sees only own volumes�[0m
account_test.go:391: �[2m· alpha sees only own volumes�[0m
�[2m· cross-account describe-volume by id blocked�[0m
account_test.go:395: �[2m· cross-account describe-volume by id blocked�[0m
�[2m· cross-account delete-volume blocked�[0m
account_test.go:403: �[2m· cross-account delete-volume blocked�[0m
�[2m· cross-account attach-volume (beta attaches alpha's vol) blocked�[0m
account_test.go:411: �[2m· cross-account attach-volume (beta attaches alpha's vol) blocked�[0m
�[2m· alpha attach-volume to own instance�[0m
account_test.go:422: �[2m· alpha attach-volume to own instance�[0m
account_test.go:429: volume vol-ceef82652369780af reached state in-use
�[2m· cross-account detach-volume blocked�[0m
account_test.go:431: �[2m· cross-account detach-volume blocked�[0m
�[2m· cross-account modify-volume blocked�[0m
account_test.go:439: �[2m· cross-account modify-volume blocked�[0m
�[2m· alpha detach own volume�[0m
account_test.go:449: �[2m· alpha detach own volume�[0m
account_test.go:454: volume vol-ceef82652369780af reached state available]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8Acct_AccountScoping/Step4_KeyPairScoping" classname="" time="0.370">
<system-out><![CDATA[�[2m· alpha create-key-pair alpha-key�[0m
account_test.go:466: �[2m· alpha create-key-pair alpha-key�[0m
�[2m· beta create-key-pair beta-key�[0m
account_test.go:473: �[2m· beta create-key-pair beta-key�[0m
�[2m· alpha sees only own keys�[0m
account_test.go:478: �[2m· alpha sees only own keys�[0m
�[2m· namespace isolation: shared-name in both accounts�[0m
account_test.go:483: �[2m· namespace isolation: shared-name in both accounts�[0m
�[2m· beta deletes alpha-key (idempotent, no cross-account effect)�[0m
account_test.go:497: �[2m· beta deletes alpha-key (idempotent, no cross-account effect)�[0m
�[2m· alpha import-key-pair imported-key�[0m
account_test.go:503: �[2m· alpha import-key-pair imported-key�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8Acct_AccountScoping/Step5_SnapshotScoping" classname="" time="0.060">
<system-out><![CDATA[�[2m· alpha create-snapshot�[0m
account_test.go:522: �[2m· alpha create-snapshot�[0m
�[2malpha_snap�[0m=snap-2a47896f4304d805c
account_test.go:530: �[2malpha_snap�[0m=snap-2a47896f4304d805c
�[2m· beta create-snapshot�[0m
account_test.go:532: �[2m· beta create-snapshot�[0m
�[2mbeta_snap�[0m=snap-bf5744e78bd7c6908
account_test.go:540: �[2mbeta_snap�[0m=snap-bf5744e78bd7c6908
�[2m· alpha sees only own snapshots (owner-ids=self)�[0m
account_test.go:542: �[2m· alpha sees only own snapshots (owner-ids=self)�[0m
�[2m· cross-account delete-snapshot blocked (UnauthorizedOperation)�[0m
account_test.go:560: �[2m· cross-account delete-snapshot blocked (UnauthorizedOperation)�[0m
�[2m· cross-account create-snapshot of alpha's volume blocked�[0m
account_test.go:568: �[2m· cross-account create-snapshot of alpha's volume blocked�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8Acct_AccountScoping/Step6_VPCSubnetScoping" classname="" time="0.030">
<system-out><![CDATA[�[2m· alpha create-vpc 10.0.0.0/16�[0m
account_test.go:582: �[2m· alpha create-vpc 10.0.0.0/16�[0m
�[2malpha_vpc�[0m=vpc-7f60df5e87183fb59
account_test.go:589: �[2malpha_vpc�[0m=vpc-7f60df5e87183fb59
�[2m· beta create-vpc 10.0.0.0/16 (same CIDR, no conflict)�[0m
account_test.go:591: �[2m· beta create-vpc 10.0.0.0/16 (same CIDR, no conflict)�[0m
�[2mbeta_vpc�[0m=vpc-7e8c859d3985c8218
account_test.go:598: �[2mbeta_vpc�[0m=vpc-7e8c859d3985c8218
�[2m· alpha describe-vpcs isolation�[0m
account_test.go:600: �[2m· alpha describe-vpcs isolation�[0m
�[2m· cross-account describe-vpc by id blocked�[0m
account_test.go:605: �[2m· cross-account describe-vpc by id blocked�[0m
�[2m· cross-account delete-vpc blocked�[0m
account_test.go:613: �[2m· cross-account delete-vpc blocked�[0m
�[2m· alpha create-subnet 10.0.1.0/24�[0m
account_test.go:621: �[2m· alpha create-subnet 10.0.1.0/24�[0m
�[2m· beta create-subnet 10.0.1.0/24�[0m
account_test.go:630: �[2m· beta create-subnet 10.0.1.0/24�[0m
�[2m· alpha describe-subnets isolation�[0m
account_test.go:639: �[2m· alpha describe-subnets isolation�[0m
�[2m· cross-account create-subnet in other VPC blocked�[0m
account_test.go:648: �[2m· cross-account create-subnet in other VPC blocked�[0m
�[2m· cross-account delete-subnet blocked�[0m
account_test.go:657: �[2m· cross-account delete-subnet blocked�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8Acct_AccountScoping/Step7_IGWEIGWScoping" classname="" time="0.030">
<system-out><![CDATA[�[2m· alpha create-internet-gateway�[0m
account_test.go:673: �[2m· alpha create-internet-gateway�[0m
�[2malpha_igw�[0m=igw-ee966e3e923caf630
account_test.go:678: �[2malpha_igw�[0m=igw-ee966e3e923caf630
�[2m· beta create-internet-gateway�[0m
account_test.go:680: �[2m· beta create-internet-gateway�[0m
�[2mbeta_igw�[0m=igw-b46e66f2065889bb9
account_test.go:685: �[2mbeta_igw�[0m=igw-b46e66f2065889bb9
�[2m· alpha describe-internet-gateways isolation�[0m
account_test.go:687: �[2m· alpha describe-internet-gateways isolation�[0m
�[2m· cross-account describe IGW by id blocked�[0m
account_test.go:696: �[2m· cross-account describe IGW by id blocked�[0m
�[2m· cross-account delete IGW blocked�[0m
account_test.go:704: �[2m· cross-account delete IGW blocked�[0m
�[2m· cross-account attach IGW (alpha attaches beta's IGW) blocked�[0m
account_test.go:712: �[2m· cross-account attach IGW (alpha attaches beta's IGW) blocked�[0m
�[2m· alpha attach own IGW to own VPC�[0m
account_test.go:722: �[2m· alpha attach own IGW to own VPC�[0m
�[2m· cross-account detach IGW blocked�[0m
account_test.go:729: �[2m· cross-account detach IGW blocked�[0m
�[2m· alpha create-egress-only-internet-gateway�[0m
account_test.go:739: �[2m· alpha create-egress-only-internet-gateway�[0m
�[2malpha_eigw�[0m=eigw-51ba82da927e49393
account_test.go:746: �[2malpha_eigw�[0m=eigw-51ba82da927e49393
�[2m· beta create-egress-only-internet-gateway�[0m
account_test.go:748: �[2m· beta create-egress-only-internet-gateway�[0m
�[2mbeta_eigw�[0m=eigw-e88d642e78ab4fe5a
account_test.go:755: �[2mbeta_eigw�[0m=eigw-e88d642e78ab4fe5a
�[2m· alpha describe-eigws isolation�[0m
account_test.go:757: �[2m· alpha describe-eigws isolation�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8Acct_AccountScoping/Step8_AccountSettings" classname="" time="0.010">
<system-out><![CDATA[�[2m· alpha enable-ebs-encryption-by-default�[0m
account_test.go:794: �[2m· alpha enable-ebs-encryption-by-default�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8Acct_AccountScoping/Step9_GlobalResources" classname="" time="0.010">
<system-out><![CDATA[�[2m· describe-regions identical across accounts�[0m
account_test.go:829: �[2m· describe-regions identical across accounts�[0m
�[2m· describe-availability-zones identical across accounts�[0m
account_test.go:834: �[2m· describe-availability-zones identical across accounts�[0m
�[2m· describe-instance-types identical across accounts�[0m
account_test.go:839: �[2m· describe-instance-types identical across accounts�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8Acct_AccountScoping/Step10_EdgeCases" classname="" time="1.200">
<system-out><![CDATA[�[2m· create empty Gamma account�[0m
account_test.go:849: �[2m· create empty Gamma account�[0m
�[2mgamma_account�[0m=000000000004
account_test.go:852: �[2mgamma_account�[0m=000000000004
�[2m· root create-key-pair root-scoping-key�[0m
account_test.go:879: �[2m· root create-key-pair root-scoping-key�[0m
�[2m· non-existent volume id -> InvalidVolume.NotFound�[0m
account_test.go:895: �[2m· non-existent volume id -> InvalidVolume.NotFound�[0m
�[2m· non-existent snapshot id -> InvalidSnapshot.NotFound�[0m
account_test.go:903: �[2m· non-existent snapshot id -> InvalidSnapshot.NotFound�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8Acct_AccountScoping/Step11_Cleanup" classname="" time="32.440">
<system-out><![CDATA[�[2m· terminate alpha instance�[0m
account_test.go:920: �[2m· terminate alpha instance�[0m
�[2m· terminate beta instance�[0m
account_test.go:926: �[2m· terminate beta instance�[0m
�[2m· delete snapshots�[0m
account_test.go:939: �[2m· delete snapshots�[0m
�[2m· delete volumes�[0m
account_test.go:955: �[2m· delete volumes�[0m
�[2m· delete key pairs�[0m
account_test.go:969: �[2m· delete key pairs�[0m
�[2m· delete EIGWs�[0m
account_test.go:979: �[2m· delete EIGWs�[0m
�[2m· detach + delete IGWs�[0m
account_test.go:993: �[2m· detach + delete IGWs�[0m
�[2m· delete subnets�[0m
account_test.go:1013: �[2m· delete subnets�[0m
�[2m· delete VPCs�[0m
account_test.go:1027: �[2m· delete VPCs�[0m
�[2m· Phase 8 acct cleanup (deferred)�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8b_VPCSubnetE2E" classname="" time="200.480">
<failure message="Failed"><![CDATA[
�[1m�[36m━━ Phase 8b — VPC Public/Private Subnet E2E ━━�[0m
�[2m· create-vpc 10.99.0.0/16�[0m
vpc_test.go:56: �[2m· create-vpc 10.99.0.0/16�[0m
�[2mvpc�[0m=vpc-39eff985799c43069 �[2mcidr�[0m=10.99.0.0/16
vpc_test.go:67: �[2mvpc�[0m=vpc-39eff985799c43069 �[2mcidr�[0m=10.99.0.0/16
�[2m· create-subnet 10.99.1.0/24 (public)�[0m
vpc_test.go:70: �[2m· create-subnet 10.99.1.0/24 (public)�[0m
�[2m· modify-subnet-attribute MapPublicIpOnLaunch=true subnet-22aba054e10588254�[0m
vpc_test.go:87: �[2m· modify-subnet-attribute MapPublicIpOnLaunch=true subnet-22aba054e10588254�[0m
�[2mpub_subnet�[0m=subnet-22aba054e10588254 �[2mmap_public_ip�[0m=true
vpc_test.go:93: �[2mpub_subnet�[0m=subnet-22aba054e10588254 �[2mmap_public_ip�[0m=true
�[2m· create-subnet 10.99.2.0/24 (private)�[0m
vpc_test.go:96: �[2m· create-subnet 10.99.2.0/24 (private)�[0m
�[2mpriv_subnet�[0m=subnet-f53aeddb73c134696 �[2mmap_public_ip�[0m=false
vpc_test.go:111: �[2mpriv_subnet�[0m=subnet-f53aeddb73c134696 �[2mmap_public_ip�[0m=false
�[2m· create-internet-gateway�[0m
vpc_test.go:114: �[2m· create-internet-gateway�[0m
�[2m· attach-internet-gateway igw-1520b5a34480da982 -> vpc-39eff985799c43069�[0m
vpc_test.go:133: �[2m· attach-internet-gateway igw-1520b5a34480da982 -> vpc-39eff985799c43069�[0m
�[2migw�[0m=igw-1520b5a34480da982
vpc_test.go:139: �[2migw�[0m=igw-1520b5a34480da982
�[2m· create-route-table (vpc=vpc-39eff985799c43069)�[0m
vpc_test.go:142: �[2m· create-route-table (vpc=vpc-39eff985799c43069)�[0m
�[2m· associate-route-table rtb-662df5e424cbdb60c <- subnet-22aba054e10588254�[0m
vpc_test.go:159: �[2m· associate-route-table rtb-662df5e424cbdb60c <- subnet-22aba054e10588254�[0m
�[2m· create-route 0.0.0.0/0 -> igw-1520b5a34480da982�[0m
vpc_test.go:176: �[2m· create-route 0.0.0.0/0 -> igw-1520b5a34480da982�[0m
�[2mrtb�[0m=rtb-662df5e424cbdb60c �[2massoc�[0m=rtbassoc-5510bf1dc6924eb0b �[2mroute�[0m=0.0.0.0/0->igw-1520b5a34480da982
vpc_test.go:192: �[2mrtb�[0m=rtb-662df5e424cbdb60c �[2massoc�[0m=rtbassoc-5510bf1dc6924eb0b �[2mroute�[0m=0.0.0.0/0->igw-1520b5a34480da982
�[2m· run-instances ami=ami-6f60f2b3bf04b5453 subnet=subnet-22aba054e10588254�[0m
vpc_test.go:195: �[2m· run-instances ami=ami-6f60f2b3bf04b5453 subnet=subnet-22aba054e10588254�[0m
�[2minstance�[0m=i-3177888cba3796d42
vpc_test.go:216: �[2minstance�[0m=i-3177888cba3796d42
vpc_test.go:218: instance i-3177888cba3796d42 reached state running
�[2mpublic_ip�[0m=192.168.0.202 �[2mprivate_ip�[0m=10.99.1.4
vpc_test.go:224: �[2mpublic_ip�[0m=192.168.0.202 �[2mprivate_ip�[0m=10.99.1.4
�[2m· waiting for SSH handshake 192.168.0.202:22�[0m
vpc_test.go:227: �[2m· waiting for SSH handshake 192.168.0.202:22�[0m
vpc_test.go:227: Eventually: condition not met within 3m0s: [SSH handshake 192.168.0.202:22 never completed]]]></failure>
</testcase>
<testcase name="TestSingleNode/Phase8c_RouteTableValidation" classname="" time="0.030">
<system-out><![CDATA[
�[1m�[36m━━ Phase 8c — Route Table Validation ━━�[0m
�[2mvpc�[0m=vpc-531252db3b4e1fc08 �[2msubnet�[0m=subnet-cd62e4c1c3cb50c63
vpc_test.go:292: �[2mvpc�[0m=vpc-531252db3b4e1fc08 �[2msubnet�[0m=subnet-cd62e4c1c3cb50c63]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8c_RouteTableValidation/Step1_DefaultMainRouteTable" classname="" time="0.000">
<system-out><![CDATA[�[2m· describe-route-tables filter=vpc-id,association.main�[0m
vpc_test.go:297: �[2m· describe-route-tables filter=vpc-id,association.main�[0m
�[2mmain_rtb�[0m=rtb-e42012569f92f7184
vpc_test.go:309: �[2mmain_rtb�[0m=rtb-e42012569f92f7184
�[2mlocal_route�[0m=172.31.0.0/16
vpc_test.go:332: �[2mlocal_route�[0m=172.31.0.0/16
�[2mdefault_route�[0m=0.0.0.0/0->igw-79c2e643660b4b7e3
vpc_test.go:350: �[2mdefault_route�[0m=0.0.0.0/0->igw-79c2e643660b4b7e3]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8c_RouteTableValidation/Step2_CustomRouteTableLifecycle" classname="" time="0.020">
<system-out><![CDATA[�[2m· create-route-table (vpc=vpc-531252db3b4e1fc08)�[0m
vpc_test.go:363: �[2m· create-route-table (vpc=vpc-531252db3b4e1fc08)�[0m
�[2mcustom_rtb�[0m=rtb-5e6c46936f3e44167
vpc_test.go:379: �[2mcustom_rtb�[0m=rtb-5e6c46936f3e44167
�[2mcustom_local_route�[0m=172.31.0.0/16
vpc_test.go:396: �[2mcustom_local_route�[0m=172.31.0.0/16
�[2mvpc_igw�[0m=igw-79c2e643660b4b7e3
vpc_test.go:410: �[2mvpc_igw�[0m=igw-79c2e643660b4b7e3
�[2m· create-route 0.0.0.0/0 -> igw-79c2e643660b4b7e3�[0m
vpc_test.go:415: �[2m· create-route 0.0.0.0/0 -> igw-79c2e643660b4b7e3�[0m
�[2m· associate-route-table rtb-5e6c46936f3e44167 <- subnet-cd62e4c1c3cb50c63�[0m
vpc_test.go:434: �[2m· associate-route-table rtb-5e6c46936f3e44167 <- subnet-cd62e4c1c3cb50c63�[0m
�[2mcustom_assoc�[0m=rtbassoc-da6377d37847d3d4a
vpc_test.go:450: �[2mcustom_assoc�[0m=rtbassoc-da6377d37847d3d4a
�[2m· disassociate-route-table rtbassoc-da6377d37847d3d4a�[0m
vpc_test.go:452: �[2m· disassociate-route-table rtbassoc-da6377d37847d3d4a�[0m
�[2m· delete-route 0.0.0.0/0�[0m
vpc_test.go:460: �[2m· delete-route 0.0.0.0/0�[0m
�[2m· delete-route-table rtb-5e6c46936f3e44167�[0m
vpc_test.go:468: �[2m· delete-route-table rtb-5e6c46936f3e44167�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8c_RouteTableValidation/Step3_ErrorPaths" classname="" time="0.010">
<system-out><![CDATA[�[2m· create-route-table (scratch for error paths)�[0m
vpc_test.go:481: �[2m· create-route-table (scratch for error paths)�[0m
�[2m· delete-route local=172.31.0.0/16 (must fail)�[0m
vpc_test.go:517: �[2m· delete-route local=172.31.0.0/16 (must fail)�[0m
�[2mdelete_local_err�[0m=InvalidParameterValue
vpc_test.go:529: �[2mdelete_local_err�[0m=InvalidParameterValue
�[2m· delete-route-table rtb-e42012569f92f7184 (main, must fail)�[0m
vpc_test.go:533: �[2m· delete-route-table rtb-e42012569f92f7184 (main, must fail)�[0m
�[2mdelete_main_err�[0m=DependencyViolation
vpc_test.go:540: �[2mdelete_main_err�[0m=DependencyViolation]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8d_NATGateway" classname="" time="106.010">
<system-out><![CDATA[
�[1m�[36m━━ Phase 8d — NAT Gateway E2E ━━�[0m
�[2mvpc�[0m=vpc-531252db3b4e1fc08 �[2mpub_subnet�[0m=subnet-cd62e4c1c3cb50c63 �[2msg�[0m=sg-764a7fa2a39577204
natgw_test.go:54: �[2mvpc�[0m=vpc-531252db3b4e1fc08 �[2mpub_subnet�[0m=subnet-cd62e4c1c3cb50c63 �[2msg�[0m=sg-764a7fa2a39577204
�[2m· create-subnet 172.31.16.0/20 (private)�[0m
natgw_test.go:58: �[2m· create-subnet 172.31.16.0/20 (private)�[0m
�[2mpriv_subnet�[0m=subnet-2360a40e28371e214
natgw_test.go:71: �[2mpriv_subnet�[0m=subnet-2360a40e28371e214
�[2m· run-instances bastion (default subnet)�[0m
natgw_test.go:74: �[2m· run-instances bastion (default subnet)�[0m
�[2m· run-instances private (private subnet)�[0m
natgw_test.go:98: �[2m· run-instances private (private subnet)�[0m
natgw_test.go:118: instance i-268402f0e28b5e477 reached state running
natgw_test.go:119: instance i-db7f3ed6e4cdaa5aa reached state running
�[2mbastion�[0m=i-268402f0e28b5e477 �[2mbastion_ip�[0m=192.168.0.202 �[2mprivate�[0m=i-db7f3ed6e4cdaa5aa �[2mprivate_ip�[0m=172.31.16.4
natgw_test.go:128: �[2mbastion�[0m=i-268402f0e28b5e477 �[2mbastion_ip�[0m=192.168.0.202 �[2mprivate�[0m=i-db7f3ed6e4cdaa5aa �[2mprivate_ip�[0m=172.31.16.4
�[2m· waiting for SSH handshake 192.168.0.202:22�[0m
natgw_test.go:133: �[2m· waiting for SSH handshake 192.168.0.202:22�[0m
�[2m· scp keypair -> bastion:/tmp/key.pem�[0m
natgw_test.go:139: �[2m· scp keypair -> bastion:/tmp/key.pem�[0m
�[2m· wait for private SSH via bastion�[0m
natgw_test.go:151: �[2m· wait for private SSH via bastion�[0m
�[2m· baseline: private VM has no internet�[0m
natgw_test.go:172: �[2m· baseline: private VM has no internet�[0m
�[2m· allocate-address (NAT EIP)�[0m
natgw_test.go:178: �[2m· allocate-address (NAT EIP)�[0m
�[2meip�[0m=192.168.0.203 �[2malloc�[0m=eipalloc-2d81753157cd62a50
natgw_test.go:195: �[2meip�[0m=192.168.0.203 �[2malloc�[0m=eipalloc-2d81753157cd62a50
�[2m· create-nat-gateway in subnet-cd62e4c1c3cb50c63�[0m
natgw_test.go:197: �[2m· create-nat-gateway in subnet-cd62e4c1c3cb50c63�[0m
�[2mnat_gw�[0m=nat-812216dd5105180c5
natgw_test.go:216: �[2mnat_gw�[0m=nat-812216dd5105180c5
natgw_test.go:218: nat gateway nat-812216dd5105180c5 reached state available
�[2m· create-route-table�[0m
natgw_test.go:223: �[2m· create-route-table�[0m
�[2m· associate-route-table rtb-8d6a4abd5f666ec13 <- subnet-2360a40e28371e214�[0m
natgw_test.go:241: �[2m· associate-route-table rtb-8d6a4abd5f666ec13 <- subnet-2360a40e28371e214�[0m
�[2m· create-route 0.0.0.0/0 -> nat-812216dd5105180c5�[0m
natgw_test.go:259: �[2m· create-route 0.0.0.0/0 -> nat-812216dd5105180c5�[0m
�[2m· verify private VM reaches 8.8.8.8 via NAT GW�[0m
natgw_test.go:279: �[2m· verify private VM reaches 8.8.8.8 via NAT GW�[0m
�[2m· delete-nat-gateway nat-812216dd5105180c5�[0m
natgw_test.go:293: �[2m· delete-nat-gateway nat-812216dd5105180c5�[0m
natgw_test.go:318: nat gateway nat-812216dd5105180c5 reached state deleted
�[2m· verify private VM lost internet after NAT GW teardown�[0m
natgw_test.go:329: �[2m· verify private VM lost internet after NAT GW teardown�[0m]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase8e_SGToSGDatapath" classname="" time="80.940">
<system-out><![CDATA[
�[1m�[36m━━ Phase 8e — Security Group SG-to-SG Datapath (OVN) ━━�[0m
�[2m· 8e-1 create sge-client + sge-target security groups�[0m
datapath_test.go:61: �[2m· 8e-1 create sge-client + sge-target security groups�[0m
�[2mclient_sg�[0m=sg-56e73c764a649f7ff �[2mtarget_sg�[0m=sg-67ad5efaa8be83b79
datapath_test.go:83: �[2mclient_sg�[0m=sg-56e73c764a649f7ff �[2mtarget_sg�[0m=sg-67ad5efaa8be83b79
�[2m· 8e-1 authorize target-sg ingress tcp/8080 from sg-56e73c764a649f7ff�[0m
datapath_test.go:91: �[2m· 8e-1 authorize target-sg ingress tcp/8080 from sg-56e73c764a649f7ff�[0m
�[2m· 8e-2 launch client-vm + target-vm�[0m
datapath_test.go:109: �[2m· 8e-2 launch client-vm + target-vm�[0m
datapath_test.go:132: instance i-eae6263d9b9fda069 reached state running
datapath_test.go:133: instance i-9d9411a83549d34e3 reached state running
�[2mclient_priv�[0m=172.31.0.5 �[2mclient_eni�[0m=eni-0f878da0143028915 �[2mtarget_priv�[0m=172.31.0.6 �[2mtarget_eni�[0m=eni-3bd355e19c7fdd45c
datapath_test.go:142: �[2mclient_priv�[0m=172.31.0.5 �[2mclient_eni�[0m=eni-0f878da0143028915 �[2mtarget_priv�[0m=172.31.0.6 �[2mtarget_eni�[0m=eni-3bd355e19c7fdd45c
�[2m· 8e-3 ovn-nbctl port_group membership�[0m
datapath_test.go:151: �[2m· 8e-3 ovn-nbctl port_group membership�[0m
�[2mclient_pg�[0m=sg_56e73c764a649f7ff �[2mtarget_pg�[0m=sg_67ad5efaa8be83b79
datapath_test.go:163: �[2mclient_pg�[0m=sg_56e73c764a649f7ff �[2mtarget_pg�[0m=sg_67ad5efaa8be83b79
�[2m· 8e-3 ovn-sbctl address_set sg_56e73c764a649f7ff_ip4 contains 172.31.0.5�[0m
datapath_test.go:170: �[2m· 8e-3 ovn-sbctl address_set sg_56e73c764a649f7ff_ip4 contains 172.31.0.5�[0m
�[2m· 8e-3 wait for client-vm SSH at 192.168.0.202:22�[0m
datapath_test.go:188: �[2m· 8e-3 wait for client-vm SSH at 192.168.0.202:22�[0m
�[2m· 8e-4 allowed traffic client -> target:172.31.0.6:8080�[0m
datapath_test.go:199: �[2m· 8e-4 allowed traffic client -> target:172.31.0.6:8080�[0m
�[2mstep4�[0m=allowed_traffic_ok
datapath_test.go:208: �[2mstep4�[0m=allowed_traffic_ok
�[2m· 8e-5 denied traffic client -> target:22 (no SSH ingress)�[0m
datapath_test.go:213: �[2m· 8e-5 denied traffic client -> target:22 (no SSH ingress)�[0m
�[2mstep5�[0m=denied_traffic_ok
datapath_test.go:217: �[2mstep5�[0m=denied_traffic_ok
�[2m· 8e-6 revoke target-sg ingress, retest (sync RequestEvent contract)�[0m
datapath_test.go:222: �[2m· 8e-6 revoke target-sg ingress, retest (sync RequestEvent contract)�[0m
�[2m· 8e-6 verify client -> target:8080 now blocked�[0m
datapath_test.go:240: �[2m· 8e-6 verify client -> target:8080 now blocked�[0m
�[2mstep6�[0m=revoke_blocked_ok
datapath_test.go:244: �[2mstep6�[0m=revoke_blocked_ok
�[2m· 8e-7 re-authorize target-sg ingress, verify traffic restored�[0m
datapath_test.go:250: �[2m· 8e-7 re-authorize target-sg ingress, verify traffic restored�[0m
�[2mstep7�[0m=restore_ok
datapath_test.go:271: �[2mstep7�[0m=restore_ok
datapath_test.go:127: instance i-eae6263d9b9fda069 reached state terminated
datapath_test.go:127: instance i-9d9411a83549d34e3 reached state terminated]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase9_Teardown" classname="" time="8.300">
<system-out><![CDATA[
�[1m�[36m━━ Phase 9 — Teardown ━━�[0m
�[2m· delete-snapshot snap-dde89b9ea2ef2e05a (custom AMI backing)�[0m
teardown_test.go:33: �[2m· delete-snapshot snap-dde89b9ea2ef2e05a (custom AMI backing)�[0m
�[2mdeleted_snapshot�[0m=snap-dde89b9ea2ef2e05a
teardown_test.go:39: �[2mdeleted_snapshot�[0m=snap-dde89b9ea2ef2e05a
�[2m· deregister-image ami-7dcf263a412dd14c6�[0m
teardown_test.go:51: �[2m· deregister-image ami-7dcf263a412dd14c6�[0m
�[2mderegistered_ami�[0m=ami-7dcf263a412dd14c6
teardown_test.go:57: �[2mderegistered_ami�[0m=ami-7dcf263a412dd14c6
�[2m· terminate-instances i-0c615e5dd74050f53�[0m
teardown_test.go:74: �[2m· terminate-instances i-0c615e5dd74050f53�[0m
�[2mterminated_instance�[0m=i-0c615e5dd74050f53
teardown_test.go:81: �[2mterminated_instance�[0m=i-0c615e5dd74050f53
�[2m· delete-key-pair test-key-1�[0m
teardown_test.go:94: �[2m· delete-key-pair test-key-1�[0m
�[2mdeleted_keypair�[0m=test-key-1
teardown_test.go:100: �[2mdeleted_keypair�[0m=test-key-1]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase9a_VerifyTeardown" classname="" time="0.560">
<system-out><![CDATA[
�[1m�[36m━━ Phase 9a — Verify Teardown ━━�[0m
�[2m· describe-instances i-0c615e5dd74050f53�[0m
teardown_test.go:123: �[2m· describe-instances i-0c615e5dd74050f53�[0m
�[2minstance_state�[0m=terminated
teardown_test.go:135: �[2minstance_state�[0m=terminated
�[2m· describe-images ami-7dcf263a412dd14c6�[0m
teardown_test.go:147: �[2m· describe-images ami-7dcf263a412dd14c6�[0m
�[2mami_reaped�[0m=ami-7dcf263a412dd14c6
teardown_test.go:159: �[2mami_reaped�[0m=ami-7dcf263a412dd14c6
�[2m· describe-key-pairs (must not contain test-key-1)�[0m
teardown_test.go:167: �[2m· describe-key-pairs (must not contain test-key-1)�[0m
�[2mkeypairs_listed�[0m=1
teardown_test.go:176: �[2mkeypairs_listed�[0m=1]]></system-out>
</testcase>
<testcase name="TestSingleNode/Phase9b_FinalClusterStats" classname="" time="3.070">
<system-out><![CDATA[
�[1m�[36m━━ Phase 9b — Final Cluster Stats ━━�[0m
�[2mspx_get_vms_bytes�[0m=118
teardown_test.go:208: �[2mspx_get_vms_bytes�[0m=118]]></system-out>
</testcase>
</testsuite>
</testsuites>
+1
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@@ -0,0 +1 @@
__pycache__/
+46
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@@ -0,0 +1,46 @@
# junit-report
Composite action that renders a glob of JUnit XML files into the GitHub
Actions job summary and emits one `::error` annotation per failed test case.
## Usage
```yaml
- name: Publish test summary
if: always()
uses: ./spinifex/.github/actions/junit-report # or your own checkout path
with:
junit-glob: ${{ env.ARTIFACT_DIR }}/junit-*.xml
title: "Go E2E results"
# fail-on-empty: "true" # opt-in: fail the step if the glob matches nothing
```
Outputs:
- `failures` — total `<failure>` + `<error>` counts across all matched files.
- `total` — total `<testcase>` count across all matched files.
The action expects standard JUnit XML (e.g. emitted by
`gotestsum --junitfile`, `go-junit-report`, or pytest's `--junitxml`). Both
single `<testsuite>` and wrapping `<testsuites>` roots are accepted.
## Companion convention: `::group::` for noisy steps
Long-running shell phases (tofu apply, package installs, tar-over-ssh) should
wrap their output in `::group::name` / `::endgroup::` markers so the Actions
UI collapses them by default. Pattern used in the e2e-go / e2e-ddil workflows:
```bash
run() {
local label="$1"; shift
echo "::group::${label}"
"$@" 2>&1 | tee -a "$TOFU_LOG"
local rc=${PIPESTATUS[0]}
echo "::endgroup::"
return "$rc"
}
run "tofu apply" tofu apply -var-file=... -auto-approve -input=false
```
Combined: groups make the live UI readable; this action makes the run header
land on the failures without scrolling the log.
+41
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@@ -0,0 +1,41 @@
name: JUnit Report
description: >-
Render JUnit XML files into the GitHub Actions job summary and emit
inline ::error annotations for each failed test case. Designed to be
called once per job after the test step (with `if: always()`) so summary
+ annotations appear on both passing and failing runs.
inputs:
junit-glob:
description: Shell glob matching JUnit XML files to render.
required: true
title:
description: Heading rendered at the top of the job summary section.
required: false
default: "Test results"
fail-on-empty:
description: >-
When "true", the action fails if the glob matches no files. Useful
for catching silently-skipped test phases.
required: false
default: "false"
outputs:
failures:
description: Total failed + errored test cases across all matched files.
value: ${{ steps.render.outputs.failures }}
total:
description: Total test cases across all matched files.
value: ${{ steps.render.outputs.total }}
runs:
using: composite
steps:
- id: render
shell: bash
env:
JUNIT_GLOB: ${{ inputs.junit-glob }}
JUNIT_TITLE: ${{ inputs.title }}
JUNIT_FAIL_ON_EMPTY: ${{ inputs.fail-on-empty }}
run: |
python3 "${{ github.action_path }}/render.py"
+281
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@@ -0,0 +1,281 @@
#!/usr/bin/env python3
"""Render JUnit XML files into GitHub Actions job summary + annotations.
Inputs (env):
JUNIT_GLOB Glob matching JUnit XML files.
JUNIT_TITLE Heading text for the summary section.
JUNIT_FAIL_ON_EMPTY "true" to exit non-zero when glob matches nothing.
GitHub-Actions outputs (via $GITHUB_OUTPUT):
failures Sum of <failures> + <errors> across all suites.
total Sum of <tests> across all suites.
Side effects:
Appends a markdown section to $GITHUB_STEP_SUMMARY with a per-file
totals table and a collapsible details block per failed test.
Emits one `::error` workflow command per failed/errored test case so
they surface as annotations in the run UI.
"""
from __future__ import annotations
import glob
import os
import re
import sys
import xml.etree.ElementTree as ET
from dataclasses import dataclass
# Strip ANSI SGR escapes from skipped/failure CDATA so the rendered reason is
# plain text (CDATA preserves the colour codes Go emits via harness.Phase).
_ANSI_RE = re.compile(r"\x1b\[[0-9;]*m")
def _strip_ansi(s: str) -> str:
return _ANSI_RE.sub("", s)
# Last `<file>.go:<line>: <reason>` line in a CDATA block is the t.Skipf /
# t.Fatal call site — that's the actionable signal. Phase banners and probe
# logs above it are noise for the summary view.
_SKIP_REASON_RE = re.compile(r"([A-Za-z0-9_.\-/]+\.go:\d+:\s*.+)$")
def _extract_skip_reason(cdata: str) -> str:
cdata = _strip_ansi(cdata).strip()
if not cdata:
return ""
for line in reversed(cdata.splitlines()):
line = line.strip()
m = _SKIP_REASON_RE.search(line)
if m:
return m.group(1).strip()
return cdata.splitlines()[-1].strip()
# Workflow commands carry their payload on one line; literal newlines must
# be percent-escaped per GitHub's workflow-command spec.
def _esc(s: str) -> str:
return (
s.replace("%", "%25")
.replace("\r", "%0D")
.replace("\n", "%0A")
)
@dataclass
class Case:
suite: str
classname: str
name: str
time: float
status: str # "pass" | "fail" | "error" | "skip"
message: str
detail: str
@dataclass
class FileTotals:
path: str
tests: int
failures: int
errors: int
skipped: int
time: float
cases: list[Case]
def _parse_file(path: str) -> FileTotals:
root = ET.parse(path).getroot()
# JUnit XML has two shapes: <testsuite> as root, or <testsuites> wrapping
# multiple <testsuite> children. Iterating with .iter() handles both.
suites = list(root.iter("testsuite"))
tests = sum(int(s.get("tests", 0) or 0) for s in suites)
failures = sum(int(s.get("failures", 0) or 0) for s in suites)
errors = sum(int(s.get("errors", 0) or 0) for s in suites)
skipped = sum(int(s.get("skipped", 0) or 0) for s in suites)
time = sum(float(s.get("time", 0) or 0) for s in suites)
cases: list[Case] = []
for s in suites:
suite_name = s.get("name", "")
for tc in s.findall("testcase"):
status = "pass"
message = ""
detail = ""
for tag in ("failure", "error"):
node = tc.find(tag)
if node is not None:
status = "fail" if tag == "failure" else "error"
message = (node.get("message") or "").strip()
detail = (node.text or "").strip()
break
skip_node = tc.find("skipped")
if skip_node is not None and status == "pass":
status = "skip"
# Skipped reason: prefer the CDATA call-site line, fall back
# to the @message attribute if CDATA is empty.
cdata = (skip_node.text or "").strip()
message = _extract_skip_reason(cdata) or (
skip_node.get("message") or ""
).strip()
cases.append(
Case(
suite=suite_name,
classname=tc.get("classname", ""),
name=tc.get("name", ""),
time=float(tc.get("time", 0) or 0),
status=status,
message=message,
detail=detail,
)
)
# Drop container test cases: any case whose name is a strict prefix of
# another case's name (with "/" separator) is a parent t.Run wrapper.
# Go reports the parent's status as a rollup of its children, so counting
# both double-tallies the same outcome (e.g. TestSingleNode failing
# because Phase8b_VPCSubnetE2E failed would show as 2 failures, not 1).
names = {c.name for c in cases}
prefixes = {n.rsplit("/", 1)[0] for n in names if "/" in n}
# A name is a container if some other name starts with "<name>/".
# Use the prefixes set rather than O(n^2) scanning.
def _is_container(name: str) -> bool:
return name in prefixes
leaf_cases = [c for c in cases if not _is_container(c.name)]
# Recompute totals from leaf cases so the per-file counts in the summary
# table match the de-duplicated failure list below it.
leaf_tests = len(leaf_cases)
leaf_failures = sum(1 for c in leaf_cases if c.status == "fail")
leaf_errors = sum(1 for c in leaf_cases if c.status == "error")
leaf_skipped = sum(1 for c in leaf_cases if c.status == "skip")
return FileTotals(
path=path,
tests=leaf_tests,
failures=leaf_failures,
errors=leaf_errors,
skipped=leaf_skipped,
time=time,
cases=leaf_cases,
)
def _file_label(path: str) -> str:
base = os.path.basename(path)
if base.endswith(".xml"):
base = base[:-4]
if base.startswith("junit-"):
base = base[len("junit-"):]
return base or path
def main() -> int:
pattern = os.environ.get("JUNIT_GLOB", "").strip()
title = os.environ.get("JUNIT_TITLE", "Test results").strip() or "Test results"
fail_on_empty = os.environ.get("JUNIT_FAIL_ON_EMPTY", "").strip().lower() == "true"
if not pattern:
print("::error::junit-report: junit-glob input is empty", file=sys.stderr)
return 1
paths = sorted(glob.glob(pattern))
summary_path = os.environ.get("GITHUB_STEP_SUMMARY", "/dev/null")
output_path = os.environ.get("GITHUB_OUTPUT", "/dev/null")
with open(summary_path, "a", encoding="utf-8") as summary, \
open(output_path, "a", encoding="utf-8") as outputs:
summary.write(f"## {title}\n\n")
if not paths:
summary.write(f"_No JUnit files matched `{pattern}`._\n\n")
outputs.write("failures=0\n")
outputs.write("total=0\n")
if fail_on_empty:
print(f"::error::junit-report: no files matched {pattern}", file=sys.stderr)
return 1
return 0
totals_by_file = [_parse_file(p) for p in paths]
grand_total = sum(f.tests for f in totals_by_file)
grand_fail = sum(f.failures + f.errors for f in totals_by_file)
grand_skip = sum(f.skipped for f in totals_by_file)
grand_pass = grand_total - grand_fail - grand_skip
grand_time = sum(f.time for f in totals_by_file)
if grand_fail == 0:
verdict = f"✅ **pass** — {grand_pass} / {grand_total}"
else:
verdict = f"❌ **{grand_fail} failed** — {grand_pass} / {grand_total} pass"
skip_part = f", {grand_skip} skipped" if grand_skip else ""
summary.write(f"{verdict}{skip_part} &nbsp; · &nbsp; {grand_time:.1f}s\n\n")
# Compact table — single status column, shorter headers. Drops
# separate err column (errors fold into fail count) so narrow
# screens don't wrap.
summary.write("| | Suite | Pass | Fail | Skip | Time |\n")
summary.write("|:-:|---|---:|---:|---:|---:|\n")
for f in totals_by_file:
fails = f.failures + f.errors
passed = f.tests - fails - f.skipped
icon = "✅" if fails == 0 else "❌"
summary.write(
f"| {icon} | `{_file_label(f.path)}` | {passed} | {fails} | "
f"{f.skipped} | {f.time:.1f}s |\n"
)
summary.write("\n")
failed_cases = [
c for f in totals_by_file for c in f.cases if c.status in ("fail", "error")
]
if failed_cases:
summary.write("---\n\n**Failures**\n\n")
for c in failed_cases:
header = f"{c.classname}.{c.name}" if c.classname else c.name
# One line per failure: name + truncated message. Full
# detail lives in the test artifact log; deep nesting and
# long messages wrap badly on narrow screens.
msg_short = (c.message or "").splitlines()[0] if c.message else ""
if len(msg_short) > 120:
msg_short = msg_short[:117] + "…"
line = f"- ❌ `{header}`"
if msg_short:
line += f" — {msg_short}"
summary.write(line + "\n")
# Workflow annotation — surfaces in run header + Files-changed view.
# classname for Go tests is the package path; map to a file when we can.
file_hint = c.classname.replace(".", "/")
msg = c.message or f"{c.status}: {header}"
print(f"::error file={file_hint},title={header}::{_esc(msg)}")
summary.write("\n")
skipped_cases = [
c for f in totals_by_file for c in f.cases if c.status == "skip"
]
if skipped_cases:
summary.write("---\n\n<details><summary><b>Skipped</b> ")
summary.write(f"({len(skipped_cases)})</summary>\n\n")
for c in skipped_cases:
header = f"{c.classname}.{c.name}" if c.classname else c.name
reason = (c.message or "").splitlines()[0] if c.message else ""
if len(reason) > 160:
reason = reason[:157] + "…"
line = f"- ⏭️ `{header}`"
if reason:
line += f" — {reason}"
summary.write(line + "\n")
summary.write("\n</details>\n\n")
outputs.write(f"failures={grand_fail}\n")
outputs.write(f"total={grand_total}\n")
return 0
if __name__ == "__main__":
sys.exit(main())
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+3 -3
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@@ -8,7 +8,7 @@ updates:
day: monday
timezone: Australia/Sydney
cooldown:
default-days: 1
default-days: 3
groups:
go-dependencies:
patterns:
@@ -22,7 +22,7 @@ updates:
day: monday
timezone: Australia/Sydney
cooldown:
default-days: 1
default-days: 3
ignore:
- dependency-name: "*"
update-types:
@@ -41,7 +41,7 @@ updates:
day: monday
timezone: Australia/Sydney
cooldown:
default-days: 1
default-days: 3
ignore:
- dependency-name: "@types/node"
update-types:
+88
View File
@@ -0,0 +1,88 @@
#!/usr/bin/env bash
# capture-net-diag.sh — write a snapshot of network / OVN / OVS / IPsec
# state into $1 (a directory the caller already created on the local host).
# Designed to run on a spinifex node after an E2E suite, before tofu destroy
# pulls the rug out. Every command is independent — `|| true` so a missing
# binary on one path doesn't abort the rest of the capture.
#
# Output layout (under $1/net-diag/):
# openvswitch-ipsec.status systemctl status (output-only)
# openvswitch-ipsec.journal last 200 journal lines
# ipsec.openvswitch_conf ovs-vsctl get Open_vSwitch . other_config
# ipsec.xfrm_state ip xfrm state list
# ipsec.xfrm_policy ip xfrm policy list
# ovn.sb_show ovn-sbctl show
# ovn.nb_show ovn-nbctl show
# ovs.show ovs-vsctl show
# ovs.flows_br_int ovs-ofctl dump-flows br-int
# ovs.tunnels ovs-appctl ofproto/list-tunnels br-int
# net.links ip -s link show
# net.routes ip route show table all
# net.addrs ip -br addr show
# systemd.failed_units systemctl list-units --state=failed
set +e
OUT="${1:?usage: capture-net-diag.sh <output-dir>}"
mkdir -p "$OUT"
run() {
local label="$1"; shift
{
echo "# $*"
"$@" 2>&1
} > "$OUT/$label" || true
}
run openvswitch-ipsec.status sudo systemctl status openvswitch-ipsec.service --no-pager --full --lines=50
run openvswitch-ipsec.journal sudo journalctl -u openvswitch-ipsec.service --no-pager --output=short-iso -n 200
run ipsec.openvswitch_conf sudo ovs-vsctl get Open_vSwitch . other_config
run ipsec.xfrm_state sudo ip xfrm state list
run ipsec.xfrm_policy sudo ip xfrm policy list
run ovn.sb_show sudo ovn-sbctl show
run ovn.nb_show sudo ovn-nbctl show
run ovn.sb_chassis sudo ovn-sbctl list chassis
run_per_lr() {
local label="$1"; shift
local subcmd="$1"; shift
{
echo "# ovn-nbctl $subcmd <each-logical-router>"
local lrs
lrs="$(sudo ovn-nbctl --bare --columns=name list Logical_Router 2>/dev/null)"
for lr in $lrs; do
echo
echo "=== $lr ==="
sudo ovn-nbctl "$subcmd" "$lr" 2>&1
done
} > "$OUT/$label" || true
}
run_per_lr ovn.lr_routes lr-route-list
run_per_lr ovn.lr_policies lr-policy-list
run_per_lr ovn.lr_nat lr-nat-list
run ovs.show sudo ovs-vsctl show
run ovs.flows_br_int sudo ovs-ofctl dump-flows br-int
run ovs.tunnels sudo ovs-appctl ofproto/list-tunnels br-int
run net.links ip -s link show
run net.routes ip route show table all
run net.addrs ip -br addr show
run net.neigh ip neigh show
run net.bridge_fdb bridge fdb show
run net.conntrack sudo conntrack -L
run systemd.failed_units sudo systemctl list-units --state=failed --no-pager
# Background pcap (started by start-net-capture.sh, if present).
if [ -f /tmp/spinifex-e2e-tcpdump.pid ]; then
PID="$(cat /tmp/spinifex-e2e-tcpdump.pid 2>/dev/null)"
sudo kill -INT "$PID" 2>/dev/null || true
sleep 1
if [ -f /tmp/spinifex-e2e-wan.pcap ]; then
sudo cp /tmp/spinifex-e2e-wan.pcap "$OUT/wan.pcap" 2>/dev/null || true
sudo chmod 0644 "$OUT/wan.pcap" 2>/dev/null || true
fi
fi
exit 0
+63
View File
@@ -0,0 +1,63 @@
# shellcheck shell=bash
# Source from a workflow `run:` block:
# source "${GITHUB_WORKSPACE}/spinifex/.github/scripts/ci-fmt.sh"
#
# Provides colored banners + ::group::/::endgroup:: wrappers. ANSI escapes
# render in the GitHub Actions live log; the same lines also land in any
# artifact log (tee'd output) without breaking parsers because they only
# affect terminal display.
#
# Functions kept short and unindented on purpose — wide nested output wraps
# badly on narrow terminals.
if [[ -n "${GITHUB_ACTIONS:-}" ]] || [[ -t 1 ]]; then
_R=$'\033[0m'
_B=$'\033[1m' # bold
_D=$'\033[2m' # dim
_RED=$'\033[31m'
_GRN=$'\033[32m'
_YEL=$'\033[33m'
_BLU=$'\033[34m'
_CYA=$'\033[36m'
else
_R="" _B="" _D="" _RED="" _GRN="" _YEL="" _BLU="" _CYA=""
fi
# Single-line rule using box-drawing chars — narrow enough that GitHub's
# timestamp prefix + this rule still fit on an 80-col terminal.
# banner LABEL — bold cyan title with surrounding rule. Used at the start
# of an inherently multi-line phase (test run, artifact pull) so the live
# log has an obvious visual marker.
banner() {
printf '\n%s%s━━ %s ━━%s\n' "$_B" "$_CYA" "$*" "$_R"
}
# Status indicators. Single char prefix only — keeps width on narrow logs.
ok() { printf '%s✓%s %s\n' "$_GRN" "$_R" "$*"; }
bad() { printf '%s✗%s %s\n' "$_RED" "$_R" "$*"; }
warn() { printf '%s!%s %s\n' "$_YEL" "$_R" "$*"; }
note() { printf '%s·%s %s\n' "$_D" "$_R" "$*"; }
# group_open LABEL / group_close — thin wrapper around GitHub's collapse
# markers. No extra body printed; banner() is the visible inside-group
# heading when callers want one.
group_open() { echo "::group::$*"; }
group_close() { echo "::endgroup::"; }
# quiet_run LABEL LOG_FILE -- CMD ARGS …
# Run CMD redirected to LOG_FILE (append). Print one colored ok/✗ line.
# On failure, dump the last 80 lines of LOG_FILE inside a collapsed group
# so the failing tail lands in the UI without surfacing the whole apply.
quiet_run() {
local label="$1" log="$2"; shift 2
if "$@" >> "$log" 2>&1; then
ok "$label"
else
local rc=$?
bad "$label (rc=$rc) — last 80 lines of $(basename "$log"):"
group_open "tail $(basename "$log")"
tail -n 80 "$log"
group_close
return "$rc"
fi
}
+47
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@@ -0,0 +1,47 @@
#!/usr/bin/env bash
# start-net-capture.sh — kick off background tcpdump on br-wan.
# Pair: capture-net-diag.sh stops it and copies the pcap into net-diag/.
#
# Filter: anything on br-wan involving the EIP pool (192.168.0.0/23) plus
# ARP for the same range. Single ring buffer (-W 1 -G 0) → grows until stop;
# capped at 64 MiB via -C 64. Snaplen 200 bytes (headers + a bit) to keep
# size sane while preserving L2/L3/L4 + first payload bytes.
set +e
PCAP=/tmp/spinifex-e2e-wan.pcap
PIDFILE=/tmp/spinifex-e2e-tcpdump.pid
if [ -f "$PIDFILE" ] && kill -0 "$(cat "$PIDFILE" 2>/dev/null)" 2>/dev/null; then
echo "[start-net-capture] tcpdump already running pid=$(cat "$PIDFILE")"
exit 0
fi
sudo rm -f "$PCAP" "$PIDFILE"
if ! command -v tcpdump >/dev/null 2>&1; then
echo "[start-net-capture] tcpdump not installed — skipping" >&2
exit 0
fi
if ! ip link show br-wan >/dev/null 2>&1; then
echo "[start-net-capture] br-wan absent — skipping" >&2
exit 0
fi
sudo nohup tcpdump -i br-wan -s 200 -C 64 -W 1 -U \
-w "$PCAP" \
'(net 192.168.0.0/23) or (arp and (arp[24:4]&0xfffffe00=0xc0a80000))' \
>/tmp/spinifex-e2e-tcpdump.log 2>&1 &
PID=$!
echo "$PID" | sudo tee "$PIDFILE" >/dev/null
disown
sleep 1
if ! kill -0 "$PID" 2>/dev/null; then
echo "[start-net-capture] tcpdump died — see /tmp/spinifex-e2e-tcpdump.log" >&2
cat /tmp/spinifex-e2e-tcpdump.log >&2 || true
sudo rm -f "$PIDFILE"
exit 1
fi
echo "[start-net-capture] tcpdump pid=$PID pcap=$PCAP"
exit 0
+107
View File
@@ -0,0 +1,107 @@
name: E2E Bare-Metal
on:
workflow_dispatch:
permissions:
contents: read
statuses: write
env:
GIT_BRANCH: ${{ github.ref_name }}
jobs:
e2e_baremetal:
name: Bare-Metal Multi-Node E2E
runs-on: [ self-hosted, ci-baremetal ]
timeout-minutes: 120
concurrency:
group: e2e-baremetal-cluster
cancel-in-progress: false
env:
BM_ISO_CACHE: /var/cache/spinifex-iso-builder
steps:
- name: Clean Workspace
run: sudo rm -rf "$GITHUB_WORKSPACE"/*
- uses: actions/checkout@v6
- uses: actions/create-github-app-token@v3
id: app-token
with:
client-id: ${{ secrets.APP_ID }}
private-key: ${{ secrets.APP_PRIVATE_KEY }}
repositories: mulga
- uses: actions/checkout@v6
with:
repository: mulgadc/mulga
token: ${{ steps.app-token.outputs.token }}
sparse-checkout: |
scripts/iso-builder
scripts/baremetal
path: mulga
- name: Install SSH Key
run: |
echo "${{ secrets.BM_SSH_PRIVATE_KEY }}" > "${RUNNER_TEMP}/bm-ci"
chmod 0600 "${RUNNER_TEMP}/bm-ci"
ssh-keygen -y -f "${RUNNER_TEMP}/bm-ci" > "${RUNNER_TEMP}/bm-ci.pub"
- name: Build Artifacts
run: |
mulga/scripts/baremetal/bm-build-artifacts.sh \
"$GITHUB_WORKSPACE" \
"${RUNNER_TEMP}/spinifex-tests.tar" \
"${RUNNER_TEMP}/bm-bins"
- name: Build PXE Artifacts
run: |
sudo make -C mulga/scripts/iso-builder \
build-rootfs build-squashfs build-initramfs \
CACHE="${BM_ISO_CACHE}" \
SPINIFEX_BIN="${RUNNER_TEMP}/bm-bins/spx" \
INSTALLER_BIN="${RUNNER_TEMP}/bm-bins/spinifex-installer" \
SPINIFEX_SRC="${GITHUB_WORKSPACE}" \
VIPERBLOCK_SRC="${RUNNER_TEMP}/bm-bins/viperblock" \
VERSION="$(cd "$GITHUB_WORKSPACE" && git describe --tags --always 2>/dev/null || echo dev)"
- name: Write ePDU credentials
run: |
install -m 0600 /dev/null "${RUNNER_TEMP}/epdu.env"
cat >> "${RUNNER_TEMP}/epdu.env" <<EOF
EPDU_HOST=192.168.1.63
EPDU_SNMP_USER=ci-bmpower
EPDU_SNMP_SEC_LEVEL=authPriv
EPDU_SNMP_AUTH_PROTO=MD5
EPDU_SNMP_AUTH_PASS=${{ secrets.BM_EPDU_AUTH_PASS }}
EPDU_SNMP_PRIV_PROTO=DES
EPDU_SNMP_PRIV_PASS=${{ secrets.BM_EPDU_PRIV_PASS }}
EOF
- name: Cache VM images
run: |
UBUNTU_IMG="${BM_ISO_CACHE}/ubuntu-26.04-cloudimg-amd64.img"
if [ ! -f "$UBUNTU_IMG" ]; then
echo "Downloading Ubuntu 26.04 cloud image..."
sudo curl -fsSL -o "$UBUNTU_IMG" \
"https://cloud-images.ubuntu.com/resolute/current/resolute-server-cloudimg-amd64.img"
echo " Downloaded $(du -h "$UBUNTU_IMG" | cut -f1)"
else
echo "Ubuntu 26.04 cloud image cached ($(du -h "$UBUNTU_IMG" | cut -f1))"
fi
- name: Run Bare-Metal E2E
env:
BM_CI_PASSWORD: ${{ secrets.BM_CI_PASSWORD }}
BM_SSH_KEY: ${{ runner.temp }}/bm-ci
BM_EPDU_ENV: ${{ runner.temp }}/epdu.env
BM_UBUNTU_IMAGE: ${{ env.BM_ISO_CACHE }}/ubuntu-26.04-cloudimg-amd64.img
SPX_EXTERNAL_POOL: ${{ env.SPINIFEX_CI_POOL }}
run: |
sudo -E mulga/scripts/baremetal/run-baremetal-e2e.sh \
--vmlinuz "${BM_ISO_CACHE}/vmlinuz" \
--initrd "${BM_ISO_CACHE}/initrd.img" \
--squashfs "${BM_ISO_CACHE}/spinifex.squashfs" \
--tests-tar "${RUNNER_TEMP}/spinifex-tests.tar"
+116 -12
View File
@@ -11,6 +11,9 @@ on:
required: false
default: ""
permissions:
contents: read
env:
GIT_BRANCH: ${{ github.ref_name }}
@@ -27,7 +30,7 @@ jobs:
TOFU_LOG: /tmp/e2e-tofu-ddil-${{ github.run_id }}.log
steps:
- name: Clean Workspace
run: rm -rf "$GITHUB_WORKSPACE"/*
run: sudo rm -rf "$GITHUB_WORKSPACE"/*
- uses: actions/create-github-app-token@v3
id: app-token
@@ -53,6 +56,26 @@ jobs:
sparse-checkout: scripts/tofu-cluster
path: mulga
- name: Install gotestsum
env:
GOTESTSUM_VERSION: "1.12.0"
run: |
# Prebuilt tarball, not `go install`: gotestsum v1.12.0 pulls
# x/tools v0.19.0 whose tokeninternal static-assert pegs a
# narrow Go window (~1.22). The self-hosted runner's Go falls
# outside that window, so source-install fails with
# `invalid array length -delta * delta`. A prebuilt binary
# sidesteps toolchain coupling entirely.
BIN_DIR="${RUNNER_TEMP}/gotestsum-bin"
mkdir -p "${BIN_DIR}"
if [ ! -x "${BIN_DIR}/gotestsum" ]; then
curl -fsSL \
"https://github.com/gotestyourself/gotestsum/releases/download/v${GOTESTSUM_VERSION}/gotestsum_${GOTESTSUM_VERSION}_linux_amd64.tar.gz" \
| tar -xz -C "${BIN_DIR}" gotestsum
fi
echo "${BIN_DIR}" >> "${GITHUB_PATH}"
"${BIN_DIR}/gotestsum" --version
- name: Build Install Artifacts
working-directory: mulga/scripts/tofu-cluster
run: |
@@ -64,12 +87,16 @@ jobs:
- name: Provision VMs
working-directory: mulga/scripts/tofu-cluster
run: |
set -euo pipefail
# shellcheck source=/dev/null
source "${GITHUB_WORKSPACE}/spinifex/.github/scripts/ci-fmt.sh"
export TF_VAR_git_branch="${GIT_BRANCH}"
tofu init -input=false >> "$TOFU_LOG" 2>&1
tofu workspace select -or-create "${SPINIFEX_CI_ENV}" >> "$TOFU_LOG" 2>&1
tofu destroy -var-file=envs/${SPINIFEX_CI_ENV}.tfvars -auto-approve -input=false >> "$TOFU_LOG" 2>&1 || true
./scrub-env.sh "${SPINIFEX_CI_ENV}" >> "$TOFU_LOG" 2>&1 || true
tofu apply -var-file=envs/${SPINIFEX_CI_ENV}.tfvars -auto-approve -input=false >> "$TOFU_LOG" 2>&1
quiet_run "tofu init" "$TOFU_LOG" tofu init -input=false
quiet_run "tofu workspace select" "$TOFU_LOG" tofu workspace select -or-create "${SPINIFEX_CI_ENV}"
quiet_run "tofu destroy (pre-clean)" "$TOFU_LOG" tofu destroy -var-file=envs/${SPINIFEX_CI_ENV}.tfvars -auto-approve -input=false || true
quiet_run "scrub-env (pre-clean)" "$TOFU_LOG" ./scrub-env.sh "${SPINIFEX_CI_ENV}" || true
quiet_run "tofu apply" "$TOFU_LOG" tofu apply -var-file=envs/${SPINIFEX_CI_ENV}.tfvars -auto-approve -input=false
ok "VMs provisioned"
- name: Bootstrap via Binary Install
working-directory: mulga/scripts/tofu-cluster
@@ -95,18 +122,91 @@ jobs:
# tofu-cluster, wan_ip == cluster IP and the runner's outbound
# IP is distinct — see e2e-ddil-test-harness.md §3 Scenario C.
NODE_IPS=$(echo "$INVENTORY" | jq -r '[.nodes[].wan_ip] | join(",")')
PRIMARY_IP=$(echo "$INVENTORY" | jq -r '.nodes[0].wan_ip')
echo "DDIL_NODES=${NODE_IPS}"
# Witness VMs talk to the cluster's AWS gateway via aws-sdk-go,
# which resolves credentials from the standard chain. spx admin
# init writes [spinifex] to ${SSH_USER}'s ~/.aws/credentials on
# node1 — pull them over SSH and export as the SDK's env-var
# entries so the harness can launch instances without depending
# on a cluster-bootstrapped profile being present on the runner.
CREDS=$(ssh -i "${SSH_KEY}" -o StrictHostKeyChecking=no -o UserKnownHostsFile=/dev/null \
"${SSH_USER}@${PRIMARY_IP}" 'cat ~/.aws/credentials')
AWS_ACCESS_KEY_ID=$(echo "$CREDS" | awk -F '= *' '/^aws_access_key_id/ {print $2; exit}')
AWS_SECRET_ACCESS_KEY=$(echo "$CREDS" | awk -F '= *' '/^aws_secret_access_key/ {print $2; exit}')
if [ -z "$AWS_ACCESS_KEY_ID" ] || [ -z "$AWS_SECRET_ACCESS_KEY" ]; then
echo "::error::Failed to extract spinifex AWS credentials from ${PRIMARY_IP}"
exit 1
fi
# Guest SSH key: bootstrap-install.sh imports spinifex-key into EC2;
# the matching private material was generated on the primary node at
# ~/.ssh/spinifex-key. Pull it to the runner so the harness can SSH
# the witness via its MapPublicIpOnLaunch-assigned EIP.
GUEST_KEY="${RUNNER_TEMP}/spinifex-key"
scp -i "${SSH_KEY}" -o StrictHostKeyChecking=no -o UserKnownHostsFile=/dev/null \
"${SSH_USER}@${PRIMARY_IP}:~/.ssh/spinifex-key" "${GUEST_KEY}"
chmod 600 "${GUEST_KEY}"
mkdir -p "${RUNNER_TEMP}/ddil-results"
cd "${GITHUB_WORKSPACE}/spinifex"
# gotestsum: human-readable PASS/FAIL/SKIP lines in Actions stdout,
# plus machine-readable jsonfile + JUnit XML artifacts. The JUnit
# file feeds the junit-report composite action below so failures
# become summary table rows + workflow annotations.
# shellcheck source=/dev/null
source "${GITHUB_WORKSPACE}/spinifex/.github/scripts/ci-fmt.sh"
banner "DDIL scenarios"
DDIL_NODES="${NODE_IPS}" \
DDIL_SSH_USER="${SSH_USER}" \
DDIL_SSH_KEY="${SSH_KEY}" \
DDIL_GUEST_SSH_KEY="${GUEST_KEY}" \
DDIL_QUARANTINED="${{ inputs.quarantined }}" \
AWS_REGION="${REGION}" \
go test -tags=e2e -timeout 45m -json \
./tests/e2e/ddil/scenarios/... \
| tee "${RUNNER_TEMP}/ddil-results/results.json"
AWS_ACCESS_KEY_ID="${AWS_ACCESS_KEY_ID}" \
AWS_SECRET_ACCESS_KEY="${AWS_SECRET_ACCESS_KEY}" \
gotestsum --jsonfile "${RUNNER_TEMP}/ddil-results/results.json" \
--junitfile "${RUNNER_TEMP}/ddil-results/junit-ddil.xml" \
--format testname \
-- -tags=e2e -timeout 45m ./tests/e2e/ddil/scenarios/...
rc=$?
if [[ $rc -eq 0 ]]; then ok "all scenarios passed"; else bad "scenarios failed (rc=$rc)"; fi
exit $rc
- name: Publish test summary
if: always()
uses: ./spinifex/.github/actions/junit-report
with:
junit-glob: ${{ runner.temp }}/ddil-results/junit-*.xml
title: "DDIL scenario results"
- name: Collect Cluster Logs
if: failure()
working-directory: mulga/scripts/tofu-cluster
run: |
# Pull spinifex-* journals + QEMU process listings from every
# node into the artifact bundle so failures can be triaged
# without re-provisioning the cluster. Best-effort — a missing
# node should not mask the original test failure.
set +e
INVENTORY=$(tofu output -json inventory)
SSH_KEY=$(echo "$INVENTORY" | jq -r '.ssh_key_path')
SSH_KEY="${SSH_KEY/#\~/$HOME}"
SSH_USER=$(echo "$INVENTORY" | jq -r '.ssh_user')
LOG_DIR="${RUNNER_TEMP}/ddil-results/cluster-logs"
mkdir -p "${LOG_DIR}"
# shellcheck source=/dev/null
source "${GITHUB_WORKSPACE}/spinifex/.github/scripts/ci-fmt.sh"
mapfile -t NODE_IPS < <(echo "$INVENTORY" | jq -r '.nodes[].wan_ip')
for ip in "${NODE_IPS[@]}"; do
SSH="ssh -i ${SSH_KEY} -o StrictHostKeyChecking=no -o UserKnownHostsFile=/dev/null ${SSH_USER}@${ip}"
${SSH} 'sudo journalctl -u "spinifex-*" --no-pager -n 5000' > "${LOG_DIR}/${ip}-spinifex.log" 2>&1
${SSH} 'ps auxw | grep -E "qemu-system|spinifex" | grep -v grep' > "${LOG_DIR}/${ip}-procs.txt" 2>&1
${SSH} 'ls -la /var/lib/spinifex 2>/dev/null; ls -la /var/log/spinifex 2>/dev/null' > "${LOG_DIR}/${ip}-state.txt" 2>&1
ok "$ip: $(wc -l < "${LOG_DIR}/${ip}-spinifex.log") journal lines, $(wc -l < "${LOG_DIR}/${ip}-procs.txt") procs"
done
- name: Upload DDIL Results
if: always()
@@ -120,6 +220,10 @@ jobs:
if: always()
working-directory: mulga/scripts/tofu-cluster
run: |
tofu workspace select -or-create "${SPINIFEX_CI_ENV}" >> "$TOFU_LOG" 2>&1
tofu destroy -var-file=envs/${SPINIFEX_CI_ENV}.tfvars -auto-approve -input=false >> "$TOFU_LOG" 2>&1
./scrub-env.sh "${SPINIFEX_CI_ENV}" >> "$TOFU_LOG" 2>&1 || true
set -euo pipefail
# shellcheck source=/dev/null
source "${GITHUB_WORKSPACE}/spinifex/.github/scripts/ci-fmt.sh"
quiet_run "tofu workspace select" "$TOFU_LOG" tofu workspace select -or-create "${SPINIFEX_CI_ENV}"
quiet_run "tofu destroy" "$TOFU_LOG" tofu destroy -var-file=envs/${SPINIFEX_CI_ENV}.tfvars -auto-approve -input=false
quiet_run "scrub-env" "$TOFU_LOG" ./scrub-env.sh "${SPINIFEX_CI_ENV}" || true
ok "teardown complete"
+4 -2
View File
@@ -12,8 +12,10 @@ on:
permissions:
contents: read
# Scheduled runs are loaded from the default branch (main), so the schedule
# trigger must stay in sync on main for cron to fire.
env:
GIT_BRANCH: ${{ github.ref_name }}
GIT_BRANCH: ${{ github.event_name == 'schedule' && 'dev' || github.ref_name }}
UBUNTU_GOLD_IMAGE: /mnt/disk1/gold-images/spinifex-image-builder-ubuntu-24.04.qcow2
jobs:
@@ -58,7 +60,7 @@ jobs:
- name: Clean Workspace
if: steps.gate.outputs.selected == 'true'
run: rm -rf "$GITHUB_WORKSPACE"/*
run: sudo rm -rf "$GITHUB_WORKSPACE"/*
- uses: actions/create-github-app-token@v3
if: steps.gate.outputs.selected == 'true'
+870 -100
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+156
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@@ -31,6 +31,14 @@ jobs:
- name: Set up Docker Buildx
uses: docker/setup-buildx-action@v4
- name: Set up Go
uses: actions/setup-go@v6
with:
go-version: '1.26.4'
- name: Build microVM artifacts (lb-agent + kernel + initramfs)
run: cd spinifex && make build-microvm-image
- name: Build amd64 Tarball
env:
VERSION: ${{ github.ref_name }}
@@ -192,3 +200,151 @@ jobs:
tofu workspace select -or-create "${SPINIFEX_CI_ENV}" >> "$TOFU_LOG" 2>&1
tofu destroy -var-file=envs/${SPINIFEX_CI_ENV}.tfvars -auto-approve -input=false >> "$TOFU_LOG" 2>&1
./scrub-env.sh "${SPINIFEX_CI_ENV}" >> "$TOFU_LOG" 2>&1 || true
iso:
needs: release
runs-on: [ self-hosted, ci-single ]
timeout-minutes: 90
steps:
- name: Clean Workspace
run: |
ROOTFS="${GITHUB_WORKSPACE}/mulga/scripts/iso-builder/.cache/rootfs"
# Mirror make clean's umount sequence unconditionally — lazy unmount
# detaches immediately even if the mount is busy, so rm -rf is safe.
sudo umount -l -R "${ROOTFS}" 2>/dev/null || true
sudo umount -l "${ROOTFS}/dev/pts" 2>/dev/null || true
sudo umount -l "${ROOTFS}/dev" 2>/dev/null || true
sudo umount -l "${ROOTFS}/sys" 2>/dev/null || true
sudo umount -l "${ROOTFS}/proc" 2>/dev/null || true
sudo rm -rf "$GITHUB_WORKSPACE"/*
- uses: actions/create-github-app-token@v3
id: app-token
with:
client-id: ${{ secrets.APP_ID }}
private-key: ${{ secrets.APP_PRIVATE_KEY }}
repositories: mulga
- name: Checkout Spinifex
uses: actions/checkout@v6
with:
path: spinifex
ref: ${{ github.ref }}
- name: Checkout Predastore
uses: actions/checkout@v6
with:
repository: mulgadc/predastore
path: predastore
- name: Checkout Viperblock
uses: actions/checkout@v6
with:
repository: mulgadc/viperblock
path: viperblock
- name: Checkout Mulga iso-builder
uses: actions/checkout@v6
with:
repository: mulgadc/mulga
token: ${{ steps.app-token.outputs.token }}
sparse-checkout: scripts/iso-builder
path: mulga
- name: Clean ISO builder cache
run: sudo make -C mulga/scripts/iso-builder clean
- name: Set up Go
uses: actions/setup-go@v6
with:
go-version-file: spinifex/go.mod
cache: false
- name: Configure Go workspace
run: go work init ./spinifex ./predastore ./viperblock
- name: Install ISO builder dependencies
run: |
sudo apt-get update -qq
sudo apt-get install -y \
debootstrap squashfs-tools xorriso grub-pc-bin grub-efi-amd64-bin \
grub-common mtools busybox-static ovmf zstd \
nbdkit nbdkit-plugin-dev pkg-config gcc
- name: Build spinifex binaries
run: cd spinifex && make build
- name: Build viperblock
run: cd viperblock && make build
- name: Build release ISO
id: build-iso
env:
VERSION: ${{ github.ref_name }}
run: |
sudo make -C mulga/scripts/iso-builder release \
VERSION="${VERSION}" \
SPINIFEX_SRC="${GITHUB_WORKSPACE}/spinifex" \
VIPERBLOCK_SRC="${GITHUB_WORKSPACE}/viperblock" \
SPINIFEX_BIN="${GITHUB_WORKSPACE}/spinifex/bin/spx" \
INSTALLER_BIN="${GITHUB_WORKSPACE}/spinifex/bin/spinifex-installer"
- name: Wait for verify
id: wait-verify
if: steps.build-iso.outcome == 'success'
continue-on-error: true
env:
GH_TOKEN: ${{ github.token }}
run: |
echo "Waiting for verify job to complete..."
while true; do
CONCLUSION=$(gh api \
"repos/${{ github.repository }}/actions/runs/${{ github.run_id }}/jobs" \
--jq '.jobs[] | select(.name == "verify") | .conclusion // empty')
if [ -n "$CONCLUSION" ]; then
echo "Verify conclusion: $CONCLUSION"
[ "$CONCLUSION" = "success" ] && exit 0
exit 1
fi
echo "Verify still running, retrying in 30s..."
sleep 30
done
- name: Ensure AWS CLI is installed
if: steps.build-iso.outcome == 'success' && steps.wait-verify.outcome == 'success'
run: |
if ! command -v aws &>/dev/null; then
curl -fsSL "https://awscli.amazonaws.com/awscli-exe-linux-x86_64.zip" -o /tmp/awscliv2.zip
unzip -q /tmp/awscliv2.zip -d /tmp/aws-install
sudo /tmp/aws-install/aws/install
rm -rf /tmp/awscliv2.zip /tmp/aws-install
fi
- name: Upload ISO to Cloudflare R2
id: upload
if: steps.build-iso.outcome == 'success' && steps.wait-verify.outcome == 'success'
env:
AWS_ACCESS_KEY_ID: ${{ secrets.CF_R2_ACCESS_KEY_ID }}
AWS_SECRET_ACCESS_KEY: ${{ secrets.CF_R2_SECRET_ACCESS_KEY }}
CF_R2_ENDPOINT_URL: ${{ secrets.CF_R2_ENDPOINT_URL }}
VERSION: ${{ github.ref_name }}
run: |
aws --endpoint-url="${CF_R2_ENDPOINT_URL}" \
s3 cp "mulga/scripts/iso-builder/dist/spinifex-${VERSION}.iso" \
"s3://spinifex-iso/spinifex-${VERSION}.iso"
aws --endpoint-url="${CF_R2_ENDPOINT_URL}" \
s3 cp "mulga/scripts/iso-builder/dist/spinifex-${VERSION}.iso.sha256" \
"s3://spinifex-iso/spinifex-${VERSION}.iso.sha256"
- name: Mark ISO failed
if: always() && (steps.build-iso.outcome == 'failure' || steps.upload.outcome == 'failure')
env:
GH_TOKEN: ${{ github.token }}
TAG: ${{ github.ref_name }}
REPO: ${{ github.repository }}
run: |
EXISTING_BODY=$(gh release view "$TAG" --repo "$REPO" --json body -q .body)
NOTES_FILE=$(mktemp)
printf 'ISO build/upload failed — see workflow run for details.\n\n%s' "$EXISTING_BODY" > "$NOTES_FILE"
gh release edit "$TAG" --repo "$REPO" --notes-file "$NOTES_FILE"
rm -f "$NOTES_FILE"
+13 -1
View File
@@ -17,6 +17,9 @@ on:
- dev
workflow_dispatch:
permissions:
contents: read
jobs:
build_and_test:
name: Build and Test
@@ -33,12 +36,14 @@ jobs:
uses: actions/checkout@v6
with:
repository: mulgadc/viperblock
ref: dev
path: viperblock
- name: Checkout Predastore
uses: actions/checkout@v6
with:
repository: mulgadc/predastore
ref: dev
path: predastore
- name: Setup Go
@@ -56,6 +61,9 @@ jobs:
- name: Run Tests with Coverage
run: make -C spinifex test-cover
- name: Run Action Tests
run: make -C spinifex test-actions
- name: Check Diff Coverage
run: cd spinifex && scripts/diff-coverage.sh coverage.out --base HEAD~1
@@ -73,12 +81,14 @@ jobs:
uses: actions/checkout@v6
with:
repository: mulgadc/viperblock
ref: dev
path: viperblock
- name: Checkout Predastore
uses: actions/checkout@v6
with:
repository: mulgadc/predastore
ref: dev
path: predastore
- name: Setup Go
@@ -107,12 +117,14 @@ jobs:
uses: actions/checkout@v6
with:
repository: mulgadc/viperblock
ref: dev
path: viperblock
- name: Checkout Predastore
uses: actions/checkout@v6
with:
repository: mulgadc/predastore
ref: dev
path: predastore
- name: Setup Go
@@ -127,7 +139,7 @@ jobs:
- name: Lint
uses: golangci/golangci-lint-action@v9
with:
version: v2.11.3
version: v2.12.2
working-directory: spinifex
- name: Govulncheck
+5 -2
View File
@@ -17,6 +17,9 @@ on:
- .github/workflows/ui.yml
workflow_dispatch:
permissions:
contents: read
jobs:
ui_build_and_test:
name: UI Build and Test
@@ -46,8 +49,8 @@ jobs:
- name: Install Dependencies
run: pnpm install --frozen-lockfile
- name: Run Check
run: pnpm check
- name: Run Lint
run: pnpm lint
- name: Run Tests with Coverage
run: pnpm test:coverage
+2
View File
@@ -17,6 +17,8 @@ go.work.sum
# Build outputs
bin/
dist/
build/microvm/vmlinuz
build/microvm/initramfs.cpio.gz
!spinifex/services/spinifexui/frontend/dist/
tmp/
*.test
+117 -17
View File
@@ -63,24 +63,54 @@ LDFLAGS := -s -w -X github.com/mulgadc/spinifex/cmd/spinifex/cmd.Version=$(VERSI
go_build:
@echo -e "\n....Building $(GO_PROJECT_NAME)"
go build $(GO_BUILD_MOD) -ldflags "$(LDFLAGS)" -o ./bin/$(GO_PROJECT_NAME) cmd/spinifex/main.go
GOFIPS140=v1.0.0 go build $(GO_BUILD_MOD) -ldflags "$(LDFLAGS)" -o ./bin/$(GO_PROJECT_NAME) cmd/spinifex/main.go
build-installer:
@echo -e "\n....Building spinifex-installer"
go build -ldflags "-s -w" -o ./bin/spinifex-installer cmd/installer/main.go
GOFIPS140=v1.0.0 go build -ldflags "-s -w" -o ./bin/spinifex-installer cmd/installer/main.go
build-lb-agent:
@echo -e "\n....Building lb-agent (static)"
CGO_ENABLED=0 go build -ldflags "-s -w" -o ./bin/lb-agent cmd/lb-agent/main.go
CGO_ENABLED=0 GOFIPS140=v1.0.0 go build -ldflags "-s -w" -o ./bin/lb-agent cmd/lb-agent/main.go
build-system-image: ## Build a system image from manifest (use IMAGE=lb)
build-system-image: ## Build a system image from manifest (use IMAGE=lb or IMAGE=eks-server)
ifndef IMAGE
$(error IMAGE is required. Usage: make build-system-image IMAGE=lb)
endif
./scripts/build-system-image.sh scripts/images/$(IMAGE).conf
@if [ -f scripts/images/$(IMAGE).conf ]; then \
./scripts/build-system-image.sh scripts/images/$(IMAGE).conf; \
elif [ -f scripts/images/$(IMAGE)/manifest.conf ]; then \
./scripts/build-system-image.sh scripts/images/$(IMAGE)/manifest.conf; \
else \
echo "ERROR: no manifest at scripts/images/$(IMAGE).conf or scripts/images/$(IMAGE)/manifest.conf"; \
exit 1; \
fi
build-lb-image: ## Build LB Alpine image
$(MAKE) build-system-image IMAGE=lb
build-eks-server-image: ## Build the eks-server AMI (K3s control-plane variant)
$(MAKE) build-system-image IMAGE=eks-server
build-eks-agent-image: ## Build the eks-agent AMI (K3s worker variant)
$(MAKE) build-system-image IMAGE=eks-agent
MICROVM_OUT_DIR := build/microvm
MICROVM_ARTIFACTS := $(MICROVM_OUT_DIR)/vmlinuz $(MICROVM_OUT_DIR)/initramfs.cpio.gz
MICROVM_INPUTS := scripts/build-microvm-image.sh $(MICROVM_OUT_DIR)/init.sh $(MICROVM_OUT_DIR)/inittab bin/lb-agent
# Grouped target — script writes both files in one run.
$(MICROVM_ARTIFACTS) &: $(MICROVM_INPUTS)
./scripts/build-microvm-image.sh
# Only triggers when bin/lb-agent is missing; preserves the artifact's mtime so
# build-microvm-image stays correctly stale-aware.
bin/lb-agent:
$(MAKE) build-lb-agent
build-microvm-image: $(MICROVM_ARTIFACTS) ## Build microVM kernel + initramfs (incremental — skips when up to date)
install-microvm: $(MICROVM_ARTIFACTS) ## Install microVM artifacts to /usr/share/spinifex/microvm/
sudo install -d /usr/share/spinifex/microvm
sudo install -m 0644 $(MICROVM_OUT_DIR)/vmlinuz /usr/share/spinifex/microvm/vmlinuz
sudo install -m 0644 $(MICROVM_OUT_DIR)/initramfs.cpio.gz /usr/share/spinifex/microvm/initramfs.cpio.gz
go_run:
@echo -e "\n....Running $(GO_PROJECT_NAME)...."
@@ -89,9 +119,23 @@ go_run:
# Preflight — runs the same checks as GitHub Actions (lint + vuln + tests).
# Use this before committing to catch CI failures locally.
preflight:
@$(MAKE) --no-print-directory QUIET=1 lint govulncheck test-cover diff-coverage test-race
@$(MAKE) --no-print-directory QUIET=1 manifest-check lint govulncheck test-cover diff-coverage test-race test-harness
@echo -e "\n ✅ Preflight passed — safe to commit."
# E2E harness unit tests. Build-tagged `e2e` so they're skipped by the
# default `go test ./spinifex/...`. Runs with mocked AWS clients — no
# infrastructure required, safe to run in CI without a cluster.
test-harness:
@echo -e "\n....Running e2e harness unit tests...."
$(_Q)LOG_IGNORE=1 go test -tags=e2e -timeout 60s ./tests/e2e/harness/... $(_RACEQ)
# Validate docs/service-interfaces.yaml. Schema check + cross-reference
# of services/suites/fixtures + on-disk path existence. Subject content
# vs source is enforced separately in Bead 5 drift lint.
manifest-check:
@echo -e "\n....Checking service-interfaces.yaml...."
@go run ./tests/e2e/manifest-check/cmd/manifest-check -repo-root . -manifest docs/service-interfaces.yaml
# Run unit tests
test:
@echo -e "\n....Running tests for $(GO_PROJECT_NAME)...."
@@ -109,6 +153,12 @@ test-race:
@echo -e "\n....Running tests with race detector for $(GO_PROJECT_NAME)...."
$(_Q)LOG_IGNORE=1 go test -race -timeout 300s ./spinifex/... $(_RACEQ)
# Unit tests for in-repo GitHub Actions (e.g. .github/actions/e2e-analyze).
# Kept out of `test-cover` so coverage % isn't diluted by CI-only tooling.
test-actions:
@echo -e "\n....Running action tests...."
LOG_IGNORE=1 go test -timeout 60s ./.github/actions/...
# Check that new/changed code meets coverage threshold (runs tests first)
diff-coverage: test-cover
@QUIET=$(QUIET) scripts/diff-coverage.sh $(COVERPROFILE)
@@ -122,9 +172,18 @@ run:
$(MAKE) go_build
$(MAKE) go_run
# Fast iteration: build + install binary + restart all services
# Fast iteration: build + install binary + restart all services.
# Microvm artifacts are reinstalled when they already exist on disk — the rule's
# input timestamps drive a rebuild only if anything actually changed. On a fresh
# checkout (no build/microvm/vmlinuz yet) the install step is skipped; run
# `make install-microvm` explicitly the first time.
deploy: build
sudo install -m 755 bin/spx /usr/local/bin/spx
@if [ -f $(MICROVM_OUT_DIR)/vmlinuz ]; then \
$(MAKE) install-microvm; \
else \
echo "[deploy] microvm artifacts absent — run 'make install-microvm' for first-time setup"; \
fi
sudo systemctl daemon-reload
sudo systemctl restart spinifex.target
@@ -144,14 +203,15 @@ install-system:
-o Dpkg::Options::="--force-confdef" \
-o Dpkg::Options::="--force-confold" \
nbdkit nbdkit-plugin-dev pkg-config $(QEMU_PACKAGES) qemu-utils qemu-kvm \
ovmf qemu-efi-aarch64 \
libvirt-daemon-system libvirt-clients libvirt-dev make gcc jq curl \
iproute2 netcat-openbsd openssh-client wget git unzip sudo xz-utils file \
ovn-central ovn-host openvswitch-switch dhcpcd-base
install-go:
@echo -e "\n....Installing Go 1.26.2 for $(ARCH) ($(GO_ARCH))...."
@echo -e "\n....Installing Go 1.26.4 for $(ARCH) ($(GO_ARCH))...."
@if [ ! -d "/usr/local/go" ]; then \
curl -L https://go.dev/dl/go1.26.2.linux-$(GO_ARCH).tar.gz | tar -C /usr/local -xz; \
curl -L https://go.dev/dl/go1.26.4.linux-$(GO_ARCH).tar.gz | tar -C /usr/local -xz; \
else \
echo "Go already installed in /usr/local/go"; \
fi
@@ -206,6 +266,14 @@ distro-amd64:
-f build/Dockerfile.distro \
--output type=local,dest=dist/amd64/ \
../
@if [ -f $(MICROVM_OUT_DIR)/vmlinuz ] && [ -f $(MICROVM_OUT_DIR)/initramfs.cpio.gz ]; then \
echo "[distro-amd64] staging microvm artifacts into tarball"; \
mkdir -p dist/amd64/microvm; \
cp $(MICROVM_OUT_DIR)/vmlinuz $(MICROVM_OUT_DIR)/initramfs.cpio.gz dist/amd64/microvm/; \
else \
echo "[distro-amd64] WARNING: microvm artifacts missing — tarball will not include them"; \
echo "[distro-amd64] run 'make build-microvm-image' before 'make distro-amd64'"; \
fi
tar -czf dist/spinifex-$(VERSION)-linux-amd64.tar.gz -C dist/amd64 .
sha256sum dist/spinifex-$(VERSION)-linux-amd64.tar.gz > dist/spinifex-$(VERSION)-linux-amd64.tar.gz.sha256
@@ -226,21 +294,53 @@ distro-clean:
# Ansible dev lifecycle (experimental, parallel to dev-*.sh / reset-dev-env.sh).
# See scripts/ansible/README.md and docs/development/improvements/ansible-dev-lifecycle.md.
#
# Variable overrides: pass EXTRA_VARS="key=val key2=val2" to forward as
# `--extra-vars` to ansible-playbook. Plain `-e` on the make command line is
# make's own flag and does NOT reach ansible.
# make ansible-dev-install EXTRA_VARS="spinifex_external_pool_start=192.168.1.90 spinifex_external_pool_end=192.168.1.99"
EXTRA_VARS ?=
_ANSIBLE_EXTRA = $(if $(strip $(EXTRA_VARS)),--extra-vars "$(EXTRA_VARS)",)
ansible-dev-preflight:
cd scripts/ansible && ansible-playbook playbooks/dev-preflight.yml
cd scripts/ansible && ansible-playbook playbooks/dev-preflight.yml $(_ANSIBLE_EXTRA)
ansible-dev-teardown:
cd scripts/ansible && ansible-playbook playbooks/dev-teardown.yml
cd scripts/ansible && ansible-playbook playbooks/dev-teardown.yml $(_ANSIBLE_EXTRA)
ansible-dev-install:
cd scripts/ansible && ansible-playbook playbooks/dev-install.yml
cd scripts/ansible && ansible-playbook playbooks/dev-install.yml $(_ANSIBLE_EXTRA)
ansible-dev-reset:
cd scripts/ansible && ansible-playbook playbooks/dev-reset.yml
cd scripts/ansible && ansible-playbook playbooks/dev-reset.yml $(_ANSIBLE_EXTRA)
.PHONY: build build-ui build-installer build-lb-agent build-system-image build-lb-image go_build go_run preflight test test-cover test-race diff-coverage bench run \
ansible-dev-deploy:
cd scripts/ansible && ansible-playbook playbooks/dev-deploy.yml $(_ANSIBLE_EXTRA)
ansible-dev-status:
cd scripts/ansible && ansible-playbook playbooks/dev-status.yml
ansible-dev-logs:
cd scripts/ansible && ansible-playbook playbooks/dev-logs.yml
# Snapshot / restore require an explicit -e snapshot_name=<name>. The
# wrapper passes ANSIBLE_EXTRA through so devs can run
# `make ansible-dev-snapshot ANSIBLE_EXTRA='-e snapshot_name=before-merge'`.
ansible-dev-snapshot:
cd scripts/ansible && ansible-playbook playbooks/dev-snapshot.yml $(ANSIBLE_EXTRA)
ansible-dev-restore:
cd scripts/ansible && ansible-playbook playbooks/dev-restore.yml $(ANSIBLE_EXTRA)
ansible-dev-version:
cd scripts/ansible && ansible-playbook playbooks/dev-version.yml
ansible-dev-vpc:
cd scripts/ansible && ansible-playbook playbooks/dev-vpc.yml $(ANSIBLE_EXTRA)
.PHONY: build build-ui build-installer build-lb-agent build-system-image build-eks-server-image build-eks-agent-image build-microvm-image install-microvm go_build go_run preflight test test-cover test-race diff-coverage bench run test-actions test-harness manifest-check diff-coverage bench run \
deploy reinstall clean \
install-system install-go install-aws quickinstall \
lint fix govulncheck \
distro distro-amd64 distro-arm64 distro-clean \
ansible-dev-preflight ansible-dev-teardown ansible-dev-install ansible-dev-reset
ansible-dev-preflight ansible-dev-teardown ansible-dev-install ansible-dev-reset ansible-dev-deploy ansible-dev-status ansible-dev-logs ansible-dev-snapshot ansible-dev-restore ansible-dev-version ansible-dev-vpc
+16 -1
View File
@@ -93,9 +93,24 @@ AWS-Compatible Interfaces – Provision infrastructure with awscli, Terraform, o
Installation requires an Ubuntu / Debian system. See the detailed documentation at [docs.mulgadc.com](https://docs.mulgadc.com) for maintaining and installing Spinifex.
### Bare Metal ISO
The recommended installation is a [bootable x86 installer](https://iso.mulgadc.com/spinifex.iso) for bare-metal hardware.
```bash
curl -fLO https://iso.mulgadc.com/spinifex.iso
```
Follow the [USB install guide](https://docs.mulgadc.com/docs/install-usb) to write the ISO to USB and install on your hardware. The install guide walks through the full process.
### Single Node Install
The installation is straightforward to set up and running on a single node for testing purposes.
The installation is straightforward to set up and running on a single node for testing purposes. Debian 13 is currently supported, additional Linux distributions are on the immediate roadmap.
>*Prerequisite:* Linux bridge for networking.
Spinifex requires a Linux bridge configured on the host for VM networking. See the [single-node install guide](https://docs.mulgadc.com/docs/install#prerequisites) prerequisites for setup details.
```bash
curl -fsSL https://install.mulgadc.com | bash
+2 -2
View File
@@ -30,13 +30,13 @@ COPY viperblock/ ./viperblock/
# Build spinifex binary (spx)
RUN COMMIT=$(cd spinifex && git rev-parse --short HEAD 2>/dev/null || echo "unknown") && \
cd spinifex && go build -ldflags "-s -w \
cd spinifex && GOFIPS140=v1.0.0 go build -ldflags "-s -w \
-X github.com/mulgadc/spinifex/cmd/spinifex/cmd.Version=${VERSION} \
-X github.com/mulgadc/spinifex/cmd/spinifex/cmd.Commit=${COMMIT}" \
-o /out/spx cmd/spinifex/main.go
# Build nbdkit viperblock plugin (.so)
RUN cd viperblock && go build -o /out/nbdkit-viperblock-plugin.so -buildmode=c-shared nbd/viperblock.go
RUN cd viperblock && GOFIPS140=v1.0.0 go build -o /out/nbdkit-viperblock-plugin.so -buildmode=c-shared nbd/viperblock.go
# Copy setup scripts and systemd units
RUN cp spinifex/scripts/setup.sh /out/setup.sh 2>/dev/null || true
+56
View File
@@ -0,0 +1,56 @@
#!/bin/sh
mount -t proc proc /proc
mount -t sysfs sys /sys
mount -t devtmpfs dev /dev
# virtio_mmio is built-in (CONFIG_VIRTIO_MMIO=y) so virtio-net devices are
# already enumerated by the time PID 1 runs — no modprobe needed.
# qemu_fw_cfg and virtio_net are =m in stock Alpine linux-virt, so load them.
modprobe qemu_fw_cfg 2>/dev/null || modprobe fw_cfg_sysfs 2>/dev/null || true
modprobe virtio_net 2>/dev/null || true
for i in 1 2 3 4 5; do
[ -f /sys/firmware/qemu_fw_cfg/by_name/opt/spinifex/netcfg/raw ] && break
sleep 0.02
done
if [ ! -f /sys/firmware/qemu_fw_cfg/by_name/opt/spinifex/netcfg/raw ]; then
echo "[init] FATAL: fw_cfg netcfg not available" >&2
exit 1
fi
. /sys/firmware/qemu_fw_cfg/by_name/opt/spinifex/netcfg/raw
for n in 0 1 2 3 4 5; do
eval mac=\$NIC${n}_MAC
[ -z "$mac" ] && continue
iface=""
for attempt in 1 2 3 4 5; do
iface=$(ip -o link | awk -v m="$mac" 'tolower($0) ~ tolower(m) {print $2}' | tr -d :)
[ -n "$iface" ] && break
sleep 0.02
done
if [ -z "$iface" ]; then
echo "[init] WARNING: no interface found for MAC $mac (NIC$n), skipping" >&2
continue
fi
eval cidr=\$NIC${n}_CIDR
eval gw=\$NIC${n}_GW
eval default=\$NIC${n}_DEFAULT
eval rdst=\$NIC${n}_ROUTE_DST
eval rvia=\$NIC${n}_ROUTE_VIA
ip link set "$iface" up
[ -n "$cidr" ] && ip addr add "$cidr" dev "$iface"
[ "$default" = "1" ] && [ -n "$gw" ] && ip route add default via "$gw" dev "$iface"
[ -n "$rdst" ] && [ -n "$rvia" ] && ip route add "$rdst" via "$rvia" dev "$iface"
done
cp /sys/firmware/qemu_fw_cfg/by_name/opt/spinifex/lb-agent-env/raw /etc/conf.d/lb-agent
mkdir -p /etc/ssl/certs
cp /sys/firmware/qemu_fw_cfg/by_name/opt/spinifex/ca-cert/raw /etc/ssl/certs/ca-certificates.crt
exec /sbin/init
+4
View File
@@ -0,0 +1,4 @@
::sysinit:/etc/rc.local
::respawn:/bin/sh -c 'set -a; . /etc/conf.d/lb-agent; set +a; exec /usr/local/bin/lb-agent'
::ctrlaltdel:/sbin/reboot
::shutdown:/bin/umount -a -r
+6 -3
View File
@@ -5,17 +5,20 @@
CONF=/etc/spinifex/spinifex.toml
BIND="0.0.0.0:8443"
NODE_ID="0"
# -1 = co-located mode (all [[db]] peers in one process). Single-node spinifex
# templates list 3 DB peers on 127.0.0.1; only -1 can serve that topology.
# Multi-node spinifex.toml emits node_id = N (N >= 1) which overrides below.
# predastore rejects NODE_ID=0 since d3a02f0 (strconv.Atoi-of-garbage guard).
NODE_ID="-1"
if [ -f "$CONF" ]; then
H=$(awk -F'"' '/\[nodes\..*\.predastore\]/{f=1} f&&/^host/{print $2;exit}' "$CONF")
if [ -n "$H" ]; then
BIND="$H"
BACKEND="distributed"
fi
N=$(awk -F'= *' '/node_id/{gsub(/ /,"",$2);print $2;exit}' "$CONF")
if [ -n "$N" ] && [ "$N" != "0" ]; then
if [ -n "$N" ]; then
NODE_ID="$N"
fi
fi
@@ -0,0 +1,12 @@
[Unit]
Description=Regenerate SSH host keys
ConditionPathExists=!/etc/ssh/ssh_host_ed25519_key
Before=ssh.service
[Service]
Type=oneshot
ExecStart=/usr/bin/ssh-keygen -A
RemainAfterExit=yes
[Install]
WantedBy=multi-user.target
+54 -4
View File
@@ -1,28 +1,75 @@
[Unit]
Description=Spinifex Daemon (VM Orchestration)
PartOf=spinifex.target
After=spinifex-nats.service spinifex-viperblock.service openvswitch-switch.service ovn-controller.service
Wants=spinifex-nats.service
After=spinifex-nats.service spinifex-viperblock.service openvswitch-switch.service ovn-controller.service openvswitch-ipsec.service
# Wants=openvswitch-ipsec.service so systemd brings the IPsec userspace
# daemon up before spinifex flips other_config:ipsec_encapsulation=true.
# Without that daemon, OVS holds the cert pointers unused and strongSwan
# never gets IKE config — tunnel traffic is encrypted with no SAs and
# silently dropped. Wants= (not Requires=) keeps daemon bootable on
# single-node / lab hosts where the package is intentionally absent.
Wants=openvswitch-ipsec.service
# No Wants=spinifex-nats.service: Wants= reactivates a stopped unit during
# `systemctl restart spinifex-daemon`, which would mask the standalone-startup
# path the Tier 1 DDIL Scenario B exercises. spinifex.target Wants= covers
# cold boot.
[Service]
Type=simple
User=spinifex-daemon
Group=spinifex
ExecStartPre=/var/lib/spinifex/wait-for-nats.sh
# DDIL Tier 1 (siv-17): no ExecStartPre wait-for-nats. The daemon starts in
# standalone mode and reconnects to NATS in the background — process-exiting
# on a missing NATS would kill the local VM management plane.
#
# Opt-in strict-startup (§1d-strict, siv-44): set SPINIFEX_REQUIRE_NATS=1 to
# restore pre-DDIL fail-fast UX. First NATS connect uses a ~30s bounded retry
# and the daemon aborts on timeout. Intended for dev/test/single-node deploys
# where silent NATS misconfig is more confusing than helpful. Do NOT set this
# in the shipped unit — it re-introduces the SPOF that Tier 1 removed.
ExecStart=/usr/local/bin/spx service spinifex start
Restart=on-failure
RestartSec=5
# DDIL Tier 1: KillMode=process so systemd only signals the
# daemon's main PID, not the cgroup. QEMU children stay alive across
# `systemctl restart spinifex-daemon` and the new daemon reattaches to them
# via the persisted local state file + pidfile + QMP socket. With the
# default control-group mode, restart would terminate every guest VM —
# defeating Scenario B's "daemon restart preserves running instances".
KillMode=process
# 15s upper bound on the SIGTERM grace window. The new SIGTERM handler
# skips VM teardown (it now just persists state and exits), so 15s is
# plenty of slack for the cluster-manager + NATS unsubscribe path.
TimeoutStopSec=15
OOMScoreAdjust=-500
Environment=SPINIFEX_CONFIG_PATH=/etc/spinifex/spinifex.toml
Environment=SPINIFEX_BASE_DIR=/var/lib/spinifex/spinifex/
Environment=SPINIFEX_WAL_DIR=/var/lib/spinifex/spinifex/
# DDIL Tier 1: QEMU pidfiles, QMP sockets, and the
# shared qemu.log all resolve via utils.pidPath() — which falls back
# to os.TempDir() (=/tmp) when $HOME/spinifex doesn't exist. With
# PrivateTmp=yes, each daemon start gets a fresh /tmp namespace, so
# pidfiles written by QEMU (running in the OLD daemon's namespace)
# are invisible to the new daemon. The /local/instances handler then
# reports PID=0 and Scenario B fails its "live QEMU PID" assertion.
# Pin XDG_RUNTIME_DIR to the host-wide tmpfs at /run/spinifex (created
# by tmpfiles.d, already in ReadWritePaths) so pidPath() returns a
# stable, namespace-independent path that both daemon incarnations and
# QEMU children resolve identically.
Environment=XDG_RUNTIME_DIR=/run/spinifex
# Filesystem access — NoNewPrivileges omitted (daemon uses sudo for ip, ovs-vsctl)
# Filesystem access — NoNewPrivileges omitted (daemon uses sudo for ip, ovs-vsctl, dhcpcd)
# CAP_SYS_ADMIN: required for GPU passthrough sysfs operations (vfio group management).
# CAP_DAC_OVERRIDE: sysfs driver bind/unbind paths (/sys/bus/pci/drivers/vfio-pci/bind,
# unbind) are root:root 0200; non-root processes need CAP_DAC_OVERRIDE to open them.
AmbientCapabilities=CAP_SYS_ADMIN CAP_DAC_OVERRIDE
ProtectSystem=full
PrivateDevices=no
DevicePolicy=closed
DeviceAllow=/dev/kvm rw
DeviceAllow=/dev/net/tun rw
DeviceAllow=char-vfio rw
DeviceAllow=/dev/vfio/vfio rw
ReadOnlyPaths=/etc/spinifex/spinifex.toml /etc/spinifex/server.pem /etc/spinifex/server.key /etc/spinifex/ca.pem
ReadWritePaths=/var/lib/spinifex/spinifex /var/log/spinifex /run/spinifex /run/spinifex/nbd
@@ -50,6 +97,9 @@ RemoveIPC=yes
LimitCORE=0
LimitNOFILE=65536
LimitNPROC=4096
# VFIO GPU passthrough requires locking all guest RAM into physical memory.
# Without this, QEMU fails with RLIMIT_MEMLOCK exceeded when pinning guest pages.
LimitMEMLOCK=infinity
[Install]
WantedBy=spinifex.target
@@ -17,6 +17,7 @@ Environment=SPINIFEX_PREDASTORE_CONFIG_PATH=/etc/spinifex/predastore/predastore.
Environment=SPINIFEX_PREDASTORE_BASE_PATH=/var/lib/spinifex/predastore/
Environment=SPINIFEX_PREDASTORE_TLS_CERT=/etc/spinifex/server.pem
Environment=SPINIFEX_PREDASTORE_TLS_KEY=/etc/spinifex/server.key
Environment=SPINIFEX_PREDASTORE_ENCRYPTION_KEY_FILE=/etc/spinifex/predastore/encryption.key
# Filesystem access
NoNewPrivileges=yes
+5
View File
@@ -0,0 +1,5 @@
# Allow spinifex group to access VFIO devices for GPU passthrough.
# QEMU (launched by spinifex-daemon, group spinifex) must open /dev/vfio/N
# to use vfio-pci passthrough devices. The kernel creates these nodes as
# root:root 0600 by default; this rule grants group-level read-write access.
SUBSYSTEM=="vfio", GROUP="spinifex", MODE="0660"
+172
View File
@@ -0,0 +1,172 @@
// dhcptest is a diagnostic tool that runs a DHCP DORA handshake using the
// same nclient4 library and options that spinifex-vpcd uses for gateway pool
// leases. Run it on a node to verify DHCP works at the library level before
// debugging the full spinifex stack.
//
// Usage (must run as root — needs AF_PACKET):
//
// sudo dhcptest --iface=br-wan
// sudo dhcptest --iface=br-wan --mac=02:00:00:7c:b7:b9 --promisc
// sudo dhcptest --iface=br-wan --spinifex-id=gateway-wan1
package main
import (
"context"
"flag"
"fmt"
"log"
"net"
"os"
"os/exec"
"strings"
"time"
"github.com/insomniacslk/dhcp/dhcpv4"
"github.com/insomniacslk/dhcp/dhcpv4/nclient4"
)
func main() {
iface := flag.String("iface", "br-wan", "Interface/bridge to bind the DHCP client to")
macStr := flag.String("mac", "", "Hardware address for DORA (chaddr + AF_PACKET filter). If empty, uses the real interface MAC.")
spinifexID := flag.String("spinifex-id", "", "Generate a spinifex virtual MAC from this resource ID (e.g. 'gateway-wan1'). Overrides --mac.")
clientID := flag.String("client-id", "", "DHCP option 61 client identifier. Defaults to --spinifex-id or --mac value.")
hostname := flag.String("hostname", "", "DHCP option 12 hostname")
vendorClass := flag.String("vendor-class", "mulga-spinifex-gw", "DHCP option 60 vendor class identifier")
promisc := flag.Bool("promisc", false, "Enable promiscuous mode on the interface before the test (mirrors vpcd's setBridgePromisc)")
timeout := flag.Duration("timeout", 10*time.Second, "Per-attempt DHCP timeout")
retries := flag.Int("retries", 3, "Number of DORA attempts before giving up")
verbose := flag.Bool("verbose", false, "Print full DHCP packet contents")
flag.Parse()
// Resolve the hardware address to use.
var hwAddr net.HardwareAddr
var err error
switch {
case *spinifexID != "":
hwAddr, err = net.ParseMAC(generateMAC(*spinifexID))
if err != nil {
log.Fatalf("generateMAC(%q): %v", *spinifexID, err)
}
fmt.Printf("spinifex virtual MAC for %q: %s\n", *spinifexID, hwAddr)
case *macStr != "":
hwAddr, err = net.ParseMAC(*macStr)
if err != nil {
log.Fatalf("parse --mac %q: %v", *macStr, err)
}
default:
hwAddr, err = ifaceMAC(*iface)
if err != nil {
log.Fatalf("get MAC for %s: %v", *iface, err)
}
fmt.Printf("using real interface MAC: %s\n", hwAddr)
}
// Resolve client-id: default to spinifex-id, then MAC string.
cid := *clientID
if cid == "" {
if *spinifexID != "" {
cid = *spinifexID
} else {
cid = hwAddr.String()
}
}
fmt.Printf("iface: %s\n", *iface)
fmt.Printf("hw-addr: %s\n", hwAddr)
fmt.Printf("client-id: %s\n", cid)
fmt.Printf("hostname: %s\n", *hostname)
fmt.Printf("vendor-class: %s\n", *vendorClass)
fmt.Printf("promisc: %v\n", *promisc)
fmt.Printf("timeout: %s retries: %d\n", *timeout, *retries)
fmt.Println()
if *promisc {
if err := setPromisc(*iface, true); err != nil {
log.Printf("WARNING: failed to set promisc on %s: %v", *iface, err)
} else {
fmt.Printf("set %s promisc ON\n\n", *iface)
}
}
// Build nclient4 options — standalone DHCP probe for upstream-router debugging.
opts := []nclient4.ClientOpt{
nclient4.WithHWAddr(hwAddr),
nclient4.WithTimeout(*timeout),
nclient4.WithRetry(*retries),
}
if *verbose {
opts = append(opts, nclient4.WithLogger(nclient4.ShortSummaryLogger{Printfer: log.New(os.Stderr, "[nclient4] ", 0)}))
}
client, err := nclient4.New(*iface, opts...)
if err != nil {
log.Fatalf("nclient4.New(%s): %v", *iface, err)
}
defer client.Close()
// Identity modifiers — client-id / hostname / vendor-class for upstream lease tagging.
var mods []dhcpv4.Modifier
if cid != "" {
mods = append(mods, dhcpv4.WithOption(dhcpv4.OptClientIdentifier([]byte(cid))))
}
if *hostname != "" {
mods = append(mods, dhcpv4.WithOption(dhcpv4.OptHostName(*hostname)))
}
if *vendorClass != "" {
mods = append(mods, dhcpv4.WithOption(dhcpv4.OptClassIdentifier(*vendorClass)))
}
fmt.Println("Sending DHCP Discover...")
start := time.Now()
ctx, cancel := context.WithTimeout(context.Background(), *timeout*time.Duration(*retries+1))
defer cancel()
lease, err := client.Request(ctx, mods...)
if err != nil {
fmt.Printf("\nFAILED after %s: %v\n", time.Since(start).Round(time.Millisecond), err)
os.Exit(1)
}
fmt.Printf("SUCCESS in %s\n\n", time.Since(start).Round(time.Millisecond))
ack := lease.ACK
fmt.Printf(" Your IP: %s\n", ack.YourIPAddr)
fmt.Printf(" Subnet: %s\n", ack.SubnetMask())
fmt.Printf(" Gateway: %v\n", ack.Router())
fmt.Printf(" DNS: %v\n", ack.DNS())
fmt.Printf(" Server ID: %s\n", ack.ServerIdentifier())
fmt.Printf(" Lease time: %s\n", ack.IPAddressLeaseTime(24*time.Hour))
if *verbose {
fmt.Printf("\n--- Full ACK ---\n%s\n", ack.Summary())
}
}
// generateMAC is the same deterministic hash used by vpcd's topology.go.
// It produces a locally-administered MAC (02:00:00:xx:xx:xx) from a resource ID.
func generateMAC(resourceID string) string {
h := uint32(0)
for _, c := range resourceID {
h = h*31 + uint32(c)
}
return fmt.Sprintf("02:00:00:%02x:%02x:%02x", (h>>16)&0xff, (h>>8)&0xff, h&0xff)
}
func ifaceMAC(name string) (net.HardwareAddr, error) {
ifc, err := net.InterfaceByName(name)
if err != nil {
return nil, err
}
return ifc.HardwareAddr, nil
}
func setPromisc(iface string, on bool) error {
state := "on"
if !on {
state = "off"
}
out, err := exec.Command("ip", "link", "set", iface, "promisc", state).CombinedOutput()
if err != nil {
return fmt.Errorf("%w: %s", err, strings.TrimSpace(string(out)))
}
return nil
}
+38
View File
@@ -0,0 +1,38 @@
// eks-token-webhook is the K8s TokenReview webhook authenticator baked into
// the eks-server AMI. It decodes the SigV4-presigned GetCallerIdentity URL
// produced by `aws eks get-token`, enforces the X-K8s-Aws-Id cross-cluster
// pin, calls Mulga STS over NATS, and resolves the principal to a TokenReview
// response via the cluster's AccessEntry KV.
//
// This is a placeholder build that returns 503 Service Unavailable on every
// path. It exists so the eks-server AMI build succeeds (INSTALL_BINARIES is
// satisfied) and the K3s server VM boots cleanly. Real implementation lands
// with bead mulga-cs-eks-6c.
package main
import (
"flag"
"log/slog"
"net/http"
"os"
)
func main() {
addr := flag.String("addr", "127.0.0.1:8443", "listen address")
flag.Parse()
slog.SetDefault(slog.New(slog.NewTextHandler(os.Stderr, &slog.HandlerOptions{Level: slog.LevelInfo})))
mux := http.NewServeMux()
mux.HandleFunc("/", func(w http.ResponseWriter, r *http.Request) {
w.Header().Set("Retry-After", "30")
w.Header().Set("Content-Type", "application/json")
http.Error(w, `{"error":"eks-token-webhook stub: real implementation not yet deployed"}`, http.StatusServiceUnavailable)
})
slog.Info("eks-token-webhook stub starting", "addr", *addr)
if err := http.ListenAndServe(*addr, mux); err != nil {
slog.Error("listen failed", "err", err)
os.Exit(1)
}
}
+10 -1
View File
@@ -134,12 +134,21 @@ func buildConfig() (*install.Config, error) {
}
}
if os.Getenv("SPINIFEX_GPU_PASSTHROUGH") == "1" {
cfg.GPUPassthrough = true
}
role := strings.ToLower(os.Getenv("SPINIFEX_ROLE"))
if role == "" {
role = "init"
}
cfg.ClusterRole = role
if role == "join" {
skipFormation := os.Getenv("SPINIFEX_SKIP_FORMATION") == "1"
if skipFormation {
cfg.SkipFormation = true
}
if role == "join" && !skipFormation {
joinAddr := os.Getenv("SPINIFEX_JOIN_ADDR")
if joinAddr == "" {
return nil, fmt.Errorf("SPINIFEX_JOIN_ADDR required when SPINIFEX_ROLE=join")
@@ -0,0 +1,17 @@
package autoinstall
import (
"os"
"testing"
)
func TestLoadReturnsNilWhenNotAuto(t *testing.T) {
os.Unsetenv("SPINIFEX_AUTO")
cfg, err := Load()
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
if cfg != nil {
t.Fatal("expected nil config when SPINIFEX_AUTO is not set")
}
}
+43 -3
View File
@@ -43,6 +43,19 @@ type Config struct {
// the headless path. Passed to `spx admin init --email=<value>` when set;
// omitted entirely when empty.
Email string
// GPUPassthrough enables VFIO GPU passthrough by passing --gpu-passthrough
// to `spx admin init`, which writes gpu_passthrough = true in the daemon config.
GPUPassthrough bool
// InstallCallback, when non-empty, is curled once at the end of firstboot
// after the success marker is written. Generic phone-home hook for
// provisioning controllers (PXE/MAAS-style flows). Best-effort: non-2xx
// and network failures are swallowed so the install is not gated on
// controller reachability.
InstallCallback string
// SkipFormation skips spx admin init/join. Used when a provisioning
// controller (e.g. bm-bootstrap.sh) owns cluster formation and will call
// spx admin init/join itself with the correct multi-node parameters.
SkipFormation bool
}
// Write drops the firstboot script and systemd unit into root, which should be
@@ -78,6 +91,14 @@ func writeScript(root string, cfg Config) error {
setupOVN += fmt.Sprintf(" --encap-ip=%s", cfg.EncapIP)
}
callbackBlock := ""
if cfg.InstallCallback != "" {
callbackBlock = fmt.Sprintf(
"\ncurl -fsS --max-time 10 --retry 2 --retry-delay 2 -o /dev/null %s || true\n",
shellEscapeSingle(cfg.InstallCallback),
)
}
script := fmt.Sprintf(`#!/bin/bash
# Spinifex firstboot — runs once after ISO installation. On success, writes
# /var/lib/spinifex/.firstboot-done and the systemd unit's
@@ -146,6 +167,18 @@ SETUP_STAGES=fixown /usr/local/share/spinifex/setup.sh
# setup.sh's create_directories — it resolves to /etc/spinifex, so
# {BaseDir}/config/master.key automatically points at /etc/spinifex/master.key.
# Bootstrap the spinifex user's SSH directory with a generated key pair so
# ~/.ssh exists and the operator can immediately use ssh-keygen / ssh-copy-id
# without hitting "No such file or directory" errors documented in the setup guide.
if [ ! -f /home/spinifex/.ssh/id_ed25519 ]; then
mkdir -p /home/spinifex/.ssh
chmod 700 /home/spinifex/.ssh
ssh-keygen -t ed25519 -f /home/spinifex/.ssh/id_ed25519 -N "" -C "spinifex@$(hostname)"
chown -R spinifex:spinifex /home/spinifex/.ssh
chmod 600 /home/spinifex/.ssh/id_ed25519
chmod 644 /home/spinifex/.ssh/id_ed25519.pub
fi
# Copy AWS credentials to the spinifex user's home directory.
# spx admin init runs with HOME=/root (set by the systemd unit), so credentials
# land in /root/.aws/. Copy them to the spinifex user's home so the operator
@@ -176,7 +209,7 @@ systemctl enable spinifex.target spinifex-banner.service
# firstboot from the top.
mkdir -p "$(dirname "$DONE_MARKER")"
touch "$DONE_MARKER"
%s
systemctl start spinifex.target
# Wait for the daemon to bring up external networking. When external_mode=pool
@@ -196,13 +229,16 @@ if grep -q 'external_mode.*pool' /etc/spinifex/spinifex.toml 2>/dev/null; then
echo "[firstboot] warning: br-ext not up after 30s — external networking may be delayed"
fi
fi
`, cfg.Hostname, setupOVN, clusterCmd)
`, cfg.Hostname, setupOVN, clusterCmd, callbackBlock)
path := filepath.Join(root, "usr/local/bin/spinifex-firstboot.sh")
return os.WriteFile(path, []byte(script), 0o755)
}
func buildClusterCmd(cfg Config) string {
if cfg.SkipFormation {
return `echo "[firstboot] cluster formation skipped — provisioning controller will handle it"`
}
emailFlag := ""
if cfg.Email != "" {
// shellEscapeSingle keeps the email safe if it ever contains a
@@ -210,11 +246,15 @@ func buildClusterCmd(cfg Config) string {
// validator already rejects whitespace and @-chains.
emailFlag = " --email=" + shellEscapeSingle(cfg.Email)
}
gpuFlag := ""
if cfg.GPUPassthrough {
gpuFlag = " --gpu-passthrough"
}
switch cfg.ClusterRole {
case "join":
return fmt.Sprintf("spx admin join --node %s --host %s%s", cfg.Hostname, cfg.JoinAddr, emailFlag)
default:
return fmt.Sprintf("spx admin init --node %s --nodes 1%s", cfg.Hostname, emailFlag)
return fmt.Sprintf("spx admin init --node %s --nodes 1%s%s", cfg.Hostname, emailFlag, gpuFlag)
}
}
+100
View File
@@ -0,0 +1,100 @@
package firstboot
import (
"os"
"path/filepath"
"strings"
"testing"
)
func makeRootDirs(t *testing.T, root string) {
t.Helper()
for _, d := range []string{
"usr/local/bin",
"etc/systemd/system",
"etc/systemd/system/multi-user.target.wants",
} {
if err := os.MkdirAll(filepath.Join(root, d), 0o755); err != nil {
t.Fatalf("mkdir %s: %v", d, err)
}
}
}
func TestWriteScriptNoCallbackWhenEmpty(t *testing.T) {
root := t.TempDir()
makeRootDirs(t, root)
cfg := Config{Hostname: "test-node", ClusterRole: "init"}
if err := Write(root, cfg); err != nil {
t.Fatalf("Write: %v", err)
}
script, err := os.ReadFile(filepath.Join(root, "usr/local/bin/spinifex-firstboot.sh"))
if err != nil {
t.Fatalf("read script: %v", err)
}
if strings.Contains(string(script), "curl") {
t.Error("script should not contain curl when InstallCallback is empty")
}
}
func TestWriteScriptEmbedsCurlWhenCallbackSet(t *testing.T) {
root := t.TempDir()
makeRootDirs(t, root)
const callbackURL = "http://192.168.1.12/boot/done?mac=aa:bb:cc:dd:ee:ff"
cfg := Config{
Hostname: "test-node",
ClusterRole: "init",
InstallCallback: callbackURL,
}
if err := Write(root, cfg); err != nil {
t.Fatalf("Write: %v", err)
}
script, err := os.ReadFile(filepath.Join(root, "usr/local/bin/spinifex-firstboot.sh"))
if err != nil {
t.Fatalf("read script: %v", err)
}
content := string(script)
if !strings.Contains(content, "curl") {
t.Error("script missing curl command")
}
if !strings.Contains(content, callbackURL) {
t.Errorf("script missing callback URL %q", callbackURL)
}
}
func TestWriteScriptCallbackAfterDoneMarker(t *testing.T) {
root := t.TempDir()
makeRootDirs(t, root)
const callbackURL = "http://192.168.1.12/boot/done?mac=aa:bb:cc:dd:ee:ff"
cfg := Config{
Hostname: "node1",
ClusterRole: "init",
InstallCallback: callbackURL,
}
if err := Write(root, cfg); err != nil {
t.Fatalf("Write: %v", err)
}
script, err := os.ReadFile(filepath.Join(root, "usr/local/bin/spinifex-firstboot.sh"))
if err != nil {
t.Fatalf("read script: %v", err)
}
content := string(script)
doneIdx := strings.Index(content, "touch \"$DONE_MARKER\"")
curlIdx := strings.Index(content, "curl")
if doneIdx < 0 {
t.Fatal("done marker not found in script")
}
if curlIdx < 0 {
t.Fatal("curl not found in script")
}
if curlIdx < doneIdx {
t.Error("curl must appear after done marker write")
}
}
+9
View File
@@ -55,6 +55,10 @@ type Config struct {
// JoinAddr is the primary node address (host:port) when ClusterRole is "join".
JoinAddr string
// SkipFormation skips spx admin init/join in firstboot; the provisioning
// controller (e.g. bm-bootstrap.sh) owns cluster formation instead.
SkipFormation bool
// CA certificate (PEM), optional.
HasCACert bool
CACert string
@@ -67,4 +71,9 @@ type Config struct {
// Required on interactive installs; may be empty on headless/CI installs
// when SPINIFEX_EMAIL is not supplied on the kernel cmdline.
Email string
// GPUPassthrough enables VFIO GPU passthrough on this node.
// Set via SPINIFEX_GPU_PASSTHROUGH=1 on headless installs.
// Passes --gpu-passthrough to `spx admin init` during firstboot.
GPUPassthrough bool
}
+82 -41
View File
@@ -23,9 +23,11 @@ import (
"io"
"log/slog"
"net"
"net/http"
"os"
"os/exec"
"path/filepath"
"slices"
"strings"
"syscall"
"time"
@@ -77,6 +79,7 @@ func Run(cfg *Config) error {
}
slog.Info("installation complete")
fireInstallCallback()
promptRemoveUSB()
return reboot()
}
@@ -172,6 +175,7 @@ func copyRootfs() error {
"--exclude=/etc/openvswitch/",
"--exclude=/var/lib/openvswitch/",
"--exclude=/var/lib/dhcpcd/",
"--exclude=/etc/ssh/ssh_host_*",
"--exclude=/lost+found",
"--exclude=/boot/efi",
"/", mountRoot+"/",
@@ -300,9 +304,10 @@ func installSpinifex(cfg *Config) error {
return err
}
// dhcpcd-base is present on the installed system (used by setup-ovn.sh for
// macvlan mode). Mask the standalone dhcpcd.service so it never auto-starts
// and races with systemd-networkd's built-in DHCP client on br-wan.
// dhcpcd-base is present on the installed system (used by setup-ovn.sh
// for WAN DHCP acquisition). Mask the standalone dhcpcd.service so it
// never auto-starts and races with systemd-networkd's built-in DHCP
// client on br-wan.
if err := maskSystemdUnit(mountRoot, "dhcpcd.service"); err != nil {
slog.Warn("installSpinifex: failed to mask dhcpcd.service", "err", err)
}
@@ -555,6 +560,11 @@ func installBootloader(disk string) error {
}
return biosErr
}
// Copy splash image and unicode font from the ISO (mounted at /cdrom) so the
// installed GRUB shows the same branded background as the installer GRUB.
// The font must be at /boot/grub/fonts/unicode.pf2 so update-grub finds it
// there and emits the same loadfont path as the ISO's grub.cfg — GRUB 2.12
// (trixie) needs the font in the boot partition, not just /usr/share/grub/.
copySplashImage(mountRoot)
copyGrubFont(mountRoot)
@@ -644,6 +654,26 @@ func promptRemoveUSB() {
}
}
// fireInstallCallback notifies the boot controller that installation is done
// so it clears the PXE install flag before the node reboots. Without this,
// a PXE-first boot order causes the node to reinstall on every reboot until
// firstboot fires the callback — which it can never do if it never runs.
// No-op when SPINIFEX_INSTALL_CALLBACK is not set (ISO/USB installs).
func fireInstallCallback() {
url := strings.TrimSpace(os.Getenv("SPINIFEX_INSTALL_CALLBACK"))
if url == "" {
return
}
client := &http.Client{Timeout: 10 * time.Second}
resp, err := client.Get(url) //nolint:noctx // installer has no context; best-effort fire-and-forget
if err != nil {
slog.Warn("fireInstallCallback: request failed", "url", url, "err", err)
return
}
resp.Body.Close()
slog.Info("fireInstallCallback: notified boot controller", "url", url, "status", resp.StatusCode)
}
func reboot() error {
// sync filesystems before reboot so nothing is lost.
_ = run("sync")
@@ -662,11 +692,13 @@ func (c *Config) toFirstbootConfig() firstboot.Config {
encapIP = c.LANAddress
}
return firstboot.Config{
Hostname: c.Hostname,
EncapIP: encapIP,
ClusterRole: c.ClusterRole,
JoinAddr: c.JoinAddr,
Email: c.Email,
Hostname: c.Hostname,
EncapIP: encapIP,
ClusterRole: c.ClusterRole,
JoinAddr: c.JoinAddr,
Email: c.Email,
InstallCallback: strings.TrimSpace(os.Getenv("SPINIFEX_INSTALL_CALLBACK")),
SkipFormation: c.SkipFormation,
}
}
@@ -712,9 +744,46 @@ func partitionPaths(disk string) (efi, root string) {
return disk + "2", disk + "3"
}
// copySplashImage copies the GRUB splash (embedded in the squashfs at build time by
// inject-bins.sh) into the installed system so the post-install GRUB shows the same
// branded background as the installer GRUB. Non-fatal — missing source is logged and skipped.
// copyGrubFont copies the unicode.pf2 GRUB font into the installed system's
// /boot/grub/fonts/ directory. This ensures update-grub finds the font at
// /boot/grub/fonts/unicode.pf2 — the same path the ISO's grub.cfg uses —
// so the generated grub.cfg enables gfxterm and the background image.
// Without this, grub-mkconfig falls back to /usr/share/grub/unicode.pf2,
// a path that GRUB 2.12 (trixie) may fail to resolve at boot time.
// Non-fatal — a missing source is logged and skipped.
func copyGrubFont(root string) {
candidates := []string{
"/cdrom/boot/grub/fonts/unicode.pf2", // ISO tree (preferred)
"/usr/share/grub/unicode.pf2", // live system grub-common fallback
}
for _, src := range candidates {
in, err := os.Open(src)
if err != nil {
continue
}
defer in.Close()
dstDir := filepath.Join(root, "boot/grub/fonts")
if err := os.MkdirAll(dstDir, 0o755); err != nil {
slog.Warn("copyGrubFont: cannot create fonts dir", "err", err)
return
}
out, err := os.OpenFile(filepath.Join(dstDir, "unicode.pf2"), os.O_WRONLY|os.O_CREATE|os.O_TRUNC, 0o644)
if err != nil {
slog.Warn("copyGrubFont: cannot open destination", "err", err)
return
}
defer out.Close()
if _, err := io.Copy(out, in); err != nil {
slog.Warn("copyGrubFont: copy failed", "err", err)
}
return
}
slog.Warn("copyGrubFont: no unicode.pf2 found, splash may not display")
}
// copySplashImage copies the GRUB splash from the live ISO (/cdrom/boot/grub/splash.png)
// into the installed system so the post-install GRUB shows the same branded background
// as the installer. Non-fatal — a missing or unreadable source is logged and skipped.
func copySplashImage(root string) {
const src = "/usr/share/spinifex/grub-splash.png"
in, err := os.Open(src)
@@ -740,34 +809,6 @@ func copySplashImage(root string) {
}
}
// copyGrubFont copies the unicode font into the installed system's
// /boot/grub/fonts/ so the loadfont path in 05_spinifex resolves at boot.
// grub-install does not copy fonts; we mirror what build-iso.sh does.
func copyGrubFont(root string) {
const src = "/usr/share/grub/unicode.pf2"
in, err := os.Open(src)
if err != nil {
slog.Warn("copyGrubFont: font not found, graphical GRUB may not work", "path", src)
return
}
defer in.Close()
dstDir := filepath.Join(root, "boot/grub/fonts")
if err := os.MkdirAll(dstDir, 0o755); err != nil {
slog.Warn("copyGrubFont: cannot create fonts dir", "err", err)
return
}
out, err := os.OpenFile(filepath.Join(dstDir, "unicode.pf2"), os.O_WRONLY|os.O_CREATE|os.O_TRUNC, 0o644)
if err != nil {
slog.Warn("copyGrubFont: cannot open destination", "err", err)
return
}
defer out.Close()
if _, err := io.Copy(out, in); err != nil {
slog.Warn("copyGrubFont: copy failed", "err", err)
}
}
// maskSystemdUnit creates a symlink to /dev/null for the given unit, which is
// the standard way to permanently disable a unit so systemd will never start it.
func maskSystemdUnit(root, unit string) error {
@@ -811,8 +852,8 @@ func bindChrootMounts() error {
// unbindChrootMounts unmounts the virtual filesystems in reverse order.
// Errors are logged but not returned — this is best-effort cleanup.
func unbindChrootMounts() {
for i := len(chrootMountPaths) - 1; i >= 0; i-- {
_ = run("umount", filepath.Join(mountRoot, chrootMountPaths[i]))
for _, v := range slices.Backward(chrootMountPaths) {
_ = run("umount", filepath.Join(mountRoot, v))
}
}
+27
View File
@@ -0,0 +1,27 @@
package install
import (
"os"
"testing"
)
func TestToFirstbootConfigIncludesInstallCallback(t *testing.T) {
const url = "http://192.168.1.12/boot/done?mac=aa:bb:cc:dd:ee:ff"
t.Setenv("SPINIFEX_INSTALL_CALLBACK", url)
cfg := &Config{Hostname: "node1", ClusterRole: "init"}
fb := cfg.toFirstbootConfig()
if fb.InstallCallback != url {
t.Errorf("InstallCallback = %q, want %q", fb.InstallCallback, url)
}
}
func TestToFirstbootConfigEmptyCallbackWhenEnvUnset(t *testing.T) {
os.Unsetenv("SPINIFEX_INSTALL_CALLBACK")
cfg := &Config{Hostname: "node1", ClusterRole: "init"}
fb := cfg.toFirstbootConfig()
if fb.InstallCallback != "" {
t.Errorf("InstallCallback = %q, want empty", fb.InstallCallback)
}
}
+1
View File
@@ -24,6 +24,7 @@ import (
"github.com/mulgadc/spinifex/cmd/installer/autoinstall"
"github.com/mulgadc/spinifex/cmd/installer/install"
"github.com/mulgadc/spinifex/cmd/installer/ui"
_ "github.com/mulgadc/spinifex/internal/fipsboot"
)
func main() {
+2
View File
@@ -19,6 +19,8 @@ import (
"syscall"
"github.com/mulgadc/spinifex/spinifex/lbagent"
_ "github.com/mulgadc/spinifex/internal/fipsboot"
)
func main() {
+455 -95
View File
@@ -17,6 +17,7 @@ along with this program. If not, see <https://www.gnu.org/licenses/>.
package cmd
import (
"bufio"
"bytes"
"context"
"crypto/tls"
@@ -45,8 +46,10 @@ import (
"github.com/mulgadc/spinifex/spinifex/admin"
"github.com/mulgadc/spinifex/spinifex/config"
"github.com/mulgadc/spinifex/spinifex/formation"
"github.com/mulgadc/spinifex/spinifex/gpu"
handlers_ec2_vpc "github.com/mulgadc/spinifex/spinifex/handlers/ec2/vpc"
handlers_iam "github.com/mulgadc/spinifex/spinifex/handlers/iam"
"github.com/mulgadc/spinifex/spinifex/objectstore"
"github.com/mulgadc/spinifex/spinifex/utils"
"github.com/mulgadc/viperblock/viperblock"
"github.com/mulgadc/viperblock/viperblock/backends/s3"
@@ -83,6 +86,14 @@ var supportedPlatforms = map[string]bool{
"Windows": true,
}
// Mirrors the gateway RegisterImage allowlist so admin imports can't write an
// AMI with a boot mode that RegisterImage would reject.
var supportedBootModes = map[string]bool{
"bios": true,
"uefi": true,
"uefi-preferred": true,
}
var adminCmd = &cobra.Command{
Use: "admin",
Short: "Administrative commands for Spinifex platform management",
@@ -142,6 +153,19 @@ var imagesListCmd = &cobra.Command{
Run: runimagesListCmd,
}
var imagesRemoveCmd = &cobra.Command{
Use: "remove",
Short: "Remove an admin-imported system AMI",
Long: `Delete an AMI imported via 'spx admin images import', including its
backing block storage and snapshot artefacts. Only operates on AMIs with a
non-account owner (e.g. "system"); account-owned AMIs must be removed via
'aws ec2 deregister-image' followed by 'aws ec2 delete-snapshot'.
Refuses to delete an AMI that has dependent volumes or copied snapshots/AMIs
unless --force is passed. Prompts for confirmation unless --yes is passed.`,
Run: runimagesRemoveCmd,
}
var accountCmd = &cobra.Command{
Use: "account",
Short: "Manage Spinifex accounts",
@@ -199,13 +223,13 @@ spx admin images list
- fetches from remote endpoint for common/trusted images to bootstrap environment, or baked in from compile.
// If --name specified, download
spx admin images import --name debian-12-x86_64
spx admin images import --name debian-13-x86_64
// List available images
spx admin images list
// Manually import a path
spx admin images import --file /path/to/image --distro debian --version 12 --arch x86_64
spx admin images import --file /path/to/image --distro debian --version 13 --arch x86_64
-> x <-
*/
@@ -224,6 +248,7 @@ func init() {
adminCmd.AddCommand(imagesCmd)
imagesCmd.AddCommand(imagesImportCmd)
imagesCmd.AddCommand(imagesListCmd)
imagesCmd.AddCommand(imagesRemoveCmd)
adminCmd.AddCommand(accountCmd)
accountCmd.AddCommand(accountCreateCmd)
@@ -269,11 +294,14 @@ func init() {
adminInitCmd.Flags().String("external-mode", "", "External network mode: 'pool' (default when WAN detected) or '' (disabled)")
adminInitCmd.Flags().String("external-iface", "", "WAN NIC for br-external (auto-detected from default route)")
adminInitCmd.Flags().String("external-source", "", "Pool IP source: 'dhcp' (default when no --external-pool) or 'static' (uses --external-pool range)")
adminInitCmd.Flags().String("external-bind-bridge", "", "Linux bridge for upstream DHCP DORA (default 'br-wan' when --external-source=dhcp)")
adminInitCmd.Flags().String("external-pool", "", "External IP pool range as start-end (e.g., 192.168.1.150-192.168.1.250)")
adminInitCmd.Flags().String("external-gateway", "", "WAN gateway IP (auto-detected from default route)")
adminInitCmd.Flags().String("gateway-ip", "", "OVN gateway router's external IP for SNAT (default: pool range_start for pool mode, required for nat mode without DHCP)")
adminInitCmd.Flags().Int("external-prefix-len", 24, "External pool subnet prefix length (auto-detected)")
adminInitCmd.Flags().Bool("no-external", false, "Disable external networking (overlay-only, no internet for VMs)")
adminInitCmd.Flags().Bool("gpu-passthrough", false, "Enable VFIO GPU passthrough (sets gpu_passthrough = true in daemon config)")
adminInitCmd.Flags().Bool("ipsec", true, "Encrypt intra-AZ Geneve via OVN native IPsec (cluster-wide); disable only for trusted single-rack lab")
// Flags for admin join
adminJoinCmd.Flags().String("region", "ap-southeast-2", "Region for this node")
@@ -302,9 +330,17 @@ func init() {
imagesImportCmd.Flags().String("version", "", "Specified distro version (e.g 12)")
imagesImportCmd.Flags().String("arch", "", "Specified distro arch (e.g aarch64, arm64, x86_64)")
imagesImportCmd.Flags().String("platform", "Linux/UNIX", "Specified platform (e.g Linux/UNIX, Windows)")
imagesImportCmd.Flags().String("boot-mode", "", "Boot mode for the imported AMI (bios|uefi|uefi-preferred). Required with --file. Overrides the catalog value when used with --name.")
imagesImportCmd.Flags().StringSlice("tag", nil, "Tag to apply to the imported AMI as key=value (repeatable; e.g. --tag spinifex:managed-by=elbv2)")
imagesImportCmd.Flags().Bool("force", false, "Force command execution (overwrites existing files)")
imagesImportCmd.Flags().Bool("skip-verify", false, "Skip catalog-image checksum verification (INSECURE; operator assumes integrity responsibility)")
imagesRemoveCmd.Flags().String("image-id", "", "AMI ID to remove (required)")
imagesRemoveCmd.Flags().Bool("force", false, "Bypass dependency, ownership and config-corrupt checks (salvage mode)")
imagesRemoveCmd.Flags().Bool("yes", false, "Skip interactive confirmation prompt")
if err := imagesRemoveCmd.MarkFlagRequired("image-id"); err != nil {
panic(err)
}
}
func runimagesImportCmd(cmd *cobra.Command, args []string) {
@@ -374,6 +410,22 @@ func runimagesImportCmd(cmd *cobra.Command, args []string) {
}
}
// --file imports have no catalog metadata to inherit from, so the operator
// must declare the boot mode explicitly — guessing would silently produce
// a BIOS AMI from a UEFI-only image (or vice versa) and fail at launch.
// --name imports inherit from the catalog; the flag overrides when set.
bootModeFlag, _ := cmd.Flags().GetString("boot-mode")
if bootModeFlag != "" {
if !supportedBootModes[bootModeFlag] {
fmt.Fprintf(os.Stderr, "Unsupported --boot-mode %q (expected bios|uefi|uefi-preferred)\n", bootModeFlag)
os.Exit(1)
}
image.BootMode = bootModeFlag
} else if imageName == "" {
fmt.Fprintf(os.Stderr, "--boot-mode is required when importing via --file (expected bios|uefi|uefi-preferred)\n")
os.Exit(1)
}
// --tag k=v (repeatable) merges user-supplied tags into the AMI. Overrides
// catalog tags on key collision so operators can re-tag a known image.
tagFlags, _ := cmd.Flags().GetStringSlice("tag")
@@ -494,6 +546,9 @@ func runimagesImportCmd(cmd *cobra.Command, args []string) {
manifest.AMIMetadata.Virtualization = "hvm"
manifest.AMIMetadata.ImageOwnerAlias = "system"
manifest.AMIMetadata.VolumeSizeGiB = utils.SafeInt64ToUint64(imageStat.Size() / 1024 / 1024 / 1024)
manifest.AMIMetadata.BootMode = image.BootMode
manifest.AMIMetadata.Distro = image.Distro
manifest.AMIMetadata.DistroFamily = utils.DistroFamily(image.Distro)
// Copy catalog-provided tags (e.g. spinifex:managed-by for system AMIs)
// onto the imported AMI so the UI can filter them out.
@@ -548,6 +603,12 @@ func runimagesImportCmd(cmd *cobra.Command, args []string) {
Host: appConfig.Nodes[appConfig.Node].Predastore.Host,
}
mkey, err := utils.LoadViperblockMasterKey(appConfig.Nodes[appConfig.Node].Viperblock.EncryptionKeyFile)
if err != nil {
fmt.Fprintf(os.Stderr, "Could not load viperblock encryption key: %v\n", err)
os.Exit(1)
}
vbConfig := viperblock.VB{
VolumeName: volumeId,
VolumeSize: utils.SafeInt64ToUint64(imageStat.Size()),
@@ -557,7 +618,9 @@ func runimagesImportCmd(cmd *cobra.Command, args []string) {
Size: 0,
},
},
VolumeConfig: manifest,
VolumeConfig: manifest,
MasterKey: mkey,
EncryptionEnabled: mkey != nil,
}
err = v_utils.ImportDiskImage(&s3Config, &vbConfig, extractedImagePath)
@@ -572,6 +635,136 @@ func runimagesImportCmd(cmd *cobra.Command, args []string) {
fmt.Printf("✅ Image import complete. Image-ID (AMI): %s\n", volumeId)
}
func runimagesRemoveCmd(cmd *cobra.Command, args []string) {
imageID, _ := cmd.Flags().GetString("image-id")
force, _ := cmd.Flags().GetBool("force")
yes, _ := cmd.Flags().GetBool("yes")
cfgFile, _ := cmd.Flags().GetString("config")
if cfgFile == "" {
cfgFile = DefaultConfigFile()
}
appConfig, err := config.LoadConfig(cfgFile)
if err != nil {
fmt.Fprintln(os.Stderr, "Error loading config file:", err)
os.Exit(1)
}
node := appConfig.Nodes[appConfig.Node]
store := objectstore.NewS3ObjectStoreFromConfig(
node.Predastore.Host,
node.Predastore.Region,
node.Predastore.AccessKey,
node.Predastore.SecretKey,
)
bucket := node.Predastore.Bucket
preview, err := admin.PreviewRemoveSystemImage(store, bucket, imageID)
if err != nil {
fmt.Fprintln(os.Stderr, "Failed to inspect AMI:", err)
os.Exit(1)
}
// Print metadata block.
fmt.Println("About to remove system AMI:")
fmt.Println()
fmt.Printf(" Image ID: %s\n", preview.ImageID)
switch {
case !preview.ConfigPresent && !preview.ConfigCorrupt:
fmt.Println(" Name: <unknown — config.json missing>")
fmt.Println(" Owner: <unknown>")
case preview.ConfigCorrupt:
fmt.Println(" Name: <unknown — config.json corrupt>")
fmt.Println(" Owner: <unknown>")
default:
fmt.Printf(" Name: %s\n", preview.Name)
fmt.Printf(" Owner: %s\n", preview.Owner)
if !preview.Created.IsZero() {
fmt.Printf(" Created: %s\n", preview.Created.UTC().Format("2006-01-02T15:04:05Z"))
}
}
fmt.Printf(" Backing storage: %s/ (%d objects, %s)\n",
preview.ImageID, preview.AMIObjectCount, utils.HumanBytes(utils.SafeInt64ToUint64(preview.AMIBytesTotal)))
fmt.Printf(" %s/ (%d objects, %s)\n",
admin.SnapPrefix(preview.ImageID), preview.SnapObjectCount, utils.HumanBytes(utils.SafeInt64ToUint64(preview.SnapBytesTotal)))
fmt.Println()
// Account-owned guard before salvage / dependents — the AWS-flow hint is
// the most useful thing to surface for this kind of mistake.
if preview.ConfigPresent && !preview.IsSystemOwned && !force {
fmt.Fprintf(os.Stderr,
"Refusing to remove: %s is account-owned (%s).\n"+
"Use 'aws ec2 deregister-image --image-id %s' followed by 'aws ec2 delete-snapshot ...'.\n",
preview.ImageID, preview.Owner, preview.ImageID)
os.Exit(1)
}
if !preview.ConfigPresent && !force {
fmt.Fprintln(os.Stderr, "AMI config.json missing or corrupt; re-run with --force to salvage backing blocks.")
os.Exit(1)
}
if !preview.Dependents.Empty() && !force {
fmt.Fprintln(os.Stderr, "Refusing to remove: dependent resources reference this image.")
printDependents(os.Stderr, preview.Dependents)
fmt.Fprintln(os.Stderr, "Remove them first (e.g. 'aws ec2 terminate-instances', 'aws ec2 delete-snapshot', 'aws ec2 deregister-image') or re-run with --force.")
os.Exit(1)
}
if force && (!preview.ConfigPresent || !preview.Dependents.Empty()) {
fmt.Println("⚠️ --force: skipping dependency check and ownership check.")
if !preview.Dependents.Empty() {
printDependents(os.Stdout, preview.Dependents)
}
fmt.Println()
}
fmt.Println("This is permanent and cannot be undone.")
if !yes {
fmt.Print("Type 'yes' to proceed: ")
reader := bufio.NewReader(os.Stdin)
answer, _ := reader.ReadString('\n')
if strings.TrimSpace(answer) != "yes" {
fmt.Println("Aborted.")
return
}
}
res, err := admin.RemoveSystemImage(store, bucket, admin.RemoveImageOpts{
ImageID: imageID,
Force: force,
})
if err != nil {
fmt.Fprintln(os.Stderr, "Remove failed:", err)
os.Exit(1)
}
fmt.Printf("✅ Removed AMI %s (freed %s across %d objects).\n",
imageID, utils.HumanBytes(utils.SafeInt64ToUint64(res.BytesFreed)), res.ObjectsDeleted)
}
func printDependents(w io.Writer, d admin.Dependents) {
if len(d.Volumes) > 0 {
fmt.Fprintf(w, " Volumes (%d):\n", len(d.Volumes))
for _, v := range d.Volumes {
fmt.Fprintf(w, " - %s\n", v)
}
}
if len(d.Snapshots) > 0 {
fmt.Fprintf(w, " Snapshots (%d):\n", len(d.Snapshots))
for _, s := range d.Snapshots {
fmt.Fprintf(w, " - %s\n", s)
}
}
if len(d.AMIs) > 0 {
fmt.Fprintf(w, " AMIs (%d):\n", len(d.AMIs))
for _, a := range d.AMIs {
fmt.Fprintf(w, " - %s\n", a)
}
}
}
// List remote images available
func runimagesListCmd(cmd *cobra.Command, args []string) {
//fmt.Println(availableImages)
@@ -655,11 +848,14 @@ func runAdminInit(cmd *cobra.Command, args []string) {
externalMode, _ := cmd.Flags().GetString("external-mode")
externalIface, _ := cmd.Flags().GetString("external-iface")
externalSource, _ := cmd.Flags().GetString("external-source")
externalBindBridge, _ := cmd.Flags().GetString("external-bind-bridge")
externalPool, _ := cmd.Flags().GetString("external-pool")
externalGateway, _ := cmd.Flags().GetString("external-gateway")
externalPrefixLen, _ := cmd.Flags().GetInt("external-prefix-len")
gatewayIP, _ := cmd.Flags().GetString("gateway-ip")
noExternal, _ := cmd.Flags().GetBool("no-external")
gpuPassthrough, _ := cmd.Flags().GetBool("gpu-passthrough")
ipsecEnabled, _ := cmd.Flags().GetBool("ipsec")
// Fire telemetry in background (completes during init work, waited at end)
noTelemetry, _ := cmd.Flags().GetBool("no-telemetry")
@@ -709,9 +905,9 @@ func runAdminInit(cmd *cobra.Command, args []string) {
fmt.Printf(" %-14s %-18s %-20s %-16s %s\n", iface.Name, iface.IP, iface.Subnet, gw, strings.ToUpper(iface.Role))
}
if detected.LANCount == 0 {
fmt.Println("\n Mode: single-NIC (macvlan for external bridge)")
fmt.Println("\n Mode: single-NIC (veth-bridged external)")
} else {
fmt.Printf("\n Mode: %d LAN + 1 WAN (macvlan for external bridge)\n", detected.LANCount)
fmt.Printf("\n Mode: %d LAN + 1 WAN (veth-bridged external)\n", detected.LANCount)
}
// Apply auto-detected values when flags not explicitly set
@@ -726,13 +922,11 @@ func runAdminInit(cmd *cobra.Command, args []string) {
externalPrefixLen = detected.WAN.PrefixLen
}
// Default mode: always "pool" — with static range if --external-pool
// is given, otherwise with source=dhcp (gateway IP from router DHCP)
// Default mode: always "pool". Source defaults to "static"; if
// --external-pool is omitted the validator below will error with
// a SuggestPoolRange hint.
if externalMode == "" && !cmd.Flags().Changed("external-mode") {
externalMode = "pool"
if externalPool == "" && externalSource == "" {
externalSource = "dhcp"
}
}
}
}
@@ -744,25 +938,30 @@ func runAdminInit(cmd *cobra.Command, args []string) {
os.Exit(1)
}
if externalMode == "pool" {
// Resolve source: if not explicitly set, infer from whether a pool range was given
// Default source: dhcp when no --external-pool, else static.
if externalSource == "" {
if externalPool != "" {
externalSource = "static"
} else {
if externalPool == "" {
externalSource = "dhcp"
} else {
externalSource = "static"
}
}
if externalSource == "dhcp" {
// DHCP source: no static range needed, just gateway
if externalGateway == "" {
fmt.Fprintf(os.Stderr, "❌ Error: --external-gateway is required when --external-mode=pool\n")
switch externalSource {
case "dhcp":
if externalPool != "" {
fmt.Fprintf(os.Stderr, "❌ Error: --external-pool not allowed with --external-source=dhcp (addresses come from upstream DHCP server)\n")
os.Exit(1)
}
if externalBindBridge == "" {
externalBindBridge = "br-wan"
}
case "static":
if externalBindBridge != "" {
fmt.Fprintf(os.Stderr, "❌ Error: --external-bind-bridge only valid with --external-source=dhcp\n")
os.Exit(1)
}
} else {
// Static source: need pool range
if externalPool == "" {
fmt.Fprintf(os.Stderr, "❌ Error: --external-pool is required when --external-mode=pool (e.g., 192.168.1.150-192.168.1.250)\n")
fmt.Fprintf(os.Stderr, " Or use --external-source=dhcp to get IPs from router DHCP\n")
fmt.Fprintf(os.Stderr, "❌ Error: --external-pool is required with --external-source=static (e.g., 192.168.1.150-192.168.1.250)\n")
if detectedNet != nil && detectedNet.WAN != nil {
sugStart, sugEnd := admin.SuggestPoolRange(detectedNet.WAN)
fmt.Fprintf(os.Stderr, " Suggested: --external-pool=%s-%s\n", sugStart, sugEnd)
@@ -770,7 +969,7 @@ func runAdminInit(cmd *cobra.Command, args []string) {
os.Exit(1)
}
if externalGateway == "" {
fmt.Fprintf(os.Stderr, "❌ Error: --external-gateway is required when --external-mode=pool\n")
fmt.Fprintf(os.Stderr, "❌ Error: --external-gateway is required with --external-source=static\n")
os.Exit(1)
}
parts := strings.SplitN(externalPool, "-", 2)
@@ -779,6 +978,9 @@ func runAdminInit(cmd *cobra.Command, args []string) {
os.Exit(1)
}
poolStart, poolEnd = parts[0], parts[1]
default:
fmt.Fprintf(os.Stderr, "❌ Error: --external-source must be 'static' or 'dhcp', got: %s\n", externalSource)
os.Exit(1)
}
}
if externalGateway != "" && net.ParseIP(externalGateway) == nil {
@@ -799,10 +1001,6 @@ func runAdminInit(cmd *cobra.Command, args []string) {
}
}
// For pool/dhcp source, the gateway IP is obtained via DHCP on the
// macvlan/bridge interface (no static pool range or explicit gateway-ip).
useExternalDHCP := externalMode == "pool" && externalSource == "dhcp" && gatewayIP == ""
// Validate IP address format
if net.ParseIP(bindIP) == nil {
fmt.Fprintf(os.Stderr, "❌ Error: Invalid IP address for --bind: %s\n", bindIP)
@@ -901,6 +1099,16 @@ func runAdminInit(cmd *cobra.Command, args []string) {
fmt.Printf(" Bootstrap: %s\n", filepath.Join(bootstrapDir, "bootstrap.json"))
fmt.Printf(" System creds: %s\n", filepath.Join(configDir, "system-credentials.json"))
// Predastore encryption key is per-node and never transmitted; generate
// it locally now so the service has it on first start.
predastoreKeyPath, err := writePredastoreEncryptionKey(configDir)
if err != nil {
fmt.Fprintf(os.Stderr, "Error generating predastore encryption key: %v\n", err)
os.Exit(1)
}
fmt.Println("\n🔐 Generated predastore encryption key (per-node, never transmitted)")
fmt.Printf(" Key: %s\n", predastoreKeyPath)
fmt.Printf("\n🔑 Generated admin credentials (save these — they won't be shown again):\n")
fmt.Printf(" Access Key: %s\n", bootstrapResult.AdminAccessKey)
fmt.Printf(" Secret Key: %s\n", bootstrapResult.AdminSecretKey)
@@ -910,6 +1118,18 @@ func runAdminInit(cmd *cobra.Command, args []string) {
// Generate SSL certificates (with bind IP in SANs for multi-node support)
certPath := admin.GenerateCertificatesIfNeeded(configDir, force, bindIP)
// Generate per-node IPsec peer cert when cluster-wide IPsec is enabled
// (default true). Reuses the cluster CA — no intermediate strongSwan PKI.
if ipsecEnabled {
caCertPath := filepath.Join(configDir, "ca.pem")
caKeyPath := filepath.Join(configDir, "ca.key")
if err := admin.GenerateIPSecPeerCert(configDir, caCertPath, caKeyPath, node, bindIP); err != nil {
fmt.Fprintf(os.Stderr, "Error generating IPsec peer certificate: %v\n", err)
os.Exit(1)
}
fmt.Println("🔐 IPsec peer certificate generated (intra-AZ Geneve encryption ON)")
}
// Install CA certificate into system trust store
installCACertificate(filepath.Join(configDir, "ca.pem"))
@@ -931,30 +1151,32 @@ func runAdminInit(cmd *cobra.Command, args []string) {
isMultiNode := nodes >= 2
if isMultiNode {
// Build cluster-wide network config for propagation to joining nodes
var networkConfig *formation.NetworkConfig
// Build cluster-wide network config for propagation to joining nodes.
// Always emit so the IPSecEnabled flag reaches joiners even when
// external networking is disabled.
networkConfig := &formation.NetworkConfig{
IPSecEnabled: ipsecEnabled,
}
if externalMode != "" {
bootstrapVpcId := utils.GenerateResourceID("vpc")
bootstrapSubnetId := utils.GenerateResourceID("subnet")
bootstrapIgwId := utils.GenerateResourceID("igw")
networkConfig = &formation.NetworkConfig{
ExternalMode: externalMode,
ExternalDHCP: useExternalDHCP,
PoolName: "wan",
PoolSource: externalSource,
PoolStart: poolStart,
PoolEnd: poolEnd,
PoolGateway: externalGateway,
PoolGatewayIP: gatewayIP,
PoolPrefixLen: externalPrefixLen,
PoolDNSServers: dnsServers,
BootstrapAccountId: admin.DefaultAccountID(),
BootstrapVpcId: bootstrapVpcId,
BootstrapSubnetId: bootstrapSubnetId,
BootstrapIgwId: bootstrapIgwId,
BootstrapCidr: handlers_ec2_vpc.DefaultVPCCidr,
BootstrapSubnetCidr: handlers_ec2_vpc.DefaultSubnetCidr,
}
networkConfig.ExternalMode = externalMode
networkConfig.PoolName = "wan"
networkConfig.PoolSource = externalSource
networkConfig.PoolBindBridge = externalBindBridge
networkConfig.PoolStart = poolStart
networkConfig.PoolEnd = poolEnd
networkConfig.PoolGateway = externalGateway
networkConfig.PoolGatewayIP = gatewayIP
networkConfig.PoolPrefixLen = externalPrefixLen
networkConfig.PoolDNSServers = dnsServers
networkConfig.BootstrapAccountId = admin.DefaultAccountID()
networkConfig.BootstrapVpcId = bootstrapVpcId
networkConfig.BootstrapSubnetId = bootstrapSubnetId
networkConfig.BootstrapIgwId = bootstrapIgwId
networkConfig.BootstrapCidr = handlers_ec2_vpc.DefaultVPCCidr
networkConfig.BootstrapSubnetCidr = handlers_ec2_vpc.DefaultSubnetCidr
}
runAdminInitMultiNode(cmd, accessKey, secretKey, accountID, natsToken, clusterName,
@@ -980,8 +1202,8 @@ func runAdminInit(cmd *cobra.Command, args []string) {
var predastoreNodeID int
if predastoreNodesStr != "" {
ips := strings.Split(predastoreNodesStr, ",")
if len(ips) < 3 {
fmt.Fprintf(os.Stderr, "❌ Error: --predastore-nodes requires at least 3 IPs, got %d\n", len(ips))
if len(ips) < 2 {
fmt.Fprintf(os.Stderr, "❌ Error: --predastore-nodes requires at least 2 IPs, got %d\n", len(ips))
os.Exit(1)
}
@@ -1054,10 +1276,9 @@ func runAdminInit(cmd *cobra.Command, args []string) {
ExternalMode: externalMode,
ExternalIface: externalIface,
DhcpBindBridge: detectedDhcpBindBridge(detectedNet),
ExternalDHCP: useExternalDHCP,
PoolName: "wan",
PoolSource: externalSource,
PoolBindBridge: externalBindBridge,
PoolStart: poolStart,
PoolEnd: poolEnd,
PoolGateway: externalGateway,
@@ -1072,20 +1293,25 @@ func runAdminInit(cmd *cobra.Command, args []string) {
BootstrapIgwId: bootstrapIgwId,
BootstrapCidr: handlers_ec2_vpc.DefaultVPCCidr,
BootstrapSubnetCidr: handlers_ec2_vpc.DefaultSubnetCidr,
GPUPassthrough: gpuPassthrough,
IPSecEnabled: ipsecEnabled,
}
// Print external networking summary
if externalMode != "" {
fmt.Printf("\n📡 External networking: %s\n", externalMode)
fmt.Printf(" WAN interface: %s\n", externalIface)
if poolStart != "" {
switch externalSource {
case "static":
fmt.Printf(" Source: static (IP range)\n")
fmt.Printf(" IP pool: %s - %s\n", poolStart, poolEnd)
fmt.Printf(" ⚠️ Ensure %s-%s is excluded from your router's DHCP range.\n", poolStart, poolEnd)
} else if useExternalDHCP {
fmt.Printf(" Source: dhcp (from router DHCP)\n")
fmt.Println(" Gateway IP: DHCP (obtained during OVN setup)")
} else if gatewayIP != "" {
case "dhcp":
fmt.Printf(" Source: dhcp (upstream DHCP server)\n")
fmt.Printf(" Bind bridge: %s\n", externalBindBridge)
}
if gatewayIP != "" {
fmt.Printf(" Gateway IP: %s (static)\n", gatewayIP)
}
}
@@ -1098,6 +1324,20 @@ func runAdminInit(cmd *cobra.Command, args []string) {
finalizeNodeSetup(spxRoot, certPath, bootstrapResult.AdminAccessKey, bootstrapResult.AdminSecretKey, region, bindIP, advertiseIP)
// Write node.conf so spx admin banner works on source installs (not just ISO).
nodeHostname, _ := os.Hostname()
if nodeHostname == "" {
nodeHostname = node
}
nodeConfPath := filepath.Join(configDir, "node.conf")
if err := writeNodeConf(nodeConfPath, map[string]string{
"MANAGEMENT_IP": advertiseIP,
"MANAGEMENT_IFACE": "br-wan",
"NODE_HOSTNAME": nodeHostname,
}); err != nil {
fmt.Fprintf(os.Stderr, "⚠️ Warning: could not write %s: %v\n", nodeConfPath, err)
}
// Print success message
fmt.Println("\n🎉 Spinifex initialization complete!")
fmt.Println()
@@ -1153,6 +1393,17 @@ func runAdminInitMultiNode(cmd *cobra.Command, accessKey, secretKey, accountID,
fmt.Println("\n🔐 Generated IAM master key")
fmt.Printf(" Bootstrap: %s\n", filepath.Join(bootstrapDir, "bootstrap.json"))
// Predastore encryption key is per-node and never distributed via the
// formation server. Generate only the leader's own key here; each
// joiner generates its own during `spx admin join`.
predastoreKeyPath, err := writePredastoreEncryptionKey(configDir)
if err != nil {
fmt.Fprintf(os.Stderr, "❌ Error generating predastore encryption key: %v\n", err)
os.Exit(1)
}
fmt.Println("\n🔐 Generated predastore encryption key (per-node, never transmitted)")
fmt.Printf(" Key: %s\n", predastoreKeyPath)
// Read CA cert/key for distribution to joining nodes
caCertData, err := os.ReadFile(filepath.Join(configDir, "ca.pem"))
if err != nil {
@@ -1243,7 +1494,7 @@ func runAdminInitMultiNode(cmd *cobra.Command, accessKey, secretKey, accountID,
// Generate multi-node predastore config
var predastoreNodeID int
hasPredastoreConfig := len(predastoreNodes) >= 3
hasPredastoreConfig := len(predastoreNodes) >= 2
if hasPredastoreConfig {
predastoreContent, err := admin.GenerateMultiNodePredastoreConfig(predastoreMultiNodeTemplate, predastoreNodes, accessKey, secretKey, region, natsToken, configDir, bindIP)
if err != nil {
@@ -1532,7 +1783,7 @@ func runAdminJoin(cmd *cobra.Command, args []string) {
}
fmt.Printf(" Waiting for cluster formation... (%d/%d nodes joined)\n", statusResp.Joined, statusResp.Expected)
time.Sleep(2 * time.Second)
time.Sleep(500 * time.Millisecond)
}
fmt.Printf("✅ Cluster formation complete! (%d nodes)\n\n", statusResp.Expected)
@@ -1623,6 +1874,16 @@ func runAdminJoin(cmd *cobra.Command, args []string) {
fmt.Println("✅ IAM master key received from leader")
fmt.Printf("✅ Bootstrap file written: %s\n", filepath.Join(bootstrapDir, "bootstrap.json"))
// Predastore encryption key is per-node: generate locally rather than
// receiving from the leader. Each node only opens fragments it sealed
// itself, so there is no cluster-wide predastore key to share.
predastoreKeyPath, err := writePredastoreEncryptionKey(configDir)
if err != nil {
fmt.Fprintf(os.Stderr, "❌ Error generating predastore encryption key: %v\n", err)
os.Exit(1)
}
fmt.Printf("✅ Predastore encryption key generated: %s\n", predastoreKeyPath)
// Generate server cert signed by CA with this node's bind IP
if err := admin.GenerateServerCertOnly(configDir, bindIP); err != nil {
fmt.Fprintf(os.Stderr, "Error generating server certificate: %v\n", err)
@@ -1630,6 +1891,24 @@ func runAdminJoin(cmd *cobra.Command, args []string) {
}
fmt.Printf("✅ Server certificate generated with bind IP: %s\n\n", bindIP)
// Match the leader's intra-AZ IPsec posture: NetworkConfig.IPSecEnabled is
// authoritative. When the formation response omits NetworkConfig entirely
// (no current code path; defensive guard against future regressions) fall
// back to the AWS-parity default of ON.
ipsecEnabled := true
if statusResp.NetworkConfig != nil {
ipsecEnabled = statusResp.NetworkConfig.IPSecEnabled
}
if ipsecEnabled {
caCertPath := filepath.Join(configDir, "ca.pem")
caKeyPath := filepath.Join(configDir, "ca.key")
if err := admin.GenerateIPSecPeerCert(configDir, caCertPath, caKeyPath, node, bindIP); err != nil {
fmt.Fprintf(os.Stderr, "Error generating IPsec peer certificate: %v\n", err)
os.Exit(1)
}
fmt.Println("🔐 IPsec peer certificate generated (intra-AZ Geneve encryption ON)")
}
// Build cluster topology from formation data
clusterRoutes := formation.BuildClusterRoutes(statusResp.Nodes)
predastoreNodes := formation.BuildPredastoreNodes(statusResp.Nodes)
@@ -1646,7 +1925,7 @@ func runAdminJoin(cmd *cobra.Command, args []string) {
// Generate multi-node predastore config
var predastoreNodeID int
hasPredastoreConfig := len(predastoreNodes) >= 3
hasPredastoreConfig := len(predastoreNodes) >= 2
if hasPredastoreConfig {
predastoreContent, err := admin.GenerateMultiNodePredastoreConfig(predastoreMultiNodeTemplate, predastoreNodes, creds.AccessKey, creds.SecretKey, creds.Region, creds.NatsToken, configDir, bindIP)
@@ -2039,10 +2318,11 @@ func finalizeNodeSetup(dataDir, certPath, adminAccessKey, adminSecretKey, region
// applyNetworkConfig copies cluster-wide network settings from a formation
// NetworkConfig into ConfigSettings and auto-detects the local WAN interface.
func applyNetworkConfig(settings *admin.ConfigSettings, nc *formation.NetworkConfig) {
settings.IPSecEnabled = nc.IPSecEnabled
settings.ExternalMode = nc.ExternalMode
settings.ExternalDHCP = nc.ExternalDHCP
settings.PoolName = nc.PoolName
settings.PoolSource = nc.PoolSource
settings.PoolBindBridge = nc.PoolBindBridge
settings.PoolStart = nc.PoolStart
settings.PoolEnd = nc.PoolEnd
settings.PoolGateway = nc.PoolGateway
@@ -2061,7 +2341,6 @@ func applyNetworkConfig(settings *admin.ConfigSettings, nc *formation.NetworkCon
detected, err := admin.DetectNetwork()
if err == nil && detected.WAN != nil {
settings.ExternalIface = detected.WAN.Name
settings.DhcpBindBridge = detectedDhcpBindBridge(detected)
}
}
}
@@ -2094,6 +2373,27 @@ func writeBootstrapFiles(configDir, bootstrapDir string, masterKey []byte, acces
}, nil
}
// writePredastoreEncryptionKey generates a fresh 32-byte AES-256 master key
// for this node's predastore data dir and writes it to
// <configDir>/predastore/encryption.key with mode 0600. The key is per-node:
// every node generates its own at init/join time and never transmits it,
// because predastore only opens fragments on the node that sealed them.
func writePredastoreEncryptionKey(configDir string) (string, error) {
predastoreDir := filepath.Join(configDir, "predastore")
if err := os.MkdirAll(predastoreDir, 0750); err != nil {
return "", fmt.Errorf("create predastore config dir: %w", err)
}
key, err := handlers_iam.GenerateMasterKey()
if err != nil {
return "", fmt.Errorf("generate predastore encryption key: %w", err)
}
keyPath := filepath.Join(predastoreDir, "encryption.key")
if err := handlers_iam.SaveMasterKey(keyPath, key); err != nil {
return "", fmt.Errorf("save predastore encryption key: %w", err)
}
return keyPath, nil
}
// writeSystemCredentials writes the system access key to a plaintext JSON file.
// The daemon reads this at startup to inject credentials into ALB VM cloud-init
// for SigV4-authenticated communication with the AWS gateway.
@@ -2149,29 +2449,6 @@ func writeBootstrapFilesWithAdmin(configDir, bootstrapDir string, masterKey []by
return handlers_iam.SaveBootstrapData(filepath.Join(bootstrapDir, "bootstrap.json"), bd)
}
// detectedDhcpBindBridge returns the bridge name where the vpcd DHCP client
// should bind its AF_PACKET socket — i.e. the interface that physically sees
// LAN DHCP traffic.
//
// - Default route on a bridge (Linux or OVS, `br-*` prefix): return the
// bridge name verbatim. In veth mode this is the Linux bridge holding the
// WAN NIC; in direct mode this is the OVS bridge holding the WAN NIC.
// - Default route on a bare physical NIC: return "br-wan" as the name the
// installer will create.
//
// Never returns "br-ext". br-ext is the OVN-side bridge owned by
// setup-ovn.sh's ovn-bridge-mappings and never sees LAN DHCP frames.
func detectedDhcpBindBridge(detected *admin.DetectedNetwork) string {
if detected == nil || detected.WAN == nil {
return ""
}
name := detected.WAN.Name
if strings.HasPrefix(name, "br-") {
return name
}
return "br-wan"
}
// detectDNSServers auto-detects DNS servers from the host for the specified
// interface. Uses resolvectl (systemd-resolved) first, then falls back to
// /etc/resolv.conf. Returns up to 3 servers. Falls back to public DNS if none found.
@@ -2304,6 +2581,12 @@ func runAdminBanner(cmd *cobra.Command, _ []string) {
}
// Resolve current IP from the management interface at runtime.
// If node.conf is absent or has no MANAGEMENT_IFACE (source installs before
// the first spx admin init writes node.conf), fall back to br-wan which
// setup-ovn.sh always creates as the management bridge.
if iface == "" {
iface = "br-wan"
}
currentIP := resolveIfaceIP(iface)
if currentIP == "" {
currentIP = recordedIP // fall back to value recorded at install time
@@ -2331,17 +2614,17 @@ func runAdminBanner(cmd *cobra.Command, _ []string) {
}
banner := fmt.Sprintf(`
+----------------------------------------------------+
| Spinifex — Mulga Defense Corporation |
+----------------------------------------------------+
| Node: %-39s|
| Login: %-39s|
| Dashboard: %-39s|
| API: %-39s|
| SSH: %-39s|
+----------------------------------------------------+
| AWS credentials: cat ~/.aws/credentials |
+----------------------------------------------------+
+--------------------------------------------------------------+
| Spinifex — Mulga Defense Corporation |
+--------------------------------------------------------------+
| Node: %-49s|
| Login: %-49s|
| Dashboard: %-49s|
| API: %-49s|
| SSH: %-49s|
+--------------------------------------------------------------+
| AWS credentials: cat ~/.aws/credentials |
+--------------------------------------------------------------+
`,
hostname,
@@ -2351,6 +2634,8 @@ func runAdminBanner(cmd *cobra.Command, _ []string) {
"spinifex@"+currentIP,
)
banner += gpuBannerSection()
// Write to /etc/issue — displayed on the console before the login prompt.
// Overwrite entirely; this is a purpose-built appliance so we own this file.
if err := os.WriteFile("/etc/issue", []byte(banner), 0o644); err != nil {
@@ -2390,6 +2675,81 @@ func appendBannerToMotd(banner string) error {
return os.WriteFile(motdPath, []byte(base+sentinel+banner), 0o644)
}
// gpuBannerSection returns an optional banner box section describing GPU state.
// Returns "" when no GPU hardware is detected. Safe to call at boot before the
// daemon starts — all checks are sysfs/file reads, no NATS required.
func gpuBannerSection() string {
devices, err := gpu.Discover()
if err != nil || len(devices) == 0 {
return ""
}
iommuEntries, _ := os.ReadDir("/sys/kernel/iommu_groups/")
iommuActive := len(iommuEntries) > 0
_, vfioErr := os.Stat("/sys/module/vfio_pci")
vfioPresent := vfioErr == nil
passthroughEnabled := false
cfgPath := DefaultConfigFile()
if cfg, err := config.LoadConfig(cfgPath); err == nil {
if nodeCfg, ok := cfg.Nodes[cfg.Node]; ok {
passthroughEnabled = nodeCfg.Daemon.GPUPassthrough
}
}
models := gpuModelSummary(devices)
var statusLine, hintLine string
switch {
case passthroughEnabled:
statusLine = "Passthrough enabled"
case iommuActive && vfioPresent:
statusLine = "Ready to enable"
hintLine = "sudo spx admin gpu enable"
default:
statusLine = "Setup required"
hintLine = "sudo spx admin gpu setup"
}
const (
sep = " +--------------------------------------------------------------+\n"
maxVal = 55
)
if len([]rune(models)) > maxVal {
models = string([]rune(models)[:maxVal-3]) + "..."
}
section := sep +
fmt.Sprintf(" | GPU: %-55s|\n", models) +
fmt.Sprintf(" | %-55s|\n", statusLine)
if hintLine != "" {
section += fmt.Sprintf(" | %-55s|\n", hintLine)
}
section += sep + "\n"
return section
}
func gpuModelSummary(devices []gpu.GPUDevice) string {
counts := make(map[string]int)
var order []string
for _, d := range devices {
if counts[d.Model] == 0 {
order = append(order, d.Model)
}
counts[d.Model]++
}
var parts []string
for _, m := range order {
if n := counts[m]; n > 1 {
parts = append(parts, fmt.Sprintf("%dx %s", n, m))
} else {
parts = append(parts, m)
}
}
return strings.Join(parts, ", ")
}
// parseNodeConf reads a KEY=VALUE shell-format file and returns a map.
// Lines starting with # and blank lines are ignored.
func parseNodeConf(path string) map[string]string {
+803
View File
@@ -0,0 +1,803 @@
package cmd
import (
"encoding/json"
"fmt"
"os"
"os/exec"
"path/filepath"
"regexp"
"strings"
"time"
"github.com/mulgadc/spinifex/spinifex/admin"
"github.com/mulgadc/spinifex/spinifex/config"
"github.com/mulgadc/spinifex/spinifex/gpu"
"github.com/mulgadc/spinifex/spinifex/types"
"github.com/spf13/cobra"
"github.com/spf13/viper"
)
var adminGpuCmd = &cobra.Command{
Use: "gpu",
Short: "Manage GPU passthrough for a node",
}
var adminGpuStatusCmd = &cobra.Command{
Use: "status",
Short: "Show GPU hardware and passthrough state",
Run: runAdminGpuStatus,
}
var adminGpuEnableCmd = &cobra.Command{
Use: "enable",
Short: "Enable GPU passthrough on a node",
Run: runAdminGpuEnable,
}
var adminGpuDisableCmd = &cobra.Command{
Use: "disable",
Short: "Disable GPU passthrough on a node (blocked while GPU instances are running)",
Run: runAdminGpuDisable,
}
var adminGpuSetupCmd = &cobra.Command{
Use: "setup",
Short: "Configure this host for GPU passthrough (IOMMU, vfio-pci, nouveau blacklist)",
Long: `Idempotent host setup for GPU passthrough. Run once before a reboot to configure
GRUB, vfio-pci early binding, and the nouveau blacklist; then run again after the
reboot to verify bindings and enable GPU passthrough in the daemon.
Must be run as root.`,
Run: runAdminGpuSetup,
}
var adminGpuMigCmd = &cobra.Command{
Use: "mig",
Short: "Manage NVIDIA MIG partitioning on this node",
}
var adminGpuMigStatusCmd = &cobra.Command{
Use: "status",
Short: "Show MIG capability, mode, and slice state for all GPUs on this node",
Run: runAdminGpuMigStatus,
}
var adminGpuMigEnableCmd = &cobra.Command{
Use: "enable",
Short: "Enable MIG mode on all MIG-capable GPUs (or a specific one)",
Long: `Enable NVIDIA MIG mode on all MIG-capable GPUs (or a specific one).
Without --profile the daemon handles slice creation dynamically: each
RunInstances call for a mig.* instance type carves the right profile on
demand and destroys the slices when the last instance stops.
With --profile, slices are pre-carved immediately. The daemon recovers
these slices on restart and serves them as a static pool for that profile.
Must be run as root.`,
Run: runAdminGpuMigEnable,
}
var adminGpuMigDisableCmd = &cobra.Command{
Use: "disable",
Short: "Destroy all MIG instances and disable MIG mode",
Long: `Destroy all GPU instances and disable NVIDIA MIG mode on all MIG-capable
GPUs (or a specific one). Blocked while GPU instances are running.
Must be run as root.`,
Run: runAdminGpuMigDisable,
}
func init() {
adminCmd.AddCommand(adminGpuCmd)
adminGpuCmd.AddCommand(adminGpuStatusCmd)
adminGpuCmd.AddCommand(adminGpuEnableCmd)
adminGpuCmd.AddCommand(adminGpuDisableCmd)
adminGpuCmd.AddCommand(adminGpuSetupCmd)
adminGpuCmd.AddCommand(adminGpuMigCmd)
adminGpuMigCmd.AddCommand(adminGpuMigStatusCmd)
adminGpuMigCmd.AddCommand(adminGpuMigEnableCmd)
adminGpuMigCmd.AddCommand(adminGpuMigDisableCmd)
adminGpuStatusCmd.Flags().String("node", "", "Target node name (default: local node)")
adminGpuMigEnableCmd.Flags().String("profile", "", "MIG profile to pre-carve (e.g. \"1g.10gb\"); omit for fully dynamic slice management")
adminGpuMigEnableCmd.Flags().String("gpu", "", "PCI address of GPU to configure (default: all MIG-capable GPUs)")
adminGpuMigDisableCmd.Flags().String("gpu", "", "PCI address of GPU to configure (default: all MIG-capable GPUs)")
// enable, disable, setup, and mig subcommands write to the local spinifex.toml
// and signal the local daemon — they must be run directly on the target host.
}
// gpuNodeStatus queries NATS and returns the NodeStatusResponse for the target node.
func gpuNodeStatus(targetNode string) (*types.NodeStatusResponse, error) {
cfg, nc, err := loadConfigAndConnect()
if err != nil {
return nil, err
}
defer nc.Close()
if targetNode == "" {
targetNode = cfg.Node
}
responses, err := collectResponses(nc, "spinifex.node.status", 3*time.Second)
if err != nil {
return nil, fmt.Errorf("collect node status: %w", err)
}
for _, raw := range responses {
var resp types.NodeStatusResponse
if err := json.Unmarshal(raw, &resp); err != nil {
continue
}
if resp.Node == targetNode {
return &resp, nil
}
}
return nil, fmt.Errorf("node %q not found or not responding", targetNode)
}
func runAdminGpuStatus(cmd *cobra.Command, _ []string) {
targetNode, _ := cmd.Flags().GetString("node")
resp, err := gpuNodeStatus(targetNode)
if err != nil {
fmt.Fprintf(os.Stderr, "Error: %v\n", err)
os.Exit(1)
}
iommu := "unknown"
vfio := "unknown"
if resp.GPUCapable || len(resp.GPUModels) > 0 {
iommu = "active"
vfio = "loaded"
}
fmt.Printf("Node: %s\n", resp.Node)
if len(resp.GPUModels) > 0 {
fmt.Printf("GPU hardware: %s\n", strings.Join(resp.GPUModels, ", "))
} else {
fmt.Printf("GPU hardware: none detected\n")
}
fmt.Printf("IOMMU: %s\n", iommu)
fmt.Printf("vfio-pci: %s\n", vfio)
if resp.GPUPassthrough {
fmt.Printf("Passthrough: enabled\n")
fmt.Printf("GPU pool: %d/%d allocated\n", resp.AllocGPUs, resp.TotalGPUs)
var gpuTypes []string
for _, cap := range resp.InstanceTypes {
gpuTypes = append(gpuTypes, cap.Name)
}
if len(gpuTypes) > 0 {
fmt.Printf("Instance types: %s\n", strings.Join(gpuTypes, " "))
}
} else if resp.GPUCapable {
fmt.Printf("Passthrough: disabled\n")
fmt.Printf("Instance types: (none — run 'spx admin gpu enable' to activate)\n")
} else {
fmt.Printf("Passthrough: disabled\n")
fmt.Printf("Instance types: (prerequisites not met)\n")
}
}
// gpuToggle writes the TOML setting, sends SIGHUP, and polls until the daemon confirms the new state.
// enable/disable always operate on the local node; run the command directly on the target host.
func gpuToggle(_ *cobra.Command, enable bool) {
cfgPath := viper.GetString("config")
if cfgPath == "" {
cfgPath = DefaultConfigFile()
}
cfg, err := config.LoadConfig(cfgPath)
if err != nil {
fmt.Fprintf(os.Stderr, "Error loading config: %v\n", err)
os.Exit(1)
}
localNode := cfg.Node
// Check current state first.
resp, err := gpuNodeStatus(localNode)
if err != nil {
fmt.Fprintf(os.Stderr, "Error: %v\n", err)
os.Exit(1)
}
if enable {
if resp.GPUPassthrough {
fmt.Println("GPU passthrough is already enabled.")
return
}
if !resp.GPUCapable {
fmt.Fprintln(os.Stderr, "Error: prerequisites not met on this node.")
fmt.Fprintln(os.Stderr, " Run 'sudo spx admin gpu setup' to configure the host.")
os.Exit(1)
}
} else {
if !resp.GPUPassthrough {
fmt.Println("GPU passthrough is already disabled.")
return
}
if resp.AllocGPUs > 0 {
fmt.Fprintf(os.Stderr, "Error: %d GPU instance(s) are running. Terminate them first.\n", resp.AllocGPUs)
os.Exit(1)
}
}
// Write the TOML setting.
if err := admin.SetGPUPassthrough(cfgPath, localNode, enable); err != nil {
fmt.Fprintf(os.Stderr, "Error writing config: %v\n", err)
os.Exit(1)
}
// Signal the daemon to reload.
out, err := exec.Command("systemctl", "kill", "-s", "HUP", "spinifex-daemon").CombinedOutput()
if err != nil {
fmt.Fprintf(os.Stderr, "Error sending SIGHUP: %v\n%s\n", err, out)
os.Exit(1)
}
// Poll until the daemon confirms the new state.
action := "enable"
if !enable {
action = "disable"
}
fmt.Printf("Waiting for daemon to %s GPU passthrough", action)
deadline := time.Now().Add(30 * time.Second)
for time.Now().Before(deadline) {
time.Sleep(1 * time.Second)
fmt.Print(".")
r, err := gpuNodeStatus(localNode)
if err != nil {
continue
}
if r.GPUPassthrough == enable {
fmt.Println(" done.")
// Refresh the MOTD banner immediately so the login prompt
// reflects the new GPU passthrough state without requiring a reboot.
_ = exec.Command("spx", "admin", "banner", "--boot-check").Run()
runAdminGpuStatus(adminGpuStatusCmd, nil)
return
}
}
fmt.Println()
fmt.Fprintln(os.Stderr, "Timed out waiting for daemon. Check: journalctl -u spinifex-daemon -n 50")
os.Exit(1)
}
func runAdminGpuEnable(cmd *cobra.Command, _ []string) {
gpuToggle(cmd, true)
}
func runAdminGpuDisable(cmd *cobra.Command, _ []string) {
gpuToggle(cmd, false)
}
func runAdminGpuSetup(_ *cobra.Command, _ []string) {
if os.Getuid() != 0 {
fmt.Fprintln(os.Stderr, "Error: spx admin gpu setup must be run as root.")
os.Exit(1)
}
fmt.Println("==> Detecting GPU")
devices, err := gpu.Discover()
if err != nil {
fmt.Fprintf(os.Stderr, "GPU discovery failed: %v\n", err)
os.Exit(1)
}
if len(devices) == 0 {
fmt.Fprintln(os.Stderr, "No NVIDIA or AMD GPU found — is the card seated?")
os.Exit(1)
}
for _, d := range devices {
fmt.Printf(" %s - %s\n", d.PCIAddress, d.Model)
}
fmt.Println("==> Collecting PCI IDs for vfio-pci")
ids := gpuSetupCollectVFIOIDs(devices)
idsCSV := strings.Join(ids, ",")
fmt.Printf(" IDs: %s\n", idsCSV)
rebootNeeded := false
fmt.Println("==> Checking IOMMU")
iommuEntries, _ := os.ReadDir("/sys/kernel/iommu_groups/")
if len(iommuEntries) > 0 {
fmt.Println(" Active")
} else {
params := gpuSetupIOMMUParams()
changed, err := gpuSetupAddGRUBParams(params)
if err != nil {
fmt.Fprintf(os.Stderr, "Failed to update GRUB: %v\n", err)
os.Exit(1)
}
if changed {
fmt.Printf(" GRUB updated with: %s\n", params)
} else {
fmt.Println(" GRUB already has IOMMU params — refreshing")
}
ug := exec.Command("update-grub")
ug.Stdout, ug.Stderr = os.Stdout, os.Stderr
if err := ug.Run(); err != nil {
fmt.Fprintf(os.Stderr, "update-grub failed: %v\n", err)
os.Exit(1)
}
rebootNeeded = true
}
fmt.Println("==> Configuring vfio udev rule")
const vfioUdevRule = "/etc/udev/rules.d/99-spinifex-vfio.rules"
if _, err := os.Stat(vfioUdevRule); os.IsNotExist(err) {
rule := "SUBSYSTEM==\"vfio\", GROUP=\"spinifex\", MODE=\"0660\"\n"
if err := os.WriteFile(vfioUdevRule, []byte(rule), 0o644); err != nil {
fmt.Fprintf(os.Stderr, "Failed to write vfio udev rule: %v\n", err)
os.Exit(1)
}
fmt.Println(" Rule installed")
_ = exec.Command("udevadm", "control", "--reload-rules").Run()
_ = exec.Command("udevadm", "trigger", "--subsystem-match=vfio").Run()
} else {
fmt.Println(" Rule already present")
}
fmt.Println("==> Configuring nouveau blacklist")
const nouveauConf = "/etc/modprobe.d/blacklist-nouveau.conf"
if _, err := os.Stat(nouveauConf); os.IsNotExist(err) {
if err := os.WriteFile(nouveauConf, []byte("blacklist nouveau\noptions nouveau modeset=0\n"), 0o644); err != nil {
fmt.Fprintf(os.Stderr, "Failed to write nouveau blacklist: %v\n", err)
os.Exit(1)
}
fmt.Println(" nouveau blacklisted")
rebootNeeded = true
} else {
fmt.Println(" Already blacklisted")
}
fmt.Println("==> Configuring amdgpu blacklist")
const amdgpuConf = "/etc/modprobe.d/blacklist-amdgpu.conf"
hasAMD := false
for _, d := range devices {
if d.Vendor == gpu.VendorAMD {
hasAMD = true
break
}
}
if hasAMD {
if _, err := os.Stat(amdgpuConf); os.IsNotExist(err) {
if err := os.WriteFile(amdgpuConf, []byte("blacklist amdgpu\n"), 0o644); err != nil {
fmt.Fprintf(os.Stderr, "Failed to write amdgpu blacklist: %v\n", err)
os.Exit(1)
}
fmt.Println(" amdgpu blacklisted")
rebootNeeded = true
} else {
fmt.Println(" Already blacklisted")
}
} else {
fmt.Println(" No AMD GPUs — skipping")
}
fmt.Println("==> Configuring vfio-pci early binding")
const vfioPCIConf = "/etc/modprobe.d/vfio-pci.conf"
existing, _ := os.ReadFile(vfioPCIConf)
if !strings.Contains(string(existing), "ids="+idsCSV) {
if err := os.WriteFile(vfioPCIConf, []byte("options vfio-pci ids="+idsCSV+"\n"), 0o644); err != nil {
fmt.Fprintf(os.Stderr, "Failed to write vfio-pci.conf: %v\n", err)
os.Exit(1)
}
fmt.Printf(" vfio-pci.conf written (ids=%s)\n", idsCSV)
rebootNeeded = true
} else {
fmt.Printf(" Already configured for %s\n", idsCSV)
}
const initramfsModules = "/etc/initramfs-tools/modules"
modData, _ := os.ReadFile(initramfsModules)
if !strings.Contains(string(modData), "vfio_pci") {
f, err := os.OpenFile(initramfsModules, os.O_APPEND|os.O_WRONLY|os.O_CREATE, 0o644)
if err != nil {
fmt.Fprintf(os.Stderr, "Failed to open initramfs modules: %v\n", err)
os.Exit(1)
}
_, werr := fmt.Fprint(f, "\n# vfio early binding for GPU passthrough\nvfio\nvfio_iommu_type1\nvfio_pci\n")
f.Close()
if werr != nil {
fmt.Fprintf(os.Stderr, "Failed to write initramfs modules: %v\n", werr)
os.Exit(1)
}
fmt.Println(" vfio modules added to initramfs")
rebootNeeded = true
} else {
fmt.Println(" vfio modules already in initramfs")
}
if rebootNeeded {
fmt.Println("==> Updating initramfs")
ui := exec.Command("update-initramfs", "-u")
ui.Stdout, ui.Stderr = os.Stdout, os.Stderr
if err := ui.Run(); err != nil {
fmt.Fprintf(os.Stderr, "update-initramfs failed: %v\n", err)
os.Exit(1)
}
fmt.Println("\nSetup complete — reboot required.")
fmt.Println(" sudo reboot")
fmt.Println(" Then run: sudo spx admin gpu enable")
return
}
fmt.Println("==> Verifying vfio-pci module")
if _, err := os.Stat("/sys/module/vfio_pci"); os.IsNotExist(err) {
fmt.Fprintln(os.Stderr, "vfio_pci not loaded — check: journalctl -b | grep vfio")
os.Exit(1)
}
fmt.Println(" Loaded")
fmt.Println("==> Verifying GPU driver binding")
for _, d := range devices {
current, err := gpu.CurrentDriver(d.PCIAddress)
if err != nil {
fmt.Fprintf(os.Stderr, "Cannot read driver for %s: %v\n", d.PCIAddress, err)
os.Exit(1)
}
if current == "vfio-pci" {
fmt.Printf(" %s → vfio-pci\n", d.PCIAddress)
continue
}
if current != "" {
// Bound to native driver — blacklist/initramfs changes may not have taken effect.
fmt.Fprintf(os.Stderr, "%s is bound to %q, not vfio-pci — reboot may be required\n", d.PCIAddress, current)
fmt.Fprintf(os.Stderr, " Check: ls -la /sys/bus/pci/devices/%s/driver\n", d.PCIAddress)
os.Exit(1)
}
// Device is unbound (ids= did not auto-claim it) — bind explicitly via driver_override.
fmt.Printf(" %s unbound — binding to vfio-pci\n", d.PCIAddress)
if _, err := gpu.BindVFIO(d.PCIAddress); err != nil {
fmt.Fprintf(os.Stderr, "Failed to bind %s to vfio-pci: %v\n", d.PCIAddress, err)
fmt.Fprintf(os.Stderr, " Check: ls -la /sys/bus/pci/devices/%s/driver\n", d.PCIAddress)
os.Exit(1)
}
fmt.Printf(" %s → vfio-pci\n", d.PCIAddress)
}
fmt.Println("==> Enabling GPU passthrough")
gpuToggle(nil, true)
}
func runAdminGpuMigStatus(_ *cobra.Command, _ []string) {
devices, err := gpu.Discover()
if err != nil {
fmt.Fprintf(os.Stderr, "GPU discovery failed: %v\n", err)
os.Exit(1)
}
if len(devices) == 0 {
fmt.Println("No GPUs detected on this node.")
return
}
anyMIG := false
for _, d := range devices {
if d.MIGCapable {
anyMIG = true
}
migMode := "N/A"
if d.MIGCapable {
if d.MIGEnabled {
migMode = "enabled"
} else {
migMode = "disabled"
}
}
fmt.Printf("GPU: %s\n", d.PCIAddress)
fmt.Printf(" Model: %s\n", d.Model)
fmt.Printf(" MIG capable: %v\n", d.MIGCapable)
fmt.Printf(" MIG mode: %s\n", migMode)
if d.MIGEnabled {
instances, listErr := gpu.ListInstances(d.PCIAddress)
if listErr != nil {
fmt.Printf(" Slices: (error: %v)\n", listErr)
} else {
fmt.Printf(" Slices: %d\n", len(instances))
for _, inst := range instances {
fmt.Printf(" GI %d: %-12s mdev: %s\n",
inst.GIID, inst.Profile.Name, inst.MdevPath)
}
}
}
fmt.Println()
}
if !anyMIG {
fmt.Println("No MIG-capable GPUs found. MIG requires an NVIDIA A100, A30, or H100 GPU.")
}
}
func runAdminGpuMigEnable(cmd *cobra.Command, _ []string) {
if os.Getuid() != 0 {
fmt.Fprintln(os.Stderr, "Error: spx admin gpu mig enable must be run as root.")
os.Exit(1)
}
profileName, _ := cmd.Flags().GetString("profile")
targetPCI, _ := cmd.Flags().GetString("gpu")
cfgPath := viper.GetString("config")
if cfgPath == "" {
cfgPath = DefaultConfigFile()
}
cfg, err := config.LoadConfig(cfgPath)
if err != nil {
fmt.Fprintf(os.Stderr, "Error loading config: %v\n", err)
os.Exit(1)
}
resp, err := gpuNodeStatus(cfg.Node)
if err != nil {
fmt.Fprintf(os.Stderr, "Error: %v\n", err)
os.Exit(1)
}
if resp.AllocGPUs > 0 {
fmt.Fprintf(os.Stderr, "Error: %d GPU instance(s) are running. Terminate them first.\n", resp.AllocGPUs)
os.Exit(1)
}
devices, err := gpu.Discover()
if err != nil {
fmt.Fprintf(os.Stderr, "GPU discovery failed: %v\n", err)
os.Exit(1)
}
targets := migFilterTargets(devices, targetPCI)
if len(targets) == 0 {
if targetPCI != "" {
fmt.Fprintf(os.Stderr, "Error: no MIG-capable GPU found at PCI address %s\n", targetPCI)
} else {
fmt.Fprintln(os.Stderr, "Error: no MIG-capable GPUs found. MIG requires an NVIDIA A100, A30, or H100 GPU.")
}
os.Exit(1)
}
for _, d := range targets {
fmt.Printf("==> Configuring MIG on %s (%s)\n", d.PCIAddress, d.Model)
if !d.MIGEnabled {
fmt.Println(" Enabling MIG mode...")
if err := gpu.EnableMIGMode(d.PCIAddress); err != nil {
fmt.Fprintf(os.Stderr, " Error: %v\n", err)
os.Exit(1)
}
} else {
fmt.Println(" MIG mode already enabled")
}
if profileName == "" {
// Dynamic mode: the daemon carves slices on demand at RunInstances time.
// Destroy any pre-carved slices so the daemon starts with a free GPU.
existing, _ := gpu.ListInstances(d.PCIAddress)
if len(existing) > 0 {
fmt.Printf(" Destroying %d pre-carved instance(s) so daemon can manage slices dynamically...\n", len(existing))
if err := gpu.DestroyAllInstances(d.PCIAddress); err != nil {
fmt.Fprintf(os.Stderr, " Error: %v\n", err)
os.Exit(1)
}
}
fmt.Println(" Dynamic slice management enabled — use 'mig.*' instance types at RunInstances time.")
continue
}
// Static pre-carve: create a fixed set of slices for the given profile.
profiles, err := gpu.ListProfiles(d.PCIAddress)
if err != nil {
fmt.Fprintf(os.Stderr, " Error listing profiles: %v\n", err)
os.Exit(1)
}
var selected *gpu.MIGProfile
for i, p := range profiles {
if p.Name == profileName {
selected = &profiles[i]
break
}
}
if selected == nil {
names := make([]string, len(profiles))
for i, p := range profiles {
names[i] = p.Name
}
fmt.Fprintf(os.Stderr, " Error: profile %q not found. Available: %s\n",
profileName, strings.Join(names, ", "))
os.Exit(1)
}
existing, _ := gpu.ListInstances(d.PCIAddress)
if len(existing) > 0 {
fmt.Printf(" Destroying %d existing instance(s)...\n", len(existing))
if err := gpu.DestroyAllInstances(d.PCIAddress); err != nil {
fmt.Fprintf(os.Stderr, " Error: %v\n", err)
os.Exit(1)
}
}
fmt.Printf(" Creating MIG instances (profile: %s)...\n", selected.Name)
instances, err := gpu.CreateInstances(d.PCIAddress, *selected)
if err != nil {
fmt.Fprintf(os.Stderr, " Error: %v\n", err)
os.Exit(1)
}
fmt.Printf(" Created %d instance(s)\n", len(instances))
for _, inst := range instances {
fmt.Printf(" GI %d: %s mdev: %s\n", inst.GIID, inst.Profile.Name, inst.MdevPath)
}
}
migReloadDaemon()
fmt.Println("MIG enabled. Run 'spx admin gpu mig status' to verify.")
}
func runAdminGpuMigDisable(cmd *cobra.Command, _ []string) {
if os.Getuid() != 0 {
fmt.Fprintln(os.Stderr, "Error: spx admin gpu mig disable must be run as root.")
os.Exit(1)
}
targetPCI, _ := cmd.Flags().GetString("gpu")
cfgPath := viper.GetString("config")
if cfgPath == "" {
cfgPath = DefaultConfigFile()
}
cfg, err := config.LoadConfig(cfgPath)
if err != nil {
fmt.Fprintf(os.Stderr, "Error loading config: %v\n", err)
os.Exit(1)
}
resp, err := gpuNodeStatus(cfg.Node)
if err != nil {
fmt.Fprintf(os.Stderr, "Error: %v\n", err)
os.Exit(1)
}
if resp.AllocGPUs > 0 {
fmt.Fprintf(os.Stderr, "Error: %d GPU instance(s) are running. Terminate them first.\n", resp.AllocGPUs)
os.Exit(1)
}
devices, err := gpu.Discover()
if err != nil {
fmt.Fprintf(os.Stderr, "GPU discovery failed: %v\n", err)
os.Exit(1)
}
targets := migFilterTargets(devices, targetPCI)
if len(targets) == 0 {
if targetPCI != "" {
fmt.Fprintf(os.Stderr, "Error: no MIG-capable GPU found at PCI address %s\n", targetPCI)
} else {
fmt.Fprintln(os.Stderr, "Error: no MIG-capable GPUs found on this node.")
}
os.Exit(1)
}
for _, d := range targets {
fmt.Printf("==> Disabling MIG on %s (%s)\n", d.PCIAddress, d.Model)
if !d.MIGEnabled {
fmt.Println(" MIG mode not active — skipping")
continue
}
fmt.Println(" Destroying all GPU instances...")
if err := gpu.DestroyAllInstances(d.PCIAddress); err != nil {
fmt.Fprintf(os.Stderr, " Error: %v\n", err)
os.Exit(1)
}
fmt.Println(" Disabling MIG mode...")
if err := gpu.DisableMIGMode(d.PCIAddress); err != nil {
fmt.Fprintf(os.Stderr, " Error: %v\n", err)
os.Exit(1)
}
}
fmt.Println("==> Clearing mig_profile from config...")
if err := admin.SetMIGProfile(cfgPath, cfg.Node, ""); err != nil {
fmt.Fprintf(os.Stderr, "Error writing config: %v\n", err)
os.Exit(1)
}
migReloadDaemon()
fmt.Println("MIG disabled. GPUs will operate in whole-GPU passthrough mode.")
}
// migFilterTargets returns all MIG-capable GPUs, optionally filtered to a
// specific PCI address.
func migFilterTargets(devices []gpu.GPUDevice, targetPCI string) []gpu.GPUDevice {
var out []gpu.GPUDevice
for _, d := range devices {
if !d.MIGCapable {
continue
}
if targetPCI != "" && d.PCIAddress != targetPCI {
continue
}
out = append(out, d)
}
return out
}
// migReloadDaemon sends SIGHUP to spinifex-daemon so it picks up the updated
// MIG configuration without a full restart.
func migReloadDaemon() {
out, err := exec.Command("systemctl", "kill", "-s", "HUP", "spinifex-daemon").CombinedOutput()
if err != nil {
fmt.Fprintf(os.Stderr, "Warning: failed to signal daemon: %v\n%s\n", err, out)
fmt.Fprintln(os.Stderr, "Restart the daemon manually: sudo systemctl restart spinifex-daemon")
return
}
fmt.Println("==> Daemon signalled (SIGHUP) — MIG pool will be rebuilt on next request.")
}
// gpuSetupCollectVFIOIDs collects vendor:device PCI ID pairs for each GPU and
// all sibling PCI functions on the same device slot (e.g. GPU + HDMI audio).
// All siblings must bind to vfio-pci together for IOMMU group isolation.
func gpuSetupCollectVFIOIDs(devices []gpu.GPUDevice) []string {
seen := make(map[string]bool)
var ids []string
for _, d := range devices {
dot := strings.LastIndex(d.PCIAddress, ".")
if dot < 0 {
continue
}
prefix := d.PCIAddress[:dot]
matches, _ := filepath.Glob("/sys/bus/pci/devices/" + prefix + ".*")
for _, m := range matches {
vb, err1 := os.ReadFile(m + "/vendor")
db, err2 := os.ReadFile(m + "/device")
if err1 != nil || err2 != nil {
continue
}
v := strings.TrimPrefix(strings.ToLower(strings.TrimSpace(string(vb))), "0x")
dv := strings.TrimPrefix(strings.ToLower(strings.TrimSpace(string(db))), "0x")
id := v + ":" + dv
if !seen[id] {
seen[id] = true
ids = append(ids, id)
}
}
}
return ids
}
func gpuSetupIOMMUParams() string {
data, _ := os.ReadFile("/proc/cpuinfo")
if strings.Contains(string(data), "GenuineIntel") {
return "intel_iommu=on iommu=pt"
}
return "amd_iommu=on iommu=pt"
}
// gpuSetupAddGRUBParams appends iommu kernel params to GRUB_CMDLINE_LINUX_DEFAULT.
// Returns (true, nil) if the file was modified, (false, nil) if params were already present.
func gpuSetupAddGRUBParams(params string) (bool, error) {
const grubFile = "/etc/default/grub"
data, err := os.ReadFile(grubFile)
if err != nil {
return false, fmt.Errorf("read %s: %w", grubFile, err)
}
content := string(data)
if strings.Contains(content, "intel_iommu=on") || strings.Contains(content, "amd_iommu=on") {
return false, nil
}
re := regexp.MustCompile(`(GRUB_CMDLINE_LINUX_DEFAULT="[^"]*)"`)
updated := re.ReplaceAllStringFunc(content, func(match string) string {
groups := re.FindStringSubmatch(match)
if len(groups) < 2 {
return match
}
return groups[1] + " " + params + `"`
})
if updated == content {
return false, fmt.Errorf("GRUB_CMDLINE_LINUX_DEFAULT not found in %s", grubFile)
}
if err := os.WriteFile(grubFile, []byte(updated), 0o644); err != nil {
return false, fmt.Errorf("write %s: %w", grubFile, err)
}
return true, nil
}
+171 -47
View File
@@ -22,7 +22,7 @@ import (
func TestPrintChecksumError(t *testing.T) {
image := utils.Images{Checksum: "https://example.com/SUMS", ChecksumType: "sha512"}
const imageFile = "/var/lib/img.tar.xz"
const imageName = "debian-12-x86_64"
const imageName = "debian-13-x86_64"
errs := []error{
fmt.Errorf("%w: expected abc got def", utils.ErrChecksumMismatch),
@@ -142,49 +142,6 @@ func TestSpinifexTomlTemplate_AdvertiseOmittedWhenEmpty(t *testing.T) {
assert.NotContains(t, string(data), "advertise =")
}
// detectedDhcpBindBridge must return the default-route interface name verbatim
// when it's a bridge (Linux or OVS, br-* prefix). The old detectedWanBridge()
// returned hardcoded "br-ext" for Linux bridges — that value broke DHCP on
// consumer-router LANs because br-ext never sees LAN DHCP traffic (mulga-998).
func TestDetectedDhcpBindBridge(t *testing.T) {
tests := []struct {
name string
detected *admin.DetectedNetwork
want string
}{
{
name: "Linux bridge default route returns bridge name (not 'br-ext')",
detected: &admin.DetectedNetwork{WAN: &admin.DetectedInterface{Name: "br-wan"}},
want: "br-wan",
},
{
name: "OVS bridge default route returned verbatim",
detected: &admin.DetectedNetwork{WAN: &admin.DetectedInterface{Name: "br-ext"}},
want: "br-ext",
},
{
name: "physical NIC defaults to 'br-wan' (bridge the installer creates)",
detected: &admin.DetectedNetwork{WAN: &admin.DetectedInterface{Name: "enp0s3"}},
want: "br-wan",
},
{
name: "nil DetectedNetwork",
detected: nil,
want: "",
},
{
name: "DetectedNetwork with nil WAN",
detected: &admin.DetectedNetwork{},
want: "",
},
}
for _, tt := range tests {
t.Run(tt.name, func(t *testing.T) {
assert.Equal(t, tt.want, detectedDhcpBindBridge(tt.detected))
})
}
}
// Legacy `wan_bridge` TOML key must fail-start vpcd with guidance, not silently
// alias (per mulga-998 D3). Prevents the footgun where operators inherited the
// old key pointing at 'br-ext' and got broken DHCP on veth-mode hosts.
@@ -206,8 +163,8 @@ wan_bridge = "br-ext"
err := checkLegacyWanBridgeKey("node1", cfgPath)
require.Error(t, err)
assert.Contains(t, err.Error(), "dhcp_bind_bridge")
assert.Contains(t, err.Error(), "wan_bridge")
assert.Contains(t, err.Error(), "Remove")
}
func TestCheckLegacyWanBridgeKey_EnvVarRejected(t *testing.T) {
@@ -218,7 +175,7 @@ func TestCheckLegacyWanBridgeKey_EnvVarRejected(t *testing.T) {
err := checkLegacyWanBridgeKey("node1", "/tmp/unused.toml")
require.Error(t, err)
assert.Contains(t, err.Error(), "SPINIFEX_VPCD_WAN_BRIDGE")
assert.Contains(t, err.Error(), "dhcp_bind_bridge")
assert.Contains(t, err.Error(), "Remove")
}
func TestCheckLegacyWanBridgeKey_CleanConfigPasses(t *testing.T) {
@@ -228,7 +185,7 @@ func TestCheckLegacyWanBridgeKey_CleanConfigPasses(t *testing.T) {
node = "node1"
[nodes.node1.vpcd]
ovn_nb_addr = "tcp:127.0.0.1:6641"
dhcp_bind_bridge = "br-wan"
external_interface = "enp0s3"
`), 0o644))
viper.Reset()
@@ -262,3 +219,170 @@ func TestPredastoreMultinodeTemplate_NatsURLLoopbackShim(t *testing.T) {
require.NoError(t, err)
assert.Contains(t, content2, `nats_url = "nats://10.11.12.1:4222"`)
}
// writePredastoreEncryptionKey is called from both `spx admin init` and `spx
// admin join`; both depend on it producing a 32-byte file at 0600 in the
// expected layout. Predastore's keyfile loader rejects anything that isn't
// exactly that, so a regression here would break service startup on every
// node.
func TestWritePredastoreEncryptionKey(t *testing.T) {
configDir := t.TempDir()
keyPath, err := writePredastoreEncryptionKey(configDir)
require.NoError(t, err)
assert.Equal(t, filepath.Join(configDir, "predastore", "encryption.key"), keyPath)
info, err := os.Stat(keyPath)
require.NoError(t, err)
assert.Equal(t, int64(32), info.Size(), "predastore master key must be exactly 32 bytes")
assert.Equal(t, os.FileMode(0600), info.Mode().Perm(), "predastore master key must be mode 0600")
// Per-node invariant: two successive calls (on what would be two
// different nodes) must produce different key material. If they ever
// returned the same bytes we'd have silently lost the per-node
// blast-radius property.
configDir2 := t.TempDir()
keyPath2, err := writePredastoreEncryptionKey(configDir2)
require.NoError(t, err)
key1, err := os.ReadFile(keyPath)
require.NoError(t, err)
key2, err := os.ReadFile(keyPath2)
require.NoError(t, err)
assert.NotEqual(t, key1, key2, "per-node keys must differ")
}
// Joiners run `spx admin join` against a configDir that doesn't yet contain
// a predastore/ subdir. The helper must create it (predastore subdir is
// owned by spinifex-storage in prod, but the helper just needs the dir to
// exist).
func TestWritePredastoreEncryptionKey_CreatesMissingDir(t *testing.T) {
configDir := t.TempDir()
// Don't pre-create the predastore subdir — simulate a fresh joiner.
keyPath, err := writePredastoreEncryptionKey(configDir)
require.NoError(t, err)
dirInfo, err := os.Stat(filepath.Dir(keyPath))
require.NoError(t, err)
assert.True(t, dirInfo.IsDir())
}
// TestImagesRemoveCmd_FlagSchema guards the public flag surface for
// `spx admin images remove`. --image-id is required so cobra rejects a bare
// invocation; --force/--yes default to false.
func TestImagesRemoveCmd_FlagSchema(t *testing.T) {
imageIDFlag := imagesRemoveCmd.Flags().Lookup("image-id")
require.NotNil(t, imageIDFlag, "--image-id must be defined")
assert.Equal(t, []string{"true"}, imageIDFlag.Annotations[cobraRequiredAnnotation],
"--image-id must be marked required")
forceFlag := imagesRemoveCmd.Flags().Lookup("force")
require.NotNil(t, forceFlag)
assert.Equal(t, "false", forceFlag.DefValue)
yesFlag := imagesRemoveCmd.Flags().Lookup("yes")
require.NotNil(t, yesFlag)
assert.Equal(t, "false", yesFlag.DefValue)
}
// cobraRequiredAnnotation is the annotation key cobra uses to mark required flags.
const cobraRequiredAnnotation = "cobra_annotation_bash_completion_one_required_flag"
// `spx admin init` must expose --external-source and --external-bind-bridge so
// operators can pick the DHCP path for [[network.external_pools]].
func TestAdminInitCmd_ExternalDHCPFlagSchema(t *testing.T) {
sourceFlag := adminInitCmd.Flags().Lookup("external-source")
require.NotNil(t, sourceFlag, "--external-source must be defined")
assert.Equal(t, "", sourceFlag.DefValue)
bindFlag := adminInitCmd.Flags().Lookup("external-bind-bridge")
require.NotNil(t, bindFlag, "--external-bind-bridge must be defined")
assert.Equal(t, "", bindFlag.DefValue)
poolFlag := adminInitCmd.Flags().Lookup("external-pool")
require.NotNil(t, poolFlag)
assert.Equal(t, "", poolFlag.DefValue)
}
// DHCP-sourced pool must emit source + bind_bridge into spinifex.toml so the
// daemon's validator and vpcd's DHCPManager find the bridge they DORA on.
func TestSpinifexTomlTemplate_ExternalPoolDHCPSource(t *testing.T) {
dir := t.TempDir()
path := filepath.Join(dir, "spinifex.toml")
settings := admin.ConfigSettings{
Node: "node1",
Az: "ap-southeast-2a",
Port: "4432",
Region: "ap-southeast-2",
BindIP: "10.11.12.1",
ConfigDir: dir,
OVNNBAddr: "tcp:127.0.0.1:6641",
OVNSBAddr: "tcp:127.0.0.1:6642",
ExternalMode: "pool",
ExternalIface: "eth0",
PoolName: "wan",
PoolSource: "dhcp",
PoolBindBridge: "br-wan",
PoolPrefixLen: 24,
}
require.NoError(t, admin.GenerateConfigFile(path, spinifexTomlTemplate, settings))
data, err := os.ReadFile(path)
require.NoError(t, err)
content := string(data)
assert.Contains(t, content, `source = "dhcp"`)
assert.Contains(t, content, `bind_bridge = "br-wan"`)
assert.NotContains(t, content, "range_start", "dhcp pool must not emit range_start")
assert.NotContains(t, content, "range_end", "dhcp pool must not emit range_end")
assert.NotContains(t, content, "gateway =", "gateway omitted for dhcp pool (discovered from OFFER)")
}
// Static-sourced pool must not emit bind_bridge — the validator rejects it.
func TestSpinifexTomlTemplate_ExternalPoolStaticSource(t *testing.T) {
dir := t.TempDir()
path := filepath.Join(dir, "spinifex.toml")
settings := admin.ConfigSettings{
Node: "node1",
Az: "ap-southeast-2a",
Port: "4432",
Region: "ap-southeast-2",
BindIP: "10.11.12.1",
ConfigDir: dir,
OVNNBAddr: "tcp:127.0.0.1:6641",
OVNSBAddr: "tcp:127.0.0.1:6642",
ExternalMode: "pool",
ExternalIface: "eth0",
PoolName: "wan",
PoolSource: "static",
PoolStart: "192.168.1.150",
PoolEnd: "192.168.1.250",
PoolGateway: "192.168.1.1",
PoolPrefixLen: 24,
}
require.NoError(t, admin.GenerateConfigFile(path, spinifexTomlTemplate, settings))
data, err := os.ReadFile(path)
require.NoError(t, err)
content := string(data)
assert.Contains(t, content, `source = "static"`)
assert.NotContains(t, content, "bind_bridge", "static pool must not emit bind_bridge")
assert.Contains(t, content, `range_start = "192.168.1.150"`)
assert.Contains(t, content, `gateway = "192.168.1.1"`)
}
// Formation joiners must receive PoolBindBridge from the init node so the
// cluster-wide config reaches every chassis intact.
func TestApplyNetworkConfig_PropagatesPoolBindBridge(t *testing.T) {
settings := &admin.ConfigSettings{}
nc := &formation.NetworkConfig{
ExternalMode: "pool",
PoolName: "wan",
PoolSource: "dhcp",
PoolBindBridge: "br-wan",
PoolPrefixLen: 24,
}
applyNetworkConfig(settings, nc)
assert.Equal(t, "dhcp", settings.PoolSource)
assert.Equal(t, "br-wan", settings.PoolBindBridge)
}
+1 -1
View File
@@ -98,7 +98,7 @@ func runClusterShutdown(cmd *cobra.Command, args []string) {
}
nc.Flush()
// Wait briefly for messages to propagate
time.Sleep(2 * time.Second)
time.Sleep(200 * time.Millisecond)
fmt.Printf("[INFRA] Complete\n")
break
}
+50 -25
View File
@@ -29,7 +29,7 @@ import (
"github.com/mulgadc/spinifex/spinifex/services/predastore"
"github.com/mulgadc/spinifex/spinifex/services/spinifexui"
"github.com/mulgadc/spinifex/spinifex/services/viperblockd"
"github.com/mulgadc/spinifex/spinifex/services/vpcd"
"github.com/mulgadc/spinifex/spinifex/vpcd"
"github.com/spf13/cobra"
"github.com/spf13/viper"
)
@@ -115,6 +115,13 @@ var predastoreStartCmd = &cobra.Command{
return
}
encryptionKeyFile := viper.GetString("encryption-key-file")
if encryptionKeyFile == "" {
fmt.Println("Encryption key file is not set")
return
}
nodeID := viper.GetInt("node-id")
pprofEnabled := viper.GetBool("pprof")
pprofOutput := viper.GetString("pprof-output")
@@ -128,6 +135,8 @@ var predastoreStartCmd = &cobra.Command{
TlsCert: tlsCert,
TlsKey: tlsKey,
EncryptionKeyFile: encryptionKeyFile,
NodeID: nodeID,
PprofEnabled: pprofEnabled,
@@ -274,19 +283,25 @@ var viperblockStartCmd = &cobra.Command{
shardWAL = *nodeConfig.Viperblock.ShardWAL
}
encryptionKeyFile := nodeConfig.Viperblock.EncryptionKeyFile
if envKey := viper.GetString("viperblock-encryption-key-file"); envKey != "" {
encryptionKeyFile = envKey
}
service, err := service.New("viperblock", &viperblockd.Config{
NatsHost: nodeConfig.NATS.Host,
NatsToken: nodeConfig.NATS.ACL.Token,
NatsCACert: nodeConfig.NATS.CACert,
PluginPath: pluginPath,
S3Host: nodeConfig.Predastore.Host,
Bucket: nodeConfig.Predastore.Bucket,
Region: nodeConfig.Predastore.Region,
AccessKey: nodeConfig.Predastore.AccessKey,
SecretKey: nodeConfig.Predastore.SecretKey,
BaseDir: nodeConfig.Predastore.BaseDir,
NodeName: clusterConfig.Node,
ShardWAL: shardWAL,
NatsHost: nodeConfig.NATS.Host,
NatsToken: nodeConfig.NATS.ACL.Token,
NatsCACert: nodeConfig.NATS.CACert,
PluginPath: pluginPath,
S3Host: nodeConfig.Predastore.Host,
Bucket: nodeConfig.Predastore.Bucket,
Region: nodeConfig.Predastore.Region,
AccessKey: nodeConfig.Predastore.AccessKey,
SecretKey: nodeConfig.Predastore.SecretKey,
BaseDir: nodeConfig.Predastore.BaseDir,
NodeName: clusterConfig.Node,
ShardWAL: shardWAL,
EncryptionKeyFile: encryptionKeyFile,
})
if err != nil {
@@ -669,11 +684,8 @@ var spinifexUIStatusCmd = &cobra.Command{
}
// checkLegacyWanBridgeKey fails vpcd startup if the deprecated `wan_bridge`
// TOML key or `SPINIFEX_VPCD_WAN_BRIDGE` env-var is present. The key was
// renamed to `dhcp_bind_bridge` (see mulga-998.a) because the old name misled
// operators into pointing at the OVN-side bridge ("br-ext"), which never sees
// LAN DHCP traffic. Per D3: no silent alias, no auto-rewrite — operator must
// rename the key before vpcd will start.
// TOML key or `SPINIFEX_VPCD_WAN_BRIDGE` env-var is present. Per D3: no silent
// alias, no auto-rewrite — operator must remove the key before vpcd will start.
func checkLegacyWanBridgeKey(node, cfgFile string) error {
legacyInTOML := viper.IsSet("nodes." + node + ".vpcd.wan_bridge")
legacyInEnv := os.Getenv("SPINIFEX_VPCD_WAN_BRIDGE") != ""
@@ -686,9 +698,7 @@ func checkLegacyWanBridgeKey(node, cfgFile string) error {
}
return fmt.Errorf(
"vpcd: deprecated 'wan_bridge' key found in %s. "+
"Rename 'wan_bridge' to 'dhcp_bind_bridge'. The value may also be wrong — verify it is "+
"the Linux bridge holding your WAN NIC (veth mode) or the OVS bridge holding your WAN NIC (direct mode); "+
"never 'br-ext'. Typical value on a consumer-router LAN: 'br-wan'. "+
"Remove the key entirely; vpcd auto-detects the WAN bridge (br-wan). "+
"Then: sudo systemctl restart spinifex-vpcd",
source,
)
@@ -725,6 +735,7 @@ var vpcdStartCmd = &cobra.Command{
extPools = append(extPools, vpcd.ExternalPoolConfig{
Name: p.Name,
Source: p.Source,
BindBridge: p.BindBridge,
RangeStart: p.RangeStart,
RangeEnd: p.RangeEnd,
Gateway: p.Gateway,
@@ -733,7 +744,6 @@ var vpcdStartCmd = &cobra.Command{
DNSServers: p.DNSServers,
Region: p.Region,
AZ: p.AZ,
DhcpBindBridge: nodeConfig.VPCD.DhcpBindBridge,
GwLrpRangeStart: p.GwLrpRangeStart,
GwLrpRangeEnd: p.GwLrpRangeEnd,
})
@@ -769,8 +779,8 @@ var vpcdStartCmd = &cobra.Command{
ExternalPools: extPools,
Bootstrap: bootstrap,
ExternalInterface: nodeConfig.VPCD.ExternalInterface,
DhcpBindBridge: nodeConfig.VPCD.DhcpBindBridge,
BridgeMode: nodeConfig.VPCD.BridgeMode,
AZ: nodeConfig.AZ,
})
if err != nil {
fmt.Println("Error starting vpcd service:", err)
@@ -858,13 +868,20 @@ func init() {
viper.BindEnv("tls-key", "SPINIFEX_PREDASTORE_TLS_KEY")
viper.BindPFlag("tls-key", predastoreCmd.PersistentFlags().Lookup("tls-key"))
// Predastore at-rest encryption master key (per node; mode 0600)
predastoreCmd.PersistentFlags().String("encryption-key-file", "", "Path to this node's 32-byte AES-256 master key file (required)")
viper.BindEnv("encryption-key-file", "SPINIFEX_PREDASTORE_ENCRYPTION_KEY_FILE")
viper.BindPFlag("encryption-key-file", predastoreCmd.PersistentFlags().Lookup("encryption-key-file"))
// Predastore Backend
predastoreCmd.PersistentFlags().String("backend", "distributed", "Predastore (S3) backend")
viper.BindEnv("backend", "SPINIFEX_PREDASTORE_BACKEND")
viper.BindPFlag("backend", predastoreCmd.PersistentFlags().Lookup("backend"))
// Predastore Node ID
predastoreCmd.PersistentFlags().Int("node-id", 0, "Predastore (S3) node ID")
// Predastore Node ID. Default -1 is dev mode (launch every configured
// QUIC node in-process). Production deployments set this to the node's
// real ID (>= 1) via SPINIFEX_PREDASTORE_NODE_ID or --node-id.
predastoreCmd.PersistentFlags().Int("node-id", -1, "Predastore (S3) node ID (-1 = dev mode, >= 1 = production)")
viper.BindEnv("node-id", "SPINIFEX_PREDASTORE_NODE_ID")
viper.BindPFlag("node-id", predastoreCmd.PersistentFlags().Lookup("node-id"))
@@ -900,6 +917,14 @@ func init() {
viper.BindEnv("plugin-path", "SPINIFEX_VIPERBLOCK_PLUGIN_PATH")
viper.BindPFlag("plugin-path", predastoreCmd.PersistentFlags().Lookup("plugin-path"))
// Viperblock at-rest encryption master key (shared with other on-node
// services via group ownership; mode 0640 or stricter). Distinct viper
// key from predastore's encryption-key-file so the two BindPFlag calls
// don't collide globally.
viperblockCmd.PersistentFlags().String("encryption-key-file", "", "Path to the 32-byte AES-256 master key file for at-rest encryption (empty disables encryption)")
viper.BindEnv("viperblock-encryption-key-file", "SPINIFEX_VIPERBLOCK_ENCRYPTION_KEY_FILE")
viper.BindPFlag("viperblock-encryption-key-file", viperblockCmd.PersistentFlags().Lookup("encryption-key-file"))
viperblockCmd.AddCommand(viperblockStartCmd)
viperblockCmd.AddCommand(viperblockStopCmd)
viperblockCmd.AddCommand(viperblockStatusCmd)
@@ -1,6 +1,6 @@
# Predastore S3-compatible storage configuration file in TOML format.
# Generated for multi-node cluster
version = "3"
version = "4"
region = "{{.Region}}"
host = "0.0.0.0"
@@ -9,8 +9,13 @@ port = 8443
debug = false
[rs]
{{- if eq (len .Nodes) 2}}
data = 1
parity = 1
{{- else}}
data = 2
parity = 1
{{- end}}
{{- range .Nodes}}
[[db]]
@@ -39,10 +44,12 @@ region = "{{.Region}}"
type = "distributed"
public = false
encryption = ""
account_id = "000000000000"
[[auth]]
access_key_id = "{{.AccessKey}}"
secret_access_key = "{{.SecretKey}}"
account_id = "000000000000"
policy = [
{ bucket = "predastore", actions = ["s3:ListBucket", "s3:GetObject", "s3:PutObject", "s3:DeleteObject", "s3:ListAllMyBuckets"] },
]
+6 -4
View File
@@ -1,6 +1,6 @@
# Predastore S3-compatible storage configuration file in TOML format.
# MULTI NODE used for testing
version = "3"
version = "4"
region = "{{.Region}}"
# Optionally configure port and host, or specify via daemon CLI options
@@ -51,19 +51,19 @@ secret_access_key = "{{.SecretKey}}"
# Using distributed hash ring for object > shard placement.
[[nodes]]
id = 1
host = "0.0.0.0"
host = "127.0.0.1"
port = 9991
path = "distributed/nodes/node-1/"
[[nodes]]
id = 2
host = "0.0.0.0"
host = "127.0.0.1"
port = 9992
path = "distributed/nodes/node-2/"
[[nodes]]
id = 3
host = "0.0.0.0"
host = "127.0.0.1"
port = 9993
path = "distributed/nodes/node-3/"
@@ -73,10 +73,12 @@ region = "ap-southeast-2"
type = "distributed"
public = false
encryption = ""
account_id = "000000000000"
[[auth]]
access_key_id = "{{.AccessKey}}"
secret_access_key = "{{.SecretKey}}"
account_id = "000000000000"
policy = [
{ bucket = "predastore", actions = ["s3:ListBucket", "s3:GetObject", "s3:PutObject", "s3:DeleteObject", "s3:ListAllMyBuckets"] },
]
+12 -14
View File
@@ -1,5 +1,5 @@
# Domain configuration file in TOML format.
version = "2"
version = "3"
epoch = 1
node = "{{.Node}}"
{{- if .OperatorEmail}}
@@ -7,24 +7,27 @@ node = "{{.Node}}"
[operator]
email = "{{.OperatorEmail}}"
{{- end}}
{{- if .ExternalMode}}
[network]
ipsec_enabled = {{.IPSecEnabled}}
{{- if .ExternalMode}}
external_mode = "{{.ExternalMode}}"
{{- if .ExternalDHCP}}
external_dhcp = true
{{- end}}
[[network.external_pools]]
name = "{{.PoolName}}"
{{- if .PoolSource}}
source = "{{.PoolSource}}"
{{- end}}
{{- if .PoolBindBridge}}
bind_bridge = "{{.PoolBindBridge}}"
{{- end}}
{{- if .PoolStart}}
range_start = "{{.PoolStart}}"
range_end = "{{.PoolEnd}}"
{{- end}}
{{- if .PoolGateway}}
gateway = "{{.PoolGateway}}"
{{- end}}
{{- if .PoolGatewayIP}}
gateway_ip = "{{.PoolGatewayIP}}"
{{- end}}
@@ -52,6 +55,7 @@ advertise = "{{.AdvertiseIP}}"
{{- end}}
region = "{{.Region}}"
az = "{{.Az}}"
data_dir = "{{.DataDir}}"
{{- if .Services}}
services = [{{range $i, $s := .Services}}{{if $i}}, {{end}}"{{$s}}"{{end}}]
{{- end}}
@@ -67,6 +71,9 @@ dev_networking = false
{{- else}}
dev_networking = true
{{- end}}
{{- if .GPUPassthrough}}
gpu_passthrough = true
{{- end}}
[nodes.{{.Node}}.awsgw]
host = "{{.BindIP}}:9999"
@@ -93,15 +100,6 @@ ovn_sb_addr = "{{.OVNSBAddr}}"
{{- if .ExternalIface}}
external_interface = "{{.ExternalIface}}"
{{- end}}
{{- if .DhcpBindBridge}}
# dhcp_bind_bridge: the bridge where vpcd's DHCP client binds its AF_PACKET
# socket. On Linux-bridge-WAN hosts (netplan default with the WAN NIC enslaved),
# this is the Linux bridge name (e.g. "br-wan"). On direct-OVS hosts, this is
# the OVS bridge holding the WAN NIC.
# NEVER set this to "br-ext" — that is the OVN-side bridge and never sees LAN
# DHCP traffic.
dhcp_bind_bridge = "{{.DhcpBindBridge}}"
{{- end}}
[nodes.{{.Node}}.predastore]
host = "{{.BindIP}}:8443"
+9 -1
View File
@@ -88,7 +88,7 @@ func runTopNodes(cmd *cobra.Command, args []string) {
sort.Strings(nodeNames)
nodeTable := pterm.TableData{
{"NAME", "CPU (used/total)", "MEM (used/total)", "VMs"},
{"NAME", "CPU (used/total)", "MEM (used/total)", "GPU (used/total)", "VMs"},
}
// Aggregate instance type capacity across all nodes
@@ -96,10 +96,17 @@ func runTopNodes(cmd *cobra.Command, args []string) {
for _, name := range nodeNames {
if resp, ok := respondedNodes[name]; ok {
gpuCol := "-"
if resp.GPUPassthrough {
gpuCol = fmt.Sprintf("%d/%d", resp.AllocGPUs, resp.TotalGPUs)
} else if resp.GPUCapable {
gpuCol = fmt.Sprintf("0/%d*", len(resp.GPUModels))
}
nodeTable = append(nodeTable, []string{
resp.Node,
fmt.Sprintf("%d/%d", resp.AllocVCPU, resp.TotalVCPU),
fmt.Sprintf("%s/%s", formatMemGB(resp.AllocMemGB), formatMemGB(resp.TotalMemGB)),
gpuCol,
strconv.Itoa(resp.VMCount),
})
@@ -120,6 +127,7 @@ func runTopNodes(cmd *cobra.Command, args []string) {
"-",
"-",
"-",
"-",
})
}
}
+4 -1
View File
@@ -16,7 +16,10 @@ along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package main
import "github.com/mulgadc/spinifex/cmd/spinifex/cmd"
import (
"github.com/mulgadc/spinifex/cmd/spinifex/cmd"
_ "github.com/mulgadc/spinifex/internal/fipsboot"
)
func main() {
cmd.Execute()
+499 -434
View File
File diff suppressed because it is too large Load Diff
+10 -3
View File
@@ -16,14 +16,14 @@ Users interact with Spinifex using standard AWS SDKs or the AWS CLI by using the
```bash
AWS_PROFILE=spinifex aws ec2 run-instances \
--image-id ami-debian12 \
--image-id ami-debian13 \
--instance-type t3.micro \
--key-name my-keypair
```
The AWS SDK formats this as an HTTPS POST with:
- AWS SigV4 authentication headers
- EC2 Query Protocol body (`Action=RunInstances&ImageId=ami-debian12&...`)
- EC2 Query Protocol body (`Action=RunInstances&ImageId=ami-debian13&...`)
### 2. AWS Gateway
@@ -84,6 +84,13 @@ The EC2 handler (`spinifex/gateway/ec2.go`) parses the `Action` parameter and de
### 4. NATS Messaging
The full service-to-subject map — which service subscribes to what, what
each one publishes downstream, what each depends on — is captured in
[`service-interfaces.yaml`](./service-interfaces.yaml). It is the source
of truth for targeted e2e suite selection (see
`docs/development/improvements/e2e-targeted-suite-selection.md`) and is
validated by `make manifest-check`.
The gateway communicates with daemons via NATS request/response. Most calls go through `utils.NATSRequest`, which marshals the input, attaches the account ID as a NATS header, and unmarshals the typed response:
```go
@@ -297,7 +304,7 @@ sudo systemctl start spinifex.target
export AWS_PROFILE=spinifex
# Run instance
aws ec2 run-instances --image-id ami-debian12 --instance-type t3.micro
aws ec2 run-instances --image-id ami-debian13 --instance-type t3.micro
# List instances (queries all nodes)
aws ec2 describe-instances
@@ -77,7 +77,7 @@ Prints per-node CPU/memory usage and cluster-wide instance type availability.
```bash
spx admin images list
spx admin images import --name debian-12-arm64
spx admin images import --name debian-13-arm64
```
Catalog imports verify the image against the catalog-declared SHA-256/SHA-512 digest before extraction. Use `--file` to import operator-supplied media (verification skipped — operator is responsible for integrity), or `--force` to re-download after a checksum mismatch.
+199
View File
@@ -0,0 +1,199 @@
---
title: "GPU Passthrough"
description: "Configure VFIO GPU passthrough on a Spinifex node to expose NVIDIA or AMD GPUs to EC2 instances."
category: "Compute"
tags:
- gpu
- passthrough
- vfio
- ec2
sections:
- overview
- prerequisites
- instructions
- troubleshooting
resources:
- title: "Spinifex Repository"
url: "https://github.com/mulgadc/spinifex"
- title: "AWS EC2 Accelerated Computing Instance Types"
url: "https://docs.aws.amazon.com/ec2/latest/instancetypes/ac.html"
---
## Overview
Spinifex supports VFIO-based GPU passthrough, binding NVIDIA and AMD GPUs directly to guest VMs via the `vfio-pci` kernel driver. Once configured, the node exposes GPU-enabled EC2 instance types and the GPU is allocated exclusively to individual instances.
At startup, Spinifex always probes for GPU hardware and surfaces the result in the node banner and in `spx top nodes` — regardless of whether passthrough is enabled. This lets operators verify hardware before activating the feature.
The passthrough state is reflected in the login banner:
<img src="../../../.github/assets/images/gpu-banner1.png" alt="GPU not yet enabled">
> **Note:** GPU passthrough is supported on x86_64 hosts only.
## Prerequisites
- IOMMU must be supported and enabled in the host BIOS/UEFI (`Intel VT-d` or `AMD-Vi`).
- An NVIDIA or AMD GPU must be physically installed.
- The Spinifex node must be running on bare metal (not inside a VM).
## Instructions
### Host Setup
Run the one-time host configuration as root. This command is idempotent — safe to re-run after a reboot.
```bash
sudo spx admin gpu setup
```
What it does:
1. Detects installed GPUs and their PCI IDs.
2. Enables IOMMU in GRUB (`intel_iommu=on iommu=pt` or `amd_iommu=on iommu=pt`).
3. Writes the vfio udev rule (`/etc/udev/rules.d/99-spinifex-vfio.rules`).
4. Blacklists `nouveau` (NVIDIA) and `amdgpu` (AMD) so the host kernel does not claim the device.
5. Configures `vfio-pci` early binding in `/etc/modprobe.d/vfio-pci.conf`.
6. Adds vfio modules to initramfs.
If any change requires a reboot, the command prints instructions and exits:
```
Setup complete — reboot required.
sudo reboot
Then run: sudo spx admin gpu enable
```
### Enable Passthrough
After setup and reboot, enable GPU passthrough:
```bash
sudo spx admin gpu enable
```
The command writes the configuration, signals the daemon (`SIGHUP`), and waits up to 30 seconds for the daemon to confirm the new state. On success it prints the current GPU status.
<img src="../../../.github/assets/images/gpu-enabled.png" alt="GPU enabled">
### Status and Monitoring
**Per-node status:**
```bash
spx admin gpu status
# or for a specific node in the cluster:
spx admin gpu status --node <node-name>
```
Output includes hardware detected, IOMMU state, vfio-pci binding, passthrough enabled/disabled, GPU pool allocation (`allocated/total`), and the GPU-capable EC2 instance types available on that node.
**Cluster view:**
`spx top nodes` includes a `GPU (used/total)` column:
| Value | Meaning |
|-------|---------|
| `1/2` | Passthrough active — 1 of 2 GPUs allocated |
| `0/1*` | Node has a GPU but passthrough is not enabled |
| `-` | No GPU hardware detected |
```bash
spx top nodes
```
### GPU Instance Types
GPU instance types are derived from detected hardware. To list available GPU instance types on the current node:
```bash
aws ec2 describe-instance-types \
--filters Name=instance-type,Values=g*
```
### Launching GPU Instances
Spinifex ships two pre-built GPU guest images. Import the one that matches your host hardware before launching:
```bash
spx admin images import --name ubuntu-26.04-nvidia-gpu-x86_64 # NVIDIA hosts
spx admin images import --name ubuntu-26.04-amd-gpu-x86_64 # AMD hosts
```
These images are built on Ubuntu 26.04 and serve as a base for GPU workloads. Both include Docker CE, Python 3, and common utilities (`git`, `curl`, `htop`, `tmux`, `ffmpeg`).
**NVIDIA** (`ubuntu-26.04-nvidia-gpu-x86_64`): NVIDIA server driver with DKMS pre-built against the image kernel, `nvidia-smi`, nvidia-container-toolkit wired into Docker (`--gpus all` works on first boot). CUDA toolkit and cuDNN are not included — use an NGC container or install inside the instance.
**AMD** (`ubuntu-26.04-amd-gpu-x86_64`): `linux-firmware` (amdgpu firmware blobs), ROCm 7.2 CLI tools (`rocm-smi`, `rocminfo`, `amd-smi`). Full ROCm compute libraries (`rocblas`, etc.) are not included — install inside the instance as needed.
Launch a GPU instance:
```bash
aws ec2 run-instances \
--image-id $GPU_AMI \
--instance-type $INSTANCE_TYPE \
--key-name spinifex-key
```
To verify the GPU is visible from inside the instance, SSH in and run:
```bash
# NVIDIA
nvidia-smi
# AMD
rocm-smi
```
### Disable Passthrough
Passthrough cannot be disabled while GPU instances are running. Terminate all GPU instances first, then:
```bash
sudo spx admin gpu disable
```
The command signals the daemon and waits for confirmation. The GPU is released back to the host kernel on the next reboot (the vfio-pci binding persists until `setup` is re-run without the blacklists).
## Troubleshooting
### IOMMU not active after reboot
Verify IOMMU is enabled in BIOS/UEFI (`Intel VT-d` or `AMD-Vi`). Then check GRUB picked up the parameters:
```bash
cat /proc/cmdline | grep iommu
ls /sys/kernel/iommu_groups/
```
If `/sys/kernel/iommu_groups/` is empty, IOMMU is not active. Re-run `sudo spx admin gpu setup` after enabling it in firmware.
### GPU bound to native driver instead of vfio-pci
```bash
lspci -k | grep -A3 -i "vga\|3d\|display"
```
If the driver is `amdgpu` or `nvidia` rather than `vfio-pci`, the blacklist or early binding did not take effect. Re-run setup and reboot:
```bash
sudo spx admin gpu setup
sudo reboot
```
### `spx admin gpu enable` fails with "prerequisites not met"
Run `setup` first to configure the host, then retry `enable`:
```bash
sudo spx admin gpu setup
sudo spx admin gpu enable
```
### Daemon does not confirm within 30 seconds
Check the daemon log for errors:
```bash
journalctl -u spinifex-daemon -n 50
```
+1 -1
View File
@@ -157,7 +157,7 @@ If the AMI is for a different architecture (e.g. arm64 on an x86_64 host), impor
```bash
spx admin images list
spx admin images import --name debian-12-x86_64
spx admin images import --name debian-13-x86_64
```
### Cannot SSH Into Instance
+48
View File
@@ -573,6 +573,54 @@ external_interface = "br-wan"
DHCP server when VMs launch and releases them on terminate. Requires `dhclient`
on the host (`apt install isc-dhcp-client`).
## Host-Local Subnet (No Upstream Router)
```
Network: 192.168.10.0/24 — host-local, reachable from the host only
Host WAN: 198.51.100.10/24 on br-wan (existing address — unchanged)
Gateway: 192.168.10.1 — second address added to br-wan
```
Add the VM pool gateway as a second address on `br-wan` alongside the existing WAN
IP. The host acts as the gateway for the pool — no upstream router or DHCP server
needed for this range.
```yaml
# /etc/netplan/…
bridges:
br-wan:
addresses:
- 192.168.10.1/24 # VM pool gateway — host-local
- 198.51.100.10/24 # existing WAN IP — unchanged
routes:
- to: default
via: 198.51.100.1
```
```toml
[network]
external_mode = "pool"
[[network.external_pools]]
name = "wan"
source = "static" # required — no upstream DHCP for this range
range_start = "192.168.10.2"
range_end = "192.168.10.100"
gateway = "192.168.10.1" # second address on br-wan
prefix_len = 24
dns_servers = ["8.8.8.8"]
```
**Setup:** Apply with `sudo netplan apply`. VMs are reachable from the host at
`192.168.10.x`. For internet access through the host's WAN interface:
```bash
sysctl -w net.ipv4.ip_forward=1
iptables -t nat -A POSTROUTING -s 192.168.10.0/24 -o br-wan -j MASQUERADE
```
Persist via `/etc/sysctl.d/99-ip-forward.conf` and `netfilter-persistent save`.
## Datacenter / Colo (ISP Block)
```
@@ -57,6 +57,7 @@ sudo apt update
sudo apt install --download-only -y \
nbdkit nbdkit-plugin-dev pkg-config \
qemu-system-x86 qemu-utils qemu-kvm \
ovmf qemu-efi-aarch64 \
libvirt-daemon-system libvirt-clients libvirt-dev \
ovn-central ovn-host openvswitch-switch \
dhcpcd-base make gcc jq curl iproute2 netcat-openbsd \
@@ -74,8 +75,8 @@ Mirror the cloud image you intend to run as guest VMs:
```bash
mkdir -p images
curl -fsSL "https://cdimage.debian.org/cdimage/cloud/bookworm/latest/debian-12-genericcloud-amd64.qcow2" \
-o images/debian-12-amd64.qcow2
curl -fsSL "https://cloud.debian.org/images/cloud/trixie/20260518-2482/debian-13-genericcloud-amd64-20260518-2482.qcow2" \
-o images/debian-13-amd64.qcow2
```
## Step 3. Assemble Transfer Media
@@ -140,8 +141,8 @@ sudo systemctl start spinifex.target
Register the pre-staged image with Spinifex:
```bash
sudo spx admin images import --file /mnt/usb/images/debian-12-amd64.qcow2 \
--distro debian --version 12 --arch x86_64
sudo spx admin images import --file /mnt/usb/images/debian-13-amd64.qcow2 \
--distro debian --version 13 --arch x86_64 --boot-mode uefi
```
## Step 9. Verify
@@ -183,4 +184,4 @@ sudo INSTALL_SPINIFEX_TARBALL=/mnt/usb/tarball/spinifex-...tar.gz \
### Image Import Fails
`spx admin images import --file` requires the distro/version/arch flags so the image registers in the catalogue. If the import succeeds but `aws ec2 describe-images` returns empty, check `journalctl -u spinifex-daemon -f` for predastore upload errors.
`spx admin images import --file` requires the distro/version/arch/boot-mode flags so the image registers in the catalogue. If the import succeeds but `aws ec2 describe-images` returns empty, check `journalctl -u spinifex-daemon -f` for predastore upload errors.
@@ -22,6 +22,7 @@ resources:
## Table of Contents
- [Overview](#overview)
- [Prerequisites](#prerequisites)
- [Instructions](#instructions)
- [Troubleshooting](#troubleshooting)
@@ -37,6 +38,22 @@ A Spinifex cluster distributes services across multiple servers for high availab
- UDP port 6081 open between hosts (Geneve tunnels)
- TCP ports 4222, 4248, 6641, 6642 open between hosts (NATS, OVN)
## Prerequisites
> [!IMPORTANT]
> **Prerequisite — WAN bridge required on every node.**
>
> Before running the installer on any server, that server's WAN interface **must** already be enslaved to a Linux bridge named `br-wan`. The host IP, default route, and DHCP must all live on the bridge — not on the bare NIC.
>
> The bootstrap installer does **not** create this bridge for you yet. Running it on a host whose default route is still on a bare NIC will leave the install in a non-working state. Auto-provisioning of `br-wan` will land in the next release.
>
> **Verify on every node before continuing:**
>
> - `ip -br link show br-wan` — bridge exists and is `UP`
> - `ip route` — default route's `dev` is `br-wan`
>
> **Setup references:** [VPC Networking → Bridge Setup](/docs/vpc-networking#bridge-setup-physical-network-wiring) for the topology.
## Instructions
## Step 1. Install Spinifex on Each Server
@@ -31,8 +31,8 @@ This guide builds Spinifex from source. For production deployments, the [binary
**Requirements:**
- Ubuntu 22.04+ / Debian 12+
- Go 1.26.2+
- Ubuntu 26.04 / Debian 13
- Go 1.26.4+
- GCC, make, pkg-config
- QEMU/KVM, OVN/Open vSwitch, AWS CLI v2, dhcpcd-base
+19 -2
View File
@@ -22,6 +22,7 @@ resources:
## Table of Contents
- [Overview](#overview)
- [Prerequisites](#prerequisites)
- [Instructions](#instructions)
- [Troubleshooting](#troubleshooting)
@@ -35,8 +36,8 @@ This guide installs Spinifex on a single server using the binary installer. For
**Supported Operating Systems:**
- Ubuntu 22.04 / 24.04 / 25.10
- Debian 12 / 13
- Ubuntu 26.04
- Debian 13
**What Gets Installed:**
@@ -47,6 +48,22 @@ This guide installs Spinifex on a single server using the binary installer. For
- Viperblock (EBS-compatible block storage)
- AWS CLI v2
## Prerequisites
> [!IMPORTANT]
> **Prerequisite — WAN bridge required.**
>
> Before running the installer, the host's WAN interface **must** already be enslaved to a Linux bridge named `br-wan`. The host IP, default route, and DHCP must all live on the bridge — not on the bare NIC.
>
> The bootstrap installer does **not** create this bridge for you yet. Running it on a host whose default route is still on a bare NIC will leave the install in a non-working state. Auto-provisioning of `br-wan` will land in the next release.
>
> **Verify before continuing:**
>
> - `ip -br link show br-wan` — bridge exists and is `UP`
> - `ip route` — default route's `dev` is `br-wan`
>
> **Setup references:** [VPC Networking → Bridge Setup](/docs/vpc-networking#bridge-setup-physical-network-wiring) for the topology.
## Instructions
## Step 1. Install Spinifex
@@ -58,23 +58,22 @@ spx admin images list
```
NAME | DISTRO | VERSION | ARCH | BOOT
debian-12-arm64 | debian | 12 | arm64 | bios
debian-12-x86_64 | debian | 12 | x86_64 | bios
lb-alpine-3.21.6-x86_64 | alpine | 3.21.6 | x86_64 | bios
ubuntu-24.04-arm64 | ubuntu | 24.04 | arm64 | bios
ubuntu-24.04-x86_64 | ubuntu | 24.04 | x86_64 | bios
debian-13-arm64 | debian | 13 | arm64 | uefi
debian-13-x86_64 | debian | 13 | x86_64 | uefi
ubuntu-26.04-arm64 | ubuntu | 26.04 | arm64 | uefi
ubuntu-26.04-x86_64 | ubuntu | 26.04 | x86_64 | uefi
```
Import an image:
```bash
spx admin images import --name ubuntu-24.04-x86_64
spx admin images import --name ubuntu-26.04-x86_64
```
Or import a local image file:
```bash
spx admin images import --file ~/images/ubuntu-24.04.img --distro ubuntu --version 24.04 --arch x86_64
spx admin images import --file ~/images/ubuntu-26.04.img --distro ubuntu --version 26.04 --arch x86_64 --boot-mode uefi
```
Verify the import and note the AMI ID:
@@ -173,7 +172,7 @@ Launch an instance in the public subnet, note this will select an instance type
> **Note:** Replace `AMI_NAME` with the previously imported image above with the `ami-` prefix.
```bash
AMI_NAME="ami-ubuntu-24.04-x86_64"
AMI_NAME="ami-ubuntu-26.04-x86_64"
AMI_ID=$(aws ec2 describe-images \
--filters "Name=name,Values=$AMI_NAME" \
@@ -0,0 +1,266 @@
---
title: "Multi-Tenant AI on Supermicro H14 with AMD MI350X"
description: "Provision isolated GPU VMs for simultaneous AI workloads on a Supermicro H14 bare-metal node using Spinifex's EC2-compatible API."
category: "Reference Architectures"
tags:
- supermicro
- amd
- mi350x
- gpu-passthrough
- multi-tenant
- vllm
resources:
- title: "GPU Passthrough"
url: "/docs/gpu-passthrough"
- title: "Launching Instances"
url: "/docs/launching-instances"
- title: "AMD Instinct MI350X"
url: "https://www.amd.com/en/products/accelerators/instinct/mi300/mi350x.html"
- title: "vLLM Documentation"
url: "https://docs.vllm.ai"
sections:
- overview
- prerequisites
- instructions
---
## Overview
This document serves as a tutorial for setting up multi-tenant AI workloads with Spinifex. The reference architecture for this tutorial is the Supermicro H14 platform - specifications listed below.
The H14 chassis comes equipped with **8× AMD Instinct MI350X** (288 GB HBM3e each, 2.3 TB total). We used Spinifex to provision three isolated VMs, each assigned 2× MI350X via direct PCIe passthrough, and ran three computationally intensive workloads simultaneously: a YOLO11x vision model, a Qwen3-VL 235B FP8 vision language model, and a Llama 3.3 70B large language model.
<p><video src="https://iso.mulgadc.com/clipped-demo.mp4" controls width="100%" style="border-radius:6px"></video></p>
### Platform
| Component | Specification |
|---|---|
| **Bare-metal host** | Supermicro H14 |
| **Host OS** | Ubuntu 24.04 LTS or Debian 13 (minimum) |
| **Orchestration** | Spinifex — EC2-compatible bare-metal API |
| **Guest OS** | Ubuntu 26.04 LTS |
| **GPUs** | 8× AMD Instinct MI350X (288 GB HBM3e each, 2.3 TB total) |
| **GPU passthrough** | PCIe passthrough via vfio-pci |
| **Instance type** | `g7e.12xlarge` — 2× MI350X per VM |
| **Container runtime** | Docker (with ROCm device access) |
| **Inference runtime** | vLLM (`rocm/vllm` image) |
| **VM network** | Internal VPC, 192.168.10.0/24 |
| **Block storage** | Viperblock — EBS-compatible, local NVMe-backed |
Spinifex runs on the bare-metal host and exposes an EC2-compatible API to any standard `aws ec2` tooling. Guest VMs receive their GPU allocation at the hardware level — each VM's OS sees the MI350Xs as native PCIe devices with no virtualisation layer in the data path. Workloads across VMs share no GPU memory, no address space, and no network segment except through the VPC.
GPU passthrough requires a host kernel and OS that supports vfio-pci. Ubuntu 24.04 LTS (kernel 6.8+) and Debian 13 (kernel 6.12+) are the tested minimum baselines for the host. Guest VMs run Ubuntu 26.04 LTS.
## Prerequisites
- Supermicro H14 with 8× AMD Instinct MI350X installed
- Host OS: **Ubuntu 24.04 LTS** (kernel 6.8+) or **Debian 13** (kernel 6.12+) — minimum for vfio-pci support
- Spinifex installed and all services running (`systemctl status spinifex.target`)
- AMD GPU AMI registered (`ami-ubuntu-amd-gpu`) — Ubuntu 26.04 LTS with ROCm-compatible kernel
- AWS CLI configured with `AWS_PROFILE=spinifex` pointing at the Spinifex endpoint
- SSH key pair imported into Spinifex, VPC and security group created (see [Launching Instances](/docs/launching-instances))
GPU passthrough must be configured before launching GPU instances. This is a one-time step per host.
```bash
# Detect GPUs and bind to vfio-pci (requires reboot)
sudo spx admin gpu setup
# After rebooting — confirm passthrough is active and signal the daemon
sudo spx admin gpu enable
```
`spx admin gpu setup` blacklists the AMD driver on the host and binds each GPU to `vfio-pci`. After reboot, `spx admin gpu enable` verifies the binding and makes the GPU pool available to `RunInstances`.
<img src="../../../.github/assets/images/gpu-enabled.png" alt="Spinifex console confirming PCIe passthrough is active for each GPU">
To check available GPU instance types:
```bash
export AWS_PROFILE=spinifex
aws ec2 describe-instance-types \
--query 'InstanceTypes[?GpuInfo].[InstanceType,GpuInfo.Gpus[0].Count,GpuInfo.Gpus[0].Name]' \
--output table
```
## Instructions
### 1. Provision the VMs
Each VM was provisioned using standard AWS EC2 CLI commands — the only change from a normal AWS workflow is `AWS_PROFILE=spinifex`, which redirects the CLI to Spinifex's local EC2-compatible endpoint instead of AWS:
| VM | Instance type | GPUs | Role | Model |
|---|---|---|---|---|
| `vm-yolo` | g7e.12xlarge | 2× MI350X | Real-time object detection | YOLO11x |
| `vm-vlm` | g7e.12xlarge | 2× MI350X | Multi-modal scene analysis | Qwen3-VL 235B FP8 |
| `vm-chat` | g7e.12xlarge | 2× MI350X | Conversational LLM | Llama 3.3 70B |
Six of the eight available MI350Xs are claimed here; the remaining two stay idle on the host, available for a fourth tenant without touching the existing three.
```bash
export AWS_PROFILE=spinifex
# vm-yolo — YOLO11x object detection, 200 GB disk
YOLO_ID=$(aws ec2 run-instances \
--image-id ami-ubuntu-amd-gpu \
--instance-type g7e.12xlarge \
--key-name spinifex-key \
--subnet-id <subnet-id> \
--security-group-ids <sg-id> \
--block-device-mappings 'DeviceName=/dev/sda1,Ebs={VolumeSize=200,DeleteOnTermination=true}' \
--count 1 \
--query 'Instances[0].InstanceId' --output text)
echo "vm-yolo launched: $YOLO_ID"
# vm-vlm — Qwen3-VL 235B FP8, 600 GB disk for weights
VLM_ID=$(aws ec2 run-instances \
--image-id ami-ubuntu-amd-gpu \
--instance-type g7e.12xlarge \
--key-name spinifex-key \
--subnet-id <subnet-id> \
--security-group-ids <sg-id> \
--block-device-mappings 'DeviceName=/dev/sda1,Ebs={VolumeSize=600,DeleteOnTermination=true}' \
--count 1 \
--query 'Instances[0].InstanceId' --output text)
echo "vm-vlm launched: $VLM_ID"
# vm-chat — Llama 3.3 70B, 300 GB disk
CHAT_ID=$(aws ec2 run-instances \
--image-id ami-ubuntu-amd-gpu \
--instance-type g7e.12xlarge \
--key-name spinifex-key \
--subnet-id <subnet-id> \
--security-group-ids <sg-id> \
--block-device-mappings 'DeviceName=/dev/sda1,Ebs={VolumeSize=300,DeleteOnTermination=true}' \
--count 1 \
--query 'Instances[0].InstanceId' --output text)
echo "vm-chat launched: $CHAT_ID"
# Wait for all three to reach running state
for ID in "$YOLO_ID" "$VLM_ID" "$CHAT_ID"; do
aws ec2 wait instance-running --instance-ids "$ID"
echo "$ID is running"
done
# Retrieve IPs (Spinifex assigns addresses from the internal VPC)
YOLO_IP=$(aws ec2 describe-instances --instance-ids "$YOLO_ID" \
--query 'Reservations[0].Instances[0].PublicIpAddress' --output text)
VLM_IP=$(aws ec2 describe-instances --instance-ids "$VLM_ID" \
--query 'Reservations[0].Instances[0].PublicIpAddress' --output text)
CHAT_IP=$(aws ec2 describe-instances --instance-ids "$CHAT_ID" \
--query 'Reservations[0].Instances[0].PublicIpAddress' --output text)
echo "vm-yolo: $YOLO_IP"
echo "vm-vlm: $VLM_IP"
echo "vm-chat: $CHAT_IP"
```
### 2. Verify GPU access
Once SSH is available, confirm both GPUs are visible inside each VM:
```bash
ssh -i ~/.ssh/spinifex-key ubuntu@$CHAT_IP 'lspci | grep -i amd'
```
Or install and run `amd-smi`:
```bash
ssh -i ~/.ssh/spinifex-key ubuntu@$CHAT_IP \
'curl -fsSL https://repo.radeon.com/rocm/rocm.gpg.key | gpg --dearmor | sudo tee /etc/apt/keyrings/rocm.gpg >/dev/null && \
echo "deb [arch=amd64 signed-by=/etc/apt/keyrings/rocm.gpg] https://repo.radeon.com/rocm/apt/6.3 noble main" | sudo tee /etc/apt/sources.list.d/rocm.list && \
sudo apt-get update -qq && sudo apt-get install -y -q amd-smi-lib && \
amd-smi list'
```
<img src="../../../.github/assets/images/2gpus.png" alt="amd-smi inside vm-chat confirming two MI350Xs are directly attached, each with a unique UUID">
Two MI350X entries with distinct UUIDs confirm direct PCIe passthrough is working.
### 3. The orchestration layer
Spinifex provides an EC2-compatible API on bare metal. The relevant capabilities for this demo:
- **Multi-GPU claim per VM.** Each `g7e.12xlarge` requires two PCIe addresses claimed as a unit. Spinifex queries the available GPU pool on the host and assigns them to the guest VM at creation time, rolling back if the full allocation cannot be satisfied.
- **PCIe passthrough via vfio-pci.** All 8 MI350Xs are bound to `vfio-pci` on the bare-metal host. Each VM gets its GPUs at the hardware level.
- **Internal VPC (192.168.10.0/24).** VMs communicate directly without traversing the host's public network.
The result: three completely independent EC2 instances, each running their own separate workloads using only the GPU resources they were allocated.
### 4. Test methodology
Two capture runs were made against the same workload script: **30 s baseline** (YOLO and VLM models running, no chat load) → **25 scripted Llama chat prompts** at 15 s intervals → **30 s settle tail**.
The only difference between the two runs was tensor parallelism:
- **Demo 1 (TP=1):** each VM uses one of its two allocated GPUs. The second sits idle.
- **Demo 2 (TP=2):** each VM shards its model symmetrically across both GPUs using AMD Infinity Fabric (XGMI).
| Metric | TP=1 baseline (Demo 1) | TP=2 (Demo 2) |
|---|---|---|
| Wall clock | 613 s | 600 s |
| YOLO avg fps | 16.91 (min 15.3 / max 18.0) | 17.09 (min 15.6 / max 18.1) |
| Qwen peak tok/s | 61.7 | 53.0 |
| Llama peak tok/s | 36.4 | **53.1** |
| Both GPUs active (chat VM) | no — GPU 1 idle | **yes — symmetric** |
| VRAM per GPU (Qwen) | 259 GB on one, 0.3 GB on other | 241 GB on **both** |
| VRAM per GPU (Llama) | 261 GB on one, 0.3 GB on other | 248 GB on **both** |
### 5. Results
### Inter-tenant isolation
The charts below show the three independent workloads spiking activity on their associated GPUs, measured in GFX utilisation and power draw. YOLO average FPS stays at ~17 despite utilisation in the YOLO VM never exceeding 20%, indicating a bottleneck in networking or encoding rather than inference. Each chart highlights workload independence — pulses of GPU activity share no correlation across VMs.
<img src="../../../.github/assets/images/smci/smci-demo1-gpu-utilisation.png" alt="GPU utilisation across all three VMs — Demo 1 TP=1">
GPU utilisation per VM across the full Demo 1 capture.
<img src="../../../.github/assets/images/smci/smci-demo2-gpu-power.png" alt="GPU power draw per workload — Demo 2 TP=2">
Power draw per VM during Demo 2.
### Single vs double GPU
When TP=2 is enabled, each VM shards its model symmetrically across both GPUs. Inside the chat VM, both GPUs pulse together on every request, each holding exactly **248 GB of VRAM** (weights split + KV cache shards). With TP=1, GPU 1 sat at 0% for the entire run.
<img src="../../../.github/assets/images/smci/smci-demo2-per-gpu-chat.png" alt="Llama 3.3 70B per-GPU activity — TP=2">
Per-GPU utilisation inside `vm-chat` with TP=2.
<img src="../../../.github/assets/images/smci/smci-demo1-per-gpu-chat.png" alt="Llama 3.3 70B per-GPU activity — TP=1">
Same VM with TP=1.
### vLLM generation throughput
With TP=1, Qwen peaks at ~60 tok/s and Llama caps around 35 tok/s — both compute-bound on a single MI350X. Enabling TP=2 lifts Llama's peak to ~50 tok/s (+47%) as generation is distributed symmetrically across both GPUs. Qwen's throughput is slightly lower under TP=2 due to collective overhead on the shared-memory transport.
<img src="../../../.github/assets/images/smci/smci-demo1-vllm-throughput.png" alt="vLLM generation throughput — TP=1">
Generation throughput during Demo 1 (TP=1).
<img src="../../../.github/assets/images/smci/smci-demo2-vllm-throughput.png" alt="vLLM generation throughput — TP=2">
Generation throughput during Demo 2 (TP=2).
### 6. Teardown
```bash
# Stop workloads on each VM
for IP in "$YOLO_IP" "$VLM_IP" "$CHAT_IP"; do
ssh -i ~/.ssh/spinifex-key ubuntu@$IP 'docker stop $(docker ps -q)' || true
done
# Terminate all three instances — releases 6× MI350X back to the Spinifex pool
aws ec2 terminate-instances --instance-ids "$YOLO_ID" "$VLM_ID" "$CHAT_ID"
```
The six MI350Xs are immediately returned to the pool once the instances terminate, ready for a new allocation without touching the host.
### 7. Conclusion
This tutorial demonstrates how Spinifex can turn a single bare-metal chassis into a multi-tenant AI serving platform. Spinifex utilises the flexibility of PCIe passthrough to allocate GPU resources in whichever configuration is required by the workload/s.
Importantly, it does so with standard `aws ec2` CLI calls — `run-instances`, `describe-instances`, `terminate-instances` — against Spinifex's EC2-compatible endpoint. Teams already operating AWS infrastructure can point their existing tooling at a Spinifex node with a single profile change, against GPUs that sit in their own rack.
@@ -0,0 +1,319 @@
---
title: "Arcee Trinity 400B FP8 on AMD MI350X with Spinifex"
description: "Provision, load, and benchmark arcee-ai/Trinity-Large-Preview-FP8 across two AMD MI350X GPUs on a Supermicro H14 using Spinifex's EC2-compatible API."
category: "Reference Architectures"
tags:
- supermicro
- amd
- mi350x
- gpu-passthrough
- vllm
- llm
- arcee
resources:
- title: "GPU Passthrough"
url: "/docs/gpu-passthrough"
- title: "Launching Instances"
url: "/docs/launching-instances"
- title: "Arcee AI Trinity"
url: "https://www.arcee.ai/trinity"
- title: "Trinity on HuggingFace"
url: "https://huggingface.co/arcee-ai/Trinity-Large-Preview-FP8"
- title: "AMD Instinct MI350X"
url: "https://www.amd.com/en/products/accelerators/instinct/mi300/mi350x.html"
- title: "vLLM Documentation"
url: "https://docs.vllm.ai"
sections:
- overview
- prerequisites
- instructions
---
## Overview
### About Trinity
[Trinity](https://www.arcee.ai/trinity) is a family of open-weight language models from [Arcee AI](https://www.arcee.ai), built specifically for production agentic workloads: reliable tool calling, structured JSON output, coherent multi-turn conversations, and long-context reasoning. The family spans four sizes — Nano (6B), Mini (26B), Large Preview (400B), and Large Thinking (400B reasoning-optimised), with consistent capabilities and API surface across all of them. A workflow validated on Nano can be promoted to Large with no prompt changes.
Trinity Large Preview is a **sparse Mixture-of-Experts (MoE)** model. The headline number is 400B total parameters, but only **13B parameters activate per token** — the MoE routing selects a subset of experts for each forward pass, so inference cost is closer to a much smaller dense model than the raw parameter count suggests. The result is a 400B-class model with a **512K token context window** that fits on two high-memory GPUs and generates at competitive throughput.
Arcee has trained Trinity with a heavy focus on agent reliability — function selection accuracy, valid parameter generation, graceful failure recovery, and schema adherence for structured outputs. It is available as open weights on HuggingFace and is natively compatible with vLLM, SGLang, and llama.cpp.
### This guide
This writeup covers running Trinity Large Preview FP8 on a Supermicro H14 bare-metal node via Spinifex — our EC2-compatible orchestration layer. Two AMD Instinct MI350X GPUs (288 GB HBM3e each, 576 GB combined) provide just enough headroom for the FP8 weights plus active KV cache, provisioned and managed with standard `aws ec2` CLI commands.
At that scale the FP8 weights require around 400 GB of GPU memory — more than a single MI350X can hold. This guide covers splitting the model symmetrically across two MI350Xs using vLLM tensor parallelism (TP=2), running on a `g7e.12xlarge` instance provisioned via Spinifex on the H14.
The complete stack:
| Layer | Detail |
|---|---|
| Bare-metal host | Supermicro H14, 8× AMD Instinct MI350X |
| Orchestration | Spinifex (EC2-compatible API) |
| Instance type | `g7e.12xlarge` — 2× MI350X via PCIe passthrough |
| Disk | 800 GB (model weights alone are ~400 GB) |
| Inference runtime | vLLM (`rocm/vllm` Docker image) |
| Tensor parallelism | TP=2 — model sharded symmetrically across GPU 0 and GPU 1 |
| Model | `arcee-ai/Trinity-Large-Preview-FP8` |
### Platform
| Component | Specification |
|---|---|
| **Bare-metal host** | Supermicro H14 |
| **Host OS** | Ubuntu 24.04 LTS or Debian 13 (minimum) |
| **Orchestration** | Spinifex — EC2-compatible bare-metal API |
| **Guest OS** | Ubuntu 26.04 LTS |
| **GPUs** | 2× AMD Instinct MI350X (288 GB HBM3e each, 576 GB combined) |
| **GPU passthrough** | PCIe passthrough via vfio-pci |
| **Instance type** | `g7e.12xlarge` |
| **Container runtime** | Docker (with ROCm device access) |
| **Inference runtime** | vLLM (`rocm/vllm` image), tensor parallelism TP=2 |
| **Block storage** | Viperblock — EBS-compatible, 800 GB |
| **Model** | `arcee-ai/Trinity-Large-Preview-FP8` (400B MoE, ~13B active/token) |
Spinifex runs on the bare-metal host and presents an EC2-compatible API endpoint. Launching a `g7e.12xlarge` atomically claims two MI350Xs from the host's GPU pool and binds them to the guest VM via PCIe passthrough — the guest OS communicates with the hardware directly, with no software virtualisation layer in the data path. When the instance terminates, those two GPUs are immediately returned to the pool.
GPU passthrough requires a host kernel and OS that supports vfio-pci. Ubuntu 24.04 LTS (kernel 6.8+) and Debian 13 (kernel 6.12+) are the tested minimum baselines for the host. Guest VMs run Ubuntu 26.04 LTS, which ships with the ROCm-compatible kernel and userspace expected by the AMD GPU AMI.
## Prerequisites
- Supermicro H14 with at least 2× AMD Instinct MI350X installed
- Host OS: **Ubuntu 24.04 LTS** (kernel 6.8+) or **Debian 13** (kernel 6.12+) — minimum for vfio-pci support
- Spinifex installed and all services running (`systemctl status spinifex.target`)
- GPU passthrough configured — `spx admin gpu setup` (reboot required) then `spx admin gpu enable`
- AMD GPU AMI registered (`ami-ubuntu-amd-gpu`) — Ubuntu 26.04 LTS with ROCm-compatible kernel
- AWS CLI configured with `AWS_PROFILE=spinifex` pointing at the Spinifex endpoint
- SSH key pair imported, VPC and security group created (see [Launching Instances](/docs/launching-instances))
- Docker installed in the guest VM (included in the AMD GPU AMI)
- HuggingFace account with access to `arcee-ai/Trinity-Large-Preview-FP8`
GPU passthrough must be configured before launching GPU instances:
```bash
sudo spx admin gpu setup # binds GPUs to vfio-pci — requires reboot
# ... reboot ...
sudo spx admin gpu enable # confirms passthrough and makes GPU pool available
```
## Instructions
### 1. Provision the instance
Spinifex exposes a standard EC2 API on the bare-metal host. The only difference from a real AWS workflow is `AWS_PROFILE=spinifex`.
```bash
export AWS_PROFILE=spinifex
# Check available GPU instance types
aws ec2 describe-instance-types \
--query 'InstanceTypes[?GpuInfo].[InstanceType,GpuInfo.Gpus[0].Count,GpuInfo.Gpus[0].Name]' \
--output table
# Launch a g7e.12xlarge with 800 GB disk
# Spinifex atomically claims 2× MI350X via PCIe passthrough for this instance type
INSTANCE_ID=$(aws ec2 run-instances \
--image-id ami-ubuntu-amd-gpu \
--instance-type g7e.12xlarge \
--key-name spinifex-key \
--subnet-id <subnet-id> \
--security-group-ids <sg-id> \
--block-device-mappings 'DeviceName=/dev/sda1,Ebs={VolumeSize=800,DeleteOnTermination=true}' \
--count 1 \
--query 'Instances[0].InstanceId' --output text)
echo "Launched: $INSTANCE_ID"
# Wait for running state
aws ec2 wait instance-running --instance-ids "$INSTANCE_ID"
# Get the IP
INSTANCE_IP=$(aws ec2 describe-instances \
--instance-ids "$INSTANCE_ID" \
--query 'Reservations[0].Instances[0].PublicIpAddress' --output text)
echo "IP: $INSTANCE_IP"
```
Once SSH is available, confirm both GPUs are visible:
```bash
ssh -i ~/.ssh/spinifex-key ubuntu@$INSTANCE_IP 'lspci | grep -i amd'
```
Or install and run `amd-smi` on the instance:
<img src="../../../.github/assets/images/2gpus.png" alt="amd-smi inside the guest VM confirming two MI350Xs are directly attached, each with a unique UUID">
Two MI350X entries with distinct UUIDs confirm direct PCIe passthrough.
### 2. Pull the vLLM Docker image
```bash
ssh -i ~/.ssh/spinifex-key ubuntu@$INSTANCE_IP
# On the VM:
docker pull rocm/vllm:latest
```
> The `rocm/vllm` image is large (~20 GB). Pull it while the model is downloading in parallel if bandwidth allows.
### 3. Pull the model
Trinity Large Preview FP8 weighs roughly 400 GB, so expect the model download to take some time.
```bash
# On the VM:
pip install 'huggingface-hub[hf_xet]'
hf download 'arcee-ai/Trinity-Large-Preview-FP8' --repo-type model
# Monitor progress — looking for ~400 GB total
du -sh ~/.cache/huggingface/hub/
```
The model lands in `~/.cache/huggingface/hub/`. vLLM picks it up automatically from there on serve.
### 4. Run vLLM
Trinity needs TP=2 to fit across both MI350Xs:
```bash
# On the VM:
docker run --rm -d \
--name trinity \
--device /dev/kfd \
--device /dev/dri \
--group-add video \
--ipc host \
--network host \
-v ~/.cache/huggingface:/root/.cache/huggingface \
rocm/vllm:latest \
vllm serve arcee-ai/Trinity-Large-Preview-FP8 \
--tensor-parallel-size 2 \
--dtype auto \
--max-model-len 8192 \
--gpu-memory-utilization 0.90 \
--host 0.0.0.0 \
--port 8003
```
Watch the startup log:
```bash
docker logs -f trinity
```
Loading a 400B FP8 model across two GPUs takes **2–4 minutes**. Wait for:
```
INFO: Application startup complete.
```
Then verify:
```bash
curl http://localhost:8003/health
curl http://localhost:8003/v1/models | python3 -m json.tool
```
### 5. Test it
A quick sanity check via the OpenAI-compatible API before running benchmarks:
```bash
curl http://localhost:8003/v1/chat/completions \
-H "Content-Type: application/json" \
-d '{
"model": "arcee-ai/Trinity-Large-Preview-FP8",
"messages": [{"role": "user", "content": "Explain tensor parallelism in three sentences."}],
"max_tokens": 256
}'
```
The first request will be slowest — KV cache is cold. Subsequent requests warm up noticeably.
### 6. Dashboard
We created a quick dashboard for a live view of the model's telemetry — throughput, latency, GPU utilisation, VRAM, and KV cache — streamed via SSE from the vLLM metrics endpoint and the GPU stats sidecar.
<p><video src="https://iso.mulgadc.com/trinity-workload.mp4" controls width="100%" style="border-radius:6px"></video></p>
### 7. Benchmark results
Two captures were run against the live model:
- **Chat session:** A short interactive session — low concurrency, variable cadence, 56 s total. Reflects real conversational use.
- **Scripted benchmark:** 5-minute sustained load driver — rotating batch of 15 long-form technical prompts at 1.5 s cadence. Reflects peak throughput.
| Metric | Chat session | Benchmark (5 min) |
|---|---|---|
| Peak tok/s | 67.1 | 67.0 |
| Avg tok/s (under load) | 18.7 | **52.9** |
| Avg TTFT | 1668 ms | 758 ms |
| Min TTFT | 1502 ms | 538 ms |
| Max TTFT | 1871 ms | 1165 ms |
| GPU 0 util (avg) | 30.2% | 88.8% |
| GPU 1 util (avg) | 30.1% | 88.7% |
| VRAM per GPU | 259.6 GB | 259.6 GB |
| Avg power (both GPUs) | 664 W | 788 W |
| Peak power | 828 W | 839 W |
| GPU temp | 65 °C | 65 °C |
The lower avg utilisation in the chat session reflects idle gaps between conversational turns; peak throughput is identical at ~67 tok/s in both runs, indicating the hardware ceiling rather than a software one.
### Generation throughput
<img src="../../../.github/assets/images/trinity/trinity-throughput.png" alt="Trinity generation throughput — scripted benchmark">
Generation and prompt-ingest tok/s over the 5-minute benchmark. The model sustains ~53 tok/s average at continuous load, peaking at 67 tok/s.
### Per-GPU compute utilisation
<img src="../../../.github/assets/images/trinity/trinity-per-gpu-util.png" alt="Trinity per-GPU utilisation — scripted benchmark">
GPU 0 and GPU 1 track each other closely throughout the benchmark — TP=2 distributes attention and FFN layers symmetrically across both MI350Xs.
### Per-GPU VRAM
<img src="../../../.github/assets/images/trinity/trinity-per-gpu-vram.png" alt="Trinity per-GPU VRAM — scripted benchmark">
Both GPUs hold 259.6 GB — model weights sharded evenly, plus KV cache. 90.2% of HBM3e is occupied at rest, leaving ~26 GB headroom per GPU for active KV cache during generation.
### Per-GPU power
<img src="../../../.github/assets/images/trinity/trinity-per-gpu-power.png" alt="Trinity per-GPU power — scripted benchmark">
Power draw during active generation peaks at ~420 W per GPU, for a combined chassis draw well under the MI350X's 750 W TDP per card. Idle between prompts returns to ~300 W.
### Latency
<img src="../../../.github/assets/images/trinity/trinity-latency.png" alt="Trinity latency — scripted benchmark">
Cumulative average TTFT and E2E latency over the benchmark. TTFT settles to ~758 ms avg once the KV cache is warm; E2E tracks request length as expected.
### KV cache utilisation
<img src="../../../.github/assets/images/trinity/trinity-kv-cache.png" alt="Trinity KV cache utilisation — scripted benchmark">
KV cache occupancy rises as requests pile up during the sustained load phase. The queue depth stays near zero — the model keeps pace with the 1.5 s prompt cadence.
### 8. Teardown
```bash
# Stop the container
ssh -i ~/.ssh/spinifex-key ubuntu@$INSTANCE_IP 'docker stop trinity'
# Terminate the instance — releases the 2× MI350X back to the Spinifex pool
aws ec2 terminate-instances --instance-ids "$INSTANCE_ID"
```
The two MI350Xs are immediately available to Spinifex for a new workload once the instance terminates.
### 9. Conclusion
Trinity Large Preview demonstrates that frontier-class open-weight models are now within reach of a two-GPU bare-metal setup. The MoE architecture is crucial: 400B total parameters with only 13B active per token means the model generates at ~53 tok/s sustained and peaks at 67 tok/s on a pair of MI350Xs — throughput that would be difficult to match with a dense model of comparable quality at that memory footprint.
Combining this with Spinifex as the infrastructure layer allows teams to own the entire workflow. Provisioning a `g7e.12xlarge` instance, pulling a 400 GB model, and serving it through vLLM took a handful of standard `aws ec2` commands and a single `docker run`. The same workflow runs identically on any Spinifex-managed bare-metal node, with the GPUs returned to the pool when instances terminate.
For teams evaluating Trinity for production agentic workloads — tool calling, structured outputs, long-context reasoning — this represents a credible self-hosted deployment path: open weights, Apache 2.0 license, owned hardware and familiar tooling.
+2 -2
View File
@@ -73,7 +73,7 @@ All Spinifex nodes must include the following in their malware protection scope.
|------|----------|
| `/usr/local/bin/spx` | Spinifex CLI and service entry point. All `spinifex-*.service` units invoke `spx service <name> start`, so every service binary is reached through this one path. |
| `/usr/bin/ovn-*`, `/usr/bin/ovs-*` | OVN / OVS control-plane and datapath binaries (installed via `apt` from the `ovn-central`, `ovn-host`, `openvswitch-switch` packages). |
| `/usr/lib/<arch>-linux-gnu/nbdkit/plugins/nbdkit-viperblock-plugin.so` | Viperblock NBD plugin loaded by `nbdkit` to expose EBS volumes as block devices. The exact path comes from `nbdkit --dump-config` (`plugindir=`); on Debian 12 amd64 it is `/usr/lib/x86_64-linux-gnu/nbdkit/plugins/`. |
| `/usr/lib/<arch>-linux-gnu/nbdkit/plugins/nbdkit-viperblock-plugin.so` | Viperblock NBD plugin loaded by `nbdkit` to expose EBS volumes as block devices. The exact path comes from `nbdkit --dump-config` (`plugindir=`); on Debian 13 amd64 it is `/usr/lib/x86_64-linux-gnu/nbdkit/plugins/`. |
| `/usr/local/share/ca-certificates/spinifex-ca.crt` | Cluster CA cert installed into the system trust store |
### 1.2 Configuration and Secrets
@@ -157,7 +157,7 @@ All scan runs — scheduled and real-time — must produce a log entry that incl
## 4. Reference Configurations
The configurations below are reference baselines. They are known to meet the CMMC L1 objectives on a standard Debian 12 Spinifex node; they are not the only valid implementation. Operators running a commercial EDR should treat [§1](#1-designated-locations-sil1-3142-a) and [§3](#3-scan-schedule-sil1-3145) as the contract and configure their chosen product to match.
The configurations below are reference baselines. They are known to meet the CMMC L1 objectives on a standard Debian 13 Spinifex node; they are not the only valid implementation. Operators running a commercial EDR should treat [§1](#1-designated-locations-sil1-3142-a) and [§3](#3-scan-schedule-sil1-3145) as the contract and configure their chosen product to match.
### 4.1 ClamAV (signature-based AV)
+258
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@@ -0,0 +1,258 @@
---
title: "Media Sanitization and Disposal"
description: "Operator guide for sanitizing and disposing of storage media used by Spinifex nodes"
category: "Security"
sections:
- overview
tags:
- security
- compliance
- cmmc
- media
- sanitization
- disposal
- decommissioning
resources:
- title: "NIST SP 800-88 Rev 1 — Guidelines for Media Sanitization"
url: "https://csrc.nist.gov/pubs/sp/800/88/r1/final"
- title: "NIST SP 800-171 Rev 3"
url: "https://csrc.nist.gov/pubs/sp/800/171/r3/final"
- title: "CMMC Level 1 Self-Assessment Guide v2.0"
url: "https://dodcio.defense.gov/CMMC/Documentation"
- title: "ATA/ATAPI Command Set — Secure Erase"
url: "https://www.t13.org"
- title: "NVM Express — Sanitize Command"
url: "https://nvmexpress.org/specifications"
---
# Media Sanitization and Disposal
> Operator guide for sanitizing and disposing of storage media used by Spinifex nodes
## Table of Contents
- [Overview](#overview)
- [CMMC Practices Covered](#cmmc-practices-covered)
- [Approach](#approach)
- [1. Media in Scope](#1-media-in-scope)
- [2. Sanitization Method Selection](#2-sanitization-method-selection)
- [3. Volume-Level Sanitization — Before Reuse (MP.L1-3.8.3 [b])](#3-volume-level-sanitization--before-reuse-mpl1-383-b)
- [4. Whole-Drive and Node Decommissioning — Before Disposal (MP.L1-3.8.3 [a])](#4-whole-drive-and-node-decommissioning--before-disposal-mpl1-383-a)
- [5. Key Destruction](#5-key-destruction)
- [6. Removable and Backup Media](#6-removable-and-backup-media)
- [7. Evidence and Record Keeping](#7-evidence-and-record-keeping)
- [8. Operator Checklist](#8-operator-checklist)
---
## Overview
**Audience:** Operators decommissioning, reassigning, returning under warranty, or disposing of hardware that has been used to run Spinifex nodes in environments subject to CMMC Level 1, or any site that requires documented media sanitization.
**Scope:** Every storage medium that has, or may have, held Federal Contract Information (FCI) as part of a Spinifex deployment — node system disks, Viperblock WAL/chunk disks, Predastore object stores, NATS JetStream disks, removable master-key tokens, backup media, and any loose drives that previously occupied a Spinifex role. Guest VM internal media (disks as seen from inside a tenant VM) is the workload owner's responsibility and out of scope.
## CMMC Practices Covered
| Practice | Title | Objective |
|----------|-------|-----------|
| MP.L1-3.8.3 | Media Disposal | [a] System media containing FCI is sanitized or destroyed before disposal. [b] System media containing FCI is sanitized before it is released for reuse. |
## Approach
NIST SP 800-88 Rev 1 defines three sanitization categories — **Clear**, **Purge**, and **Destroy** — chosen by the confidentiality of the data and whether the medium will leave the operator's control. Spinifex discharges MP.L1-3.8.3 along two tracks:
1. **Volume-level sanitization** for EBS volumes and VM disks returning to the free pool. Handled in-platform by **cryptographic erase** — the per-volume data encryption key (DEK) is deleted, rendering the ciphertext in Predastore S3 irrecoverable. This is the NIST SP 800-88 **Purge**-level method for encrypted media.
2. **Whole-drive sanitization** for physical media leaving a Spinifex node — drive replacement, node retirement, warranty return, resale, or destruction. The operator runs the sanitization; Spinifex does not and cannot reach the firmware commands required. This guide prescribes the method per media type and the records to keep.
The key principle: every piece of media that ever held plaintext FCI (or keys that wrapped FCI ciphertext) must be sanitized to at least **Purge** before release for reuse, and to **Purge** or **Destroy** before leaving operator control. When in doubt, Destroy.
## 1. Media in Scope
Any medium in any of these roles on a Spinifex node has held, or may have held, FCI:
| Medium | Typical hardware | Contents |
|--------|------------------|----------|
| Node system disk | NVMe/SATA SSD | `/etc/spinifex/master.key`, cluster CA key, per-node TLS keys, service configs, logs, journal, swap. |
| Viperblock WAL device | NVMe/SATA SSD | Plaintext of in-flight block writes before chunking. High-churn, short residency, but FCI lands here. |
| Viperblock chunk cache / local backing | NVMe/SATA SSD or HDD | Encrypted volume chunks. |
| Predastore object store | NVMe/SATA SSD or HDD | All S3 object data — AMIs, snapshots, user-uploaded artifacts, IAM state files, tenant data. |
| NATS JetStream disk | NVMe/SATA SSD | IAM NATS token, cluster metadata, pending job state, NATS KV entries (including wrapped DEKs). |
| Removable master-key media | USB flash token, HSM, smart card | Master encryption key (Phase 4 USB-mount path). Destroying this sanitizes every DEK-encrypted volume cluster-wide. |
| Backup media | LTO tape, removable HDD/SSD, off-site cloud backup | Any of the above, point-in-time. |
| BMC / iDRAC / iLO storage | Embedded flash | Console recordings, SEL logs, BMC credentials, cached operator certificates. Sanitize via the BMC "Reset to defaults" / "Erase user data" command before disposal. |
| Switch / router config storage | Embedded flash | Cluster VLAN, management IPs, ACLs. Operator network kit, out of Spinifex scope but noted for completeness. |
| Optical / write-once media | DVD/BD-R | If used to transport keys or images. Always Destroy. |
Any drive whose history cannot be traced — pulled from a spares bin, recovered from a failed host, found unlabelled — must be treated as though it held FCI.
## 2. Sanitization Method Selection
The method depends on (a) media type and (b) whether the media remains inside the protected boundary after sanitization.
| Scenario | Minimum method | Reference |
|----------|----------------|-----------|
| Encrypted volume returning to free pool, DEK deletable | **Cryptographic Erase** (Purge) via DEK deletion | [§3](#3-volume-level-sanitization--before-reuse-mpl1-383-b) |
| SSD / NVMe leaving the node | **Cryptographic Erase** + **Purge** (SANITIZE block-erase or ATA Secure Erase) | [§4.1](#41-nvme-ssd) |
| Magnetic HDD leaving the node, operational | **Purge** (single-pass overwrite with verify, or ATA Secure Erase on drives that support it) | [§4.3](#43-hdd) |
| Magnetic HDD leaving the node, faulty (not writable) | **Destroy** (degauss followed by shred/incinerate) | [§4.3](#43-hdd) |
| Any media leaving operator control (resale, warranty, disposal) | **Destroy** if residual confidentiality concern remains after Purge; otherwise Purge + third-party attestation | [§4.4](#44-destruction) |
| Tape | **Destroy** (degauss + shred) — overwrite is not reliable on LTO with compression | [§6](#6-removable-and-backup-media) |
| Optical write-once | **Destroy** (shred/incinerate) | [§6](#6-removable-and-backup-media) |
| BMC / switch flash | Vendor "factory reset + erase user data"; Destroy chip if procedure is not available | [§1](#1-media-in-scope) |
**Cryptographic erase is only valid when** the key was generated and handled under modern cryptographic hygiene (AES-256 or equivalent, key never exfiltrated, key store itself sanitized) and the encrypted data was not also written anywhere in plaintext. For Spinifex volumes these conditions hold.
**Self-encrypting drives (SEDs)** support a single-command cryptographic erase via the TCG Opal "RevertSP" / `sedutil-cli --revertNoErase` or the ATA `SECURITY ERASE UNIT ENHANCED` that triggers the on-drive MEK rotation. When using an SED as a node system or data disk, record the SED model and method in the decommissioning procedure.
## 3. Volume-Level Sanitization — Before Reuse (MP.L1-3.8.3 [b])
Applies to EBS volumes, AMIs, and snapshots whose underlying storage will be reused for a different tenant or workload.
### 3.1 Cryptographic Erase via DEK Deletion
Deletion is sanitization:
- `DeleteVolume` removes the wrapped DEK from NATS KV. The chunks in Predastore S3 remain but are unrecoverable ciphertext. No further operator action is required.
- `TerminateInstances` with the default `DeleteOnTermination=true` on root volumes performs the same cryptographic erase for the terminated instance's root.
- `DeleteSnapshot` removes the snapshot's DEK wrapper; the underlying chunks become irrecoverable ciphertext.
This is the sanitization-before-reuse path for every in-platform object. Operators do not need to take separate action — the API call is the sanitization.
### 3.2 What Happens to the Physical Storage
Cryptographic erase leaves ciphertext chunks in Predastore. These chunks are eventually overwritten as new volumes reuse the space. For CMMC purposes, the ciphertext without the DEK satisfies Purge. The underlying drive still requires whole-drive sanitization when it eventually leaves the cluster — see [§4](#4-whole-drive-and-node-decommissioning--before-disposal-mpl1-383-a).
## 4. Whole-Drive and Node Decommissioning — Before Disposal (MP.L1-3.8.3 [a])
Applies when a physical drive — or a whole node — leaves the Spinifex cluster: drive swap, node retirement, warranty return, resale, recycling, destruction.
### 4.1 NVMe SSD
Preferred: the NVMe **SANITIZE** command with the **Block Erase** action. Supported on most enterprise NVMe drives.
```bash
# Confirm support
nvme id-ctrl /dev/nvme0 | grep -i sanicap
# Purge — block erase
nvme sanitize /dev/nvme0 --sanact=2
# Poll until complete
nvme sanitize-log /dev/nvme0
```
Fallback for drives without SANITIZE support: NVMe **Format** with Secure Erase set to 1 (`--ses=1`), or vendor tool. Cryptographic Erase (`--sanact=4`) is acceptable for SEDs whose encryption posture is documented; otherwise Block Erase is the safer default.
Boot media: NVMe targets must be the non-boot drive when running from the OS. For the node system disk, boot a sanitization-purpose live USB (e.g. [PartedMagic](https://partedmagic.com/), the vendor's diagnostic ISO) or pull the drive and sanitize in a dedicated sanitization workstation.
### 4.2 SATA/SAS SSD
Preferred: **ATA Secure Erase (Enhanced)** via `hdparm`:
```bash
# Confirm support and not frozen
hdparm -I /dev/sdX | grep -A1 "Security"
# If frozen, power-cycle (suspend/resume or hot-swap) without unplugging the OS disk
# Set password and issue enhanced erase
hdparm --user-master u --security-set-pass p /dev/sdX
hdparm --user-master u --security-erase-enhanced p /dev/sdX
```
Fallback: vendor Secure Erase utility, or `blkdiscard --secure /dev/sdX` on drives that report `TRIM deterministic + RZAT`. A single-pass overwrite with `shred -v -n 1 /dev/sdX` is **not** sufficient for SSDs because of wear-levelling reserve blocks — use Secure Erase or Destroy.
### 4.3 HDD
Preferred: **ATA Secure Erase** (same `hdparm` sequence as [§4.2](#42-satasas-ssd)). Most modern HDDs support it.
Fallback: single-pass overwrite with verify:
```bash
shred -v -n 1 -z /dev/sdX
# or
dd if=/dev/zero of=/dev/sdX bs=1M status=progress && \
cmp /dev/zero /dev/sdX # expect "EOF on /dev/zero" only
```
For HDDs that fail or refuse sanitization, or that held high-sensitivity data, **degauss then Destroy** — degaussing alone renders a modern HDD non-functional, so there is no reuse path after degauss. Degaussing requires an NSA/CSS-listed degausser appropriate to the drive's coercivity.
### 4.4 Destruction
When a drive cannot be sanitized (failed, SED with no working password, sanitize aborts) or when leaving operator control with any residual confidentiality concern, Destroy:
- **SSD/NVMe:** shred to ≤2 mm particle size (NSA/CSS EPL-listed shredder) or incinerate. Crushing alone is not sufficient for modern flash — chips can survive.
- **HDD:** degauss (on drives with magnetic platters) followed by shredding, drilling multiple holes through the platters and the head assembly, or incineration.
- **Tape, optical:** shredding.
- **Chain of custody:** transport destroyed media inside tamper-evident containers. The destruction record ([§7](#7-evidence-and-record-keeping)) must name the destruction method, destruction vendor (if third-party), and operator witness.
Third-party destruction vendors must provide a certificate of destruction listing every drive serial. Reconcile against the asset register before the destruction record is closed.
### 4.5 Node Decommissioning Runbook
When retiring a whole node:
1. **Drain** — migrate or terminate all instances hosted on the node; confirm Predastore and Viperblock roles are reassigned if the node held one. Volume DEKs of terminated instances are already cryptographically erased per [§3.1](#31-cryptographic-erase-via-dek-deletion).
2. **Deregister** — `bd`-linked change ticket; the operator removes the node from the cluster (`spx admin node remove`) so NATS routes, OVN chassis, and predastore distributed membership drop it.
3. **Stop services and unmount** — `systemctl stop 'spinifex-*'`, `nbdkit` sessions, OVN agent. Confirm `/run/spinifex/nbd/` is empty.
4. **Destroy on-disk keys** — see [§5](#5-key-destruction). This is the single most important step: sanitization of volume data reduces to sanitization of keys once data is encrypted.
5. **Sanitize each drive** by media type per [§4.1](#41-nvme-ssd) – [§4.3](#43-hdd). Every drive bay is sanitized, including any unpopulated cache or WAL devices.
6. **Verify** — capture the output of the sanitize/erase command (exit code + sanitize-log for NVMe, `hdparm -I` "not enabled, not locked" for ATA, overwrite verify for HDD overwrite) into the decommissioning record.
7. **Label** drives "Sanitized — <method> — <date> — <operator>" before they leave the rack or enter a transit container. Unlabelled drives are treated as unsanitized if reintroduced.
8. **Record** per [§7](#7-evidence-and-record-keeping).
## 5. Key Destruction
Cryptographic erase relies on the key being unrecoverable. A drive that previously held `/etc/spinifex/master.key` must have that key destroyed — otherwise an attacker with both the drive image and the key recovers the cleartext even after "erase".
| Key | Location | Destruction |
|-----|----------|-------------|
| `/etc/spinifex/master.key` | Node system disk (every node) | Overwrite the file (`shred -u /etc/spinifex/master.key`) before the drive is sanitized, in addition to drive sanitization. Once the master key is gone cluster-wide, every DEK it wrapped is effectively destroyed. |
| Cluster CA private key (`/etc/spinifex/ca.key`) | Leader node system disk | Same treatment. Loss of the CA key does not sanitize data, but prevents impersonation of the cluster identity post-disposal. |
| Per-node TLS private key (`/etc/spinifex/server.key`) | Each node system disk | `shred -u` before drive sanitization. |
| Wrapped DEKs in NATS KV | `/var/lib/spinifex/nats/` on NATS-carrying nodes | Deleted via the `DeleteVolume` API; the KV record is compacted. Sanitization of the NATS JetStream disk per [§4](#4-whole-drive-and-node-decommissioning--before-disposal-mpl1-383-a) ensures no recoverable copies. |
| Removable master-key media (Phase 4 USB) | USB flash token | Physically destroy the token when the cluster is decommissioned; alternatively retain inside a secured location as evidence of cluster-wide cryptographic erase. Do not reuse for another cluster without full sanitization (see [§6](#6-removable-and-backup-media)). |
| Backup-copy keys | Any off-site or escrow copy | Destroy simultaneously with the primary. A surviving backup defeats the cryptographic erase. |
If even one copy of the master key survives and the encrypted drives are recoverable, cryptographic erase has **not** been achieved. Track every key copy in the device register ([Physical Security Guide §5](/docs/security/physical-security-guide#5-manage-physical-access-devices-pel1-3105)).
## 6. Removable and Backup Media
| Media | Sanitization |
|-------|--------------|
| USB flash (master-key token, key-transport USB, image-import USB) | Destroy. The price of a replacement does not justify the risk of partial wear-levelled sanitization. Record the serial in the device register and the destruction in the decommissioning log. |
| External HDD/SSD (backup) | Treat as [§4.2](#42-satasas-ssd) / [§4.3](#43-hdd). |
| LTO tape | Degauss with a tape-rated degausser, then shred. Overwrite is not reliable under LTO hardware compression and is not accepted by 800-88 for tape Purge. |
| Optical (CD/DVD/BD-R) | Shred or incinerate. |
| Off-site cloud backup | Issue the cloud provider's delete-and-purge API; retain the provider's deletion-confirmation receipt. For cryptographically wrapped backups, destroy the wrapping key cluster-side and retain that deletion as evidence. |
| Printed material (console photos, recovery codes, admin handover sheets) | Cross-cut shred. |
Any removable medium that has entered the protected boundary and been written to must be tracked in the device register (see [Physical Security Guide §5](/docs/security/physical-security-guide#5-manage-physical-access-devices-pel1-3105)) and accounted for at decommissioning.
## 7. Evidence and Record Keeping
For CMMC assessment, retain the following for at least three years (or longer where contract policy requires):
- **Asset register** listing every drive and removable medium by serial number, media type, role in the cluster (system / WAL / chunk / predastore / NATS / backup), and in-service / decommissioned status.
- **Decommissioning record** per drive or node with: date, operator, sanitization method, command output or tool report, verification result, final disposition (reuse / return / destroy), destination (e.g. "warranty RMA #12345", "shredder vendor X, CoD #6789").
- **Certificates of destruction** from third-party vendors, reconciled against the asset register.
- **Key-destruction record** confirming `master.key`, CA key, and per-node keys were shredded before drive sanitization.
- **Exceptions log** — faulty drives that could not be sanitized and were destroyed instead; any sanitize failures and their resolution.
- **Annual attestation** from the operator confirming the procedures in this guide operated for the prior 12 months, signed by the named security owner.
Cross-reference each decommissioning record to the change ticket that drove the retirement, so drive disposal can be audited against cluster state change.
## 8. Operator Checklist
Use this list to confirm a Spinifex deployment meets MP.L1-3.8.3:
- Asset register enumerates every drive and removable medium by serial, media type, and role.
- Every volume-producing path uses encryption so that `DeleteVolume` is sanitization.
- Node-decommissioning runbook exists and matches [§4.5](#45-node-decommissioning-runbook), including the drain → deregister → key-destroy → drive-sanitize sequence.
- Sanitization method is pre-selected per media type per [§2](#2-sanitization-method-selection); tool availability (hdparm, nvme-cli, vendor ISOs, degausser, shredder or destruction vendor) is verified before a decommissioning begins.
- `master.key`, CA key, and per-node TLS keys are shredded before the drive holding them is sanitized.
- Every backup copy of any key is destroyed at the same time as the primary; surviving backup copies are tracked and accounted for.
- Removable media (USB, tape, optical) is destroyed rather than erased unless the medium is an SED with documented cryptographic erase.
- Decommissioning records capture method, tool output, verification, final disposition, and operator; certificates of destruction are reconciled against the asset register.
- Drives awaiting sanitization or awaiting pickup by a destruction vendor are held inside the physical protection boundary ([Physical Security Guide §1](/docs/security/physical-security-guide#1-protected-assets)) with chain of custody logged.
- System security plan references this guide and names the sanitization tooling, destruction vendor (if any), retention period for records, and the security owner attesting annually.
+2 -2
View File
@@ -105,8 +105,8 @@ Spinifex nodes initiate a small, fixed set of outbound connections.
| Destination | Purpose | Protocol | Verification |
|-------------|---------|----------|--------------|
| `https://cdimage.debian.org/cdimage/cloud/bookworm/latest` | Debian 12 cloud image download | HTTPS | TLS + checksum verification |
| `https://cloud-images.ubuntu.com/noble/current` | Ubuntu 24.04 LTS cloud image download | HTTPS | TLS + checksum verification |
| `https://cloud.debian.org/images/cloud/trixie/` | Debian 13 cloud image download | HTTPS | TLS + checksum verification |
| `https://cloud-images.ubuntu.com/resolute/` | Ubuntu 26.04 LTS cloud image download | HTTPS | TLS + checksum verification |
| `https://d2yp8ipz5jfqcw.cloudfront.net` | Alpine image for managed HAProxy load-balancer | HTTPS | TLS + checksum verification |
| `https://install.mulgadc.com/install` | One-shot install telemetry POST on `spx admin init` / `join`. | HTTPS | TLS |
+305
View File
@@ -0,0 +1,305 @@
# Service interface manifest.
#
# Source of truth for "which services produce/consume which NATS subjects"
# and "which e2e suites cover which services". Consumed by
# tests/e2e/select-suites (Bead 4) to derive targeted suite selection from
# a PR diff.
#
# See docs/development/improvements/e2e-targeted-suite-selection.md.
#
# Editing rules
# -------------
# - subscribes / publishes: subjects this service receives / sends. Both
# lists use the literal subject string, or a "<prefix>.*" wildcard for
# pattern subscriptions (e.g. "ebs.snapshot.*").
# - depends_on: subjects this service requires from peers. Used by the
# selector to compute "if X changes, which suites might break".
# - Subjects must match what is actually referenced in source. The lint
# in Bead 5 greps `"(ec2|vpc|ebs|s3|iam|elbv2|spinifex)\.[a-zA-Z._-]+"`
# and fails if any subject is absent from this manifest.
version: 1
services:
awsgw:
path: spinifex/services/awsgw
# TLS frontend, SigV4 auth. Pure router: HTTP → NATS request/response.
# No subscribes; only publishes (via NATSRequest).
subscribes: []
publishes:
- "ec2.*"
- "elbv2.*"
- "iam.*"
depends_on:
- "ec2.*"
- "elbv2.*"
- "iam.*"
spinifex_daemon:
path: spinifex/services/spinifex
# Orchestrator. Owns most ec2.* + all elbv2.* + iam event publication.
# Translates VPC / EBS / S3 operations into vpc.* / ebs.* / s3.* and
# forwards to vpcd / viperblockd / predastore.
#
# Source layout: spinifex/services/spinifex (entry), spinifex/daemon
# (subscribe registration), spinifex/handlers/{ec2,elbv2,iam} (per-
# subject handler bodies). Selector treats all four paths as belonging
# to this service via the `additional_paths` field.
additional_paths:
- spinifex/daemon
- spinifex/handlers/ec2
- spinifex/handlers/elbv2
- spinifex/handlers/iam
subscribes:
# EC2 instance lifecycle.
- "ec2.RunInstances"
- "ec2.DescribeInstances"
- "ec2.DescribeStoppedInstances"
- "ec2.DescribeTerminatedInstances"
- "ec2.DescribeInstanceAttribute"
- "ec2.DescribeInstanceStatus"
- "ec2.DescribeInstanceTypes"
- "ec2.ModifyInstanceAttribute"
- "ec2.ModifyVolume"
- "ec2.start"
- "ec2.terminate"
- "ec2.launch"
- "ec2.cmd.*"
# EC2 VPC / network ops handled by daemon before delegation to vpcd.
- "ec2.CreateVpc"
- "ec2.DescribeVpcs"
- "ec2.CreateSubnet"
- "ec2.CreateInternetGateway"
- "ec2.CreateKeyPair"
- "ec2.CreateImage"
- "ec2.DescribePlacementGroups"
# Cluster coordination subjects.
- "ec2.ReserveClusterNode"
- "ec2.FinalizeClusterInstances"
- "spinifex.node.status"
- "spinifex.node.vms"
- "spinifex.nodes.discover"
- "spinifex.cluster.shutdown.progress"
- "spinifex.storage.config"
# ELBv2 control plane (handlers/elbv2/service_nats.go topic map).
- "elbv2.CreateLoadBalancer"
- "elbv2.DeleteLoadBalancer"
- "elbv2.DescribeLoadBalancers"
- "elbv2.CreateTargetGroup"
- "elbv2.DeleteTargetGroup"
- "elbv2.DescribeTargetGroups"
- "elbv2.RegisterTargets"
- "elbv2.DeregisterTargets"
- "elbv2.DescribeTargetHealth"
- "elbv2.CreateListener"
- "elbv2.DeleteListener"
- "elbv2.DescribeListeners"
publishes:
# → vpcd
- "vpc.create"
- "vpc.delete"
- "vpc.create-subnet"
- "vpc.delete-subnet"
- "vpc.create-sg"
- "vpc.delete-sg"
- "vpc.update-sg"
- "vpc.create-port"
- "vpc.delete-port"
- "vpc.update-port-sgs"
- "vpc.igw-attach"
- "vpc.igw-detach"
- "vpc.add-nat-gateway"
- "vpc.delete-nat-gateway"
- "vpc.add-nat"
- "vpc.delete-nat"
- "vpc.dhcp.acquire"
- "vpc.dhcp.release"
# → viperblockd
- "ebs.mount"
- "ebs.unmount"
- "ebs.delete"
- "ebs.sync"
- "ebs.snapshot.*"
# → predastore (S3 / AMI / keypair store)
- "s3.*"
# IAM lifecycle event
- "iam.account.created"
depends_on:
- "vpc.*"
- "ebs.*"
- "s3.*"
vpcd:
path: spinifex/vpcd
# OVN-backed VPC / subnet / SG / NAT / IGW data plane.
subscribes:
- "vpc.create"
- "vpc.delete"
- "vpc.create-subnet"
- "vpc.delete-subnet"
- "vpc.create-sg"
- "vpc.delete-sg"
- "vpc.update-sg"
- "vpc.create-port"
- "vpc.delete-port"
- "vpc.update-port-sgs"
- "vpc.igw-attach"
- "vpc.igw-detach"
- "vpc.add-nat-gateway"
- "vpc.delete-nat-gateway"
- "vpc.add-nat"
- "vpc.delete-nat"
- "vpc.dhcp.acquire"
- "vpc.dhcp.release"
publishes:
- "vpc.port-status"
- "vpc.dhcp.lease-expired"
depends_on: []
viperblockd:
path: spinifex/services/viperblockd
# EBS data plane. Backed by the viperblock storage engine in the
# mulga/viperblock submodule. Submodule pointer bump → selector forces
# "run all" (contract changes can be invisible at the spinifex source
# level).
subscribes:
- "ebs.mount"
- "ebs.unmount"
- "ebs.delete"
- "ebs.sync"
- "ebs.snapshot.*"
publishes:
- "ebs.mount.response"
- "ebs.unmount.response"
depends_on: []
predastore:
path: spinifex/services/predastore
# S3 / AMI / keypair storage. External submodule under mulga/predastore;
# this dir contains only the spinifex-side adapter. Submodule pointer
# bump → selector forces "run all".
subscribes:
- "s3.*"
publishes: []
depends_on: []
nats:
path: spinifex/services/nats
# NATS broker bootstrap / cluster config. Not a NATS pub/sub
# participant. Any change here is infra-path; selector forces
# "run all".
subscribes: []
publishes: []
depends_on: []
spinifexui:
path: spinifex/services/spinifexui
# Web UI. Talks to awsgw over HTTP, never NATS. Diffs limited to this
# dir do not need any e2e suite to run.
subscribes: []
publishes: []
depends_on: []
covers_no_suite: true
# Fixture → service mapping. Each Ensure* helper in
# tests/e2e/harness/fixtures.go exercises this set of services; the
# Bead 4 selector AST-scans test files for harness.Ensure* call sites
# and resolves coverage via this block.
fixtures:
EnsureKeyPair:
services: [spinifex_daemon, predastore]
EnsureAMI:
services: [spinifex_daemon, predastore, viperblockd]
EnsureDefaultVPC:
services: [vpcd, spinifex_daemon]
EnsureSubnet:
services: [vpcd, spinifex_daemon]
EnsureSG:
services: [vpcd, spinifex_daemon]
EnsureInstance:
services: [spinifex_daemon, viperblockd, vpcd]
EnsureVolume:
services: [spinifex_daemon, viperblockd]
EnsureSnapshot:
services: [spinifex_daemon, viperblockd, predastore]
EnsureNATGateway:
services: [vpcd, spinifex_daemon]
EnsureLoadBalancer:
services: [spinifex_daemon, awsgw]
suites:
e2e-cert:
path: tests/e2e/cert
covers: [awsgw, spinifex_daemon, vpcd, predastore]
e2e-lb:
path: tests/e2e/lb
covers: [awsgw, spinifex_daemon, vpcd, viperblockd, predastore]
# Exercises full ELBv2 control plane (handlers/elbv2) + data plane
# (LB agent on the system VM). ELBv2 is part of spinifex_daemon in
# this manifest; revisit if it splits into a standalone service.
e2e-single:
path: tests/e2e/single
covers: [awsgw, spinifex_daemon, vpcd, viperblockd, predastore]
# Full single-node lifecycle: VPC, AMI, keypair, instance, volume,
# snapshot, IAM. Currently runs all phases sequentially under one
# `TestSingleNode`. Bead 3 (single-fixture-migration) splits this
# into per-test fixture-driven coverage so the selector can pick
# subtests, not just whole suites.
e2e-ddil:
path: tests/e2e/ddil
covers: [awsgw, spinifex_daemon, vpcd, viperblockd, predastore]
# DDIL = degraded / disconnected / intermittent / low-bandwidth.
# Exercises the full daemon stack under network failure injection;
# any service touching the wire path is in scope.
# Suites below are bash-only today. Entries activate as the Go ports
# land (Bead 2 fixtures unblock new-shape ports for multinode etc.).
#
# e2e-multinode:
# path: spinifex/tests/e2e/multinode
# covers: [awsgw, spinifex_daemon, vpcd, viperblockd, predastore]
# e2e-reboot:
# path: spinifex/tests/e2e/reboot
# covers: [spinifex_daemon, viperblockd]
# e2e-tofu:
# path: spinifex/tests/e2e/tofu
# covers: [awsgw, spinifex_daemon, vpcd]
# e2e-bm:
# path: spinifex/tests/e2e/baremetal
# covers: [awsgw, spinifex_daemon, vpcd, viperblockd, predastore]
# Special-case rules consumed by the selector (Bead 4). Hard-coded in
# the tool, listed here for visibility.
#
# infra_paths_force_all:
# - spinifex/services/nats/**
# - spinifex/tests/e2e/harness/**
# - spinifex/tests/e2e/lib/**
# - spinifex/.github/workflows/e2e-go.yml
# - spinifex/.github/scripts/**
# - spinifex/Makefile
# - mulga/scripts/tofu-cluster/**
#
# submodule_force_all:
# - mulga/predastore (submodule pointer)
# - mulga/viperblock (submodule pointer)
#
# many_services_force_all_threshold: 3 # ≥ N services touched → run all
@@ -56,7 +56,7 @@ Deploy a VPC with public and private subnets where the private subnet has no int
**Prerequisites:**
- Spinifex installed and running (see [Installing Spinifex](/docs/install))
- An Ubuntu 24.04 AMI imported (see [Setting Up Your Cluster](/docs/setting-up-your-cluster))
- An Ubuntu 26.04 AMI imported (see [Setting Up Your Cluster](/docs/setting-up-your-cluster))
- OpenTofu or Terraform installed
## Instructions
@@ -149,7 +149,7 @@ The private route table should have no `0.0.0.0/0` route. Also verify the privat
### AMI Not Found
Ensure you have imported an Ubuntu 24.04 image:
Ensure you have imported an Ubuntu 26.04 image:
```bash
aws ec2 describe-images --owners 000000000000 --profile spinifex
@@ -96,7 +96,7 @@ data "aws_ami" "ubuntu" {
filter {
name = "name"
values = ["*ubuntu-24.04*"]
values = ["*ubuntu-26.04*", "*ubuntu-24.04*"]
}
filter {
+8 -14
View File
@@ -58,7 +58,7 @@ Deploy two Nginx web servers behind an internet-facing Application Load Balancer
| Elastic IP | `nginx-alb-nat-eip` | Public address for the NAT Gateway |
| NAT Gateway | `nginx-alb-nat` | Outbound internet for the private subnets (cloud-init apt bootstrap) |
| Security Group | `nginx-alb-sg` | Allows SSH (22) and HTTP (80) inbound |
| EC2 Instances | `nginx-alb-1`, `nginx-alb-2` | Ubuntu 24.04 with Nginx via cloud-init (private subnets) |
| EC2 Instances | `nginx-alb-1`, `nginx-alb-2` | Ubuntu 26.04 with Nginx via cloud-init (private subnets) |
| ALB | `nginx-alb` | Internet-facing Application Load Balancer on port 80 |
| Target Group | `nginx-alb-tg` | HTTP health-checked group for both instances |
| Listener | HTTP :80 | Forwards traffic to the target group |
@@ -66,7 +66,7 @@ Deploy two Nginx web servers behind an internet-facing Application Load Balancer
**Prerequisites:**
- Spinifex installed and running (see [Installing Spinifex](/docs/install))
- An Ubuntu 24.04 AMI imported (see [Setting Up Your Cluster](/docs/setting-up-your-cluster))
- An Ubuntu 26.04 AMI imported (see [Setting Up Your Cluster](/docs/setting-up-your-cluster))
- OpenTofu or Terraform installed
## Instructions
@@ -86,21 +86,15 @@ Or create a `main.tf` file and paste the full configuration below.
<!-- INCLUDE: main.tf lang:hcl -->
### Step 2. Install Load Balancer AMI
### Step 2. Install Debian AMI
Next install the load balancer AMI images, which is used as the AMI disk image for launching the load-balancer and a requirement.
Install the Debian 13 AMI which is used in the example to host the `nginx` webservers as an EC2 instance.
```bash
spx admin images import --name lb-alpine-3.21.6-x86_64
spx admin images import --name debian-13-x86_64
```
### Step 2.1 Install Debian AMI
Next, install the Debian 12 AMI which is used in the example to host the `nginx` webservers as an EC2 instance.
```bash
spx admin images import --name debian-12-x86_64
```
> **Note:** The load balancer itself runs as a direct-boot QEMU microvm using the kernel + initramfs bundled with the Spinifex distribution (`/usr/share/spinifex/microvm/`), so no separate LB AMI import is required.
### Step 3. Deploy
@@ -184,7 +178,7 @@ tofu destroy
### AMI Not Found
Ensure you have imported an Ubuntu 24.04 image. Check available AMIs:
Ensure you have imported an Ubuntu 26.04 image. Check available AMIs:
```bash
aws ec2 describe-images --owners 000000000000 --profile spinifex
@@ -193,7 +187,7 @@ aws ec2 describe-images --owners 000000000000 --profile spinifex
If missing import:
```bash
spx admin images import --name ubuntu-24.04-x86_64
spx admin images import --name ubuntu-26.04-x86_64
```
### Provider Connection Refused
+1 -1
View File
@@ -102,7 +102,7 @@ data "aws_ami" "ubuntu" {
filter {
name = "name"
values = ["*ubuntu-24.04*"]
values = ["*ubuntu-26.04*", "*ubuntu-24.04*"]
}
}
@@ -43,7 +43,7 @@ Deploy a complete Nginx web server on Spinifex using Terraform/OpenTofu. This wo
**Prerequisites:**
- Spinifex installed and running (see [Installing Spinifex](/docs/install))
- An Ubuntu 24.04 AMI imported (see [Setting Up Your Cluster](/docs/setting-up-your-cluster))
- An Ubuntu 26.04 AMI imported (see [Setting Up Your Cluster](/docs/setting-up-your-cluster))
- OpenTofu or Terraform installed
## Instructions
@@ -96,7 +96,7 @@ tofu destroy
### AMI Not Found
Ensure you have imported an Ubuntu 24.04 image. Check available AMIs:
Ensure you have imported an Ubuntu 26.04 image. Check available AMIs:
```bash
aws ec2 describe-images --owners 000000000000 --profile spinifex

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