* fix(replication): resolve drifted replicas via a target version ledger
A replication target that mints its own version ids (Wasabi, AWS S3)
never answers to the source uuid, so every version-addressed mutation
after the initial PUT failed forever: permanent version deletes answered
NoSuchVersion every heal cycle, and tag / retention / legal-hold updates
re-PUT the object, minting one more target version per update
(rustfs/backlog#2340).
Record the id the target assigned as a per-target ledger on the source
version (replication-target-version-<arn>, written through the existing
status writeback) and resolve every later mutation through it: version
deletes DELETE the ledger id, metadata updates go through the
metadata-only Object Lock and tagging APIs. Replicas written before the
ledger existed are located by exact key and ETag, minus the candidates
other generations of the key already claim through their own ledgers; an
ambiguous remainder is refused with a backoff instead of guessed, since a
wrong pick would destroy a live generation. A fresh write never consults
content identity. NoSuchVersion on a version-addressed DELETE counts as
purged.
The fake target gains the Wasabi shape (404 NoSuchVersion on an unknown
id, per-version Object Lock APIs) and the matrix covers the three
mutation classes plus the same-bytes generation case.
* fix(scanner): drop the unused Digest import
Same one-line change as rustfs/rustfs#7366 (main is red with it under -D warnings); carried here so the stacked PRs' merge commits compile until that fix lands.
* fix(admin): probe replication-check mutations by the assigned version id (#7373)
On a target that mints its own version ids the DeleteMarker and
VersionDelete phases of ?replication-check were skipped: they addressed
the source id, which such a target never had. The replication worker now
addresses the id the target assigned (the target-version ledger), and
the probe already holds that id from its own PUT, so run both phases
against it. VersionFidelity keeps failing with the mismatch code and the
target stays FAILED; the phases report whether ledger-addressed purges
work against this endpoint (rustfs/backlog#2340).
* fix(replication): abandon purges to targets the bucket no longer names (#7377)
* fix(admin): probe replication-check mutations by the assigned version id
On a target that mints its own version ids the DeleteMarker and
VersionDelete phases of ?replication-check were skipped: they addressed
the source id, which such a target never had. The replication worker now
addresses the id the target assigned (the target-version ledger), and
the probe already holds that id from its own PUT, so run both phases
against it. VersionFidelity keeps failing with the mismatch code and the
target stays FAILED; the phases report whether ledger-addressed purges
work against this endpoint (rustfs/backlog#2340).
* fix(replication): abandon purges to targets the bucket no longer names
A permanent version delete whose replication keeps failing stays in
xl.meta as a PENDING purge, hidden from listings, until every target
confirms it. Once the operator removes the replication configuration or
the rule naming that target nothing ever confirms it: the heal path
derived its delete decision from the configuration (the decision string
is not persisted) and skipped the version forever, so DeleteBucket
answered BucketNotEmpty for a residue the client could neither list nor
remove (rustfs/backlog#2340).
Owe a version purge to the targets its purge state names, let the heal
path through without a configuration, and have the delete worker settle
a target the configuration no longer names as abandoned: the purge is
reported complete locally through the normal writeback, the replica on
the former target is left alone, and the event
replication_purge_abandoned plus a counter are the record.
* fix(admin): send replication-check marker creation without a version id
Running the DeleteMarker / VersionDelete phases on a target that mints
its own version ids exposed two probe-shape bugs on real Wasabi:
- the DeleteMarker phase put the assigned version id on its DELETE. A
RustFS peer reads the source-deletemarker header and creates a marker,
but a generic S3 target executes it as a permanent delete of the probe
version, so VersionDelete then answered NoSuchVersion. Use the same wire
shape as live delete replication: no versionId on a marker creation.
- cleanup treated NoSuchVersion on the version the VersionDelete phase had
already removed as a failure (RustFS/MinIO answer 204 there).
Also gate the no-configuration heal pass-through for pending purges on a
purge state that actually names targets, so a purge without a recorded
target keeps the ordinary skip (scanner unit test), and merge origin/main
(#7365 settles the pool-metadata probe test that failed in CI).
---------
Co-authored-by: houseme <housemecn@gmail.com>
* fix(replication): send an integrity header on Object Lock replication PUTs
AWS S3, MinIO and most compatible targets reject a PutObject that carries
x-amz-object-lock-* headers unless it also carries Content-MD5 or an
x-amz-checksum-* header. Since rustfs#6895 the replication client sends
plain signed payloads with no SDK checksum, so every replicated object
with a retention period or legal hold failed against such targets.
TargetClient::put_object now decides per request through the pure
rustfs_replication::object_lock_put_integrity: a plaintext single-part
object whose source ETag is its MD5 gets Content-MD5 derived from the
ETag (no body pass, framing unchanged); a multipart-layout ETag, managed
SSE or SSE-C passthrough falls back to an SDK CRC32; a forwarded source
checksum or an unlocked PUT is left alone.
The outbound target matrix flips its two KnownFailing(rustfs#7082) cells
to Completed and every Completed cell now asserts that a locked
PutObject carried an integrity header.
Fixes rustfs#7082.
* test(e2e): keep the matrix expectation table clippy-clean under -D warnings
The CI lint runs cargo clippy --all-targets -- -D warnings. With every cell
green the single-arm match tripped match_single_binding and the unused
KnownFailing variant tripped dead_code, and the target-client tests tripped
field_reassign_with_default. Drive the expectation table from a
KNOWN_FAILING_CELLS constant (so the variant stays live and adding a red
cell is a one-line entry), build the test options as struct literals, and
refresh the e2e-repl-nightly selection digest for the renamed table test.
The guard added in #7021 fails a >5 GiB single-PutObject replication up
front instead of streaming the body to a target that must reject it. Its
message asserted a conclusion: "was not written as multipart on the
source ... re-upload it with multipart". That text is only as right as
the transport decision feeding it, and until #7047 that decision was
wrong for multipart objects carrying a full-object checksum. On 1.0.0-rc.5
a 768-part object was misrouted to the single-PUT path, and the new
default-level error line told the operator to re-upload as multipart an
object whose own ETag ended in -768.
State the evidence instead of the conclusion. The message now quotes the
ETag the decision was read from and says what was read from it (no
part-count suffix), so an operator can check the line against the
object's listing. A misroute then reads as a visible contradiction --
a suffixed ETag on a single-PUT line -- and the message says that case is
a transport-selection defect to report, not something to fix by
re-uploading. A missing or empty ETag is printed as <none> rather than
hidden.
The routing itself is already fixed by #7047; this changes only what the
guard says when it fires.
Replication could fail an object with nothing in the server log an
operator could act on. Every failure branch in the resyncer is quieter
than `error` on purpose — most sit on the hot path and fire once per
object per ARN — but `DEFAULT_LOG_LEVEL` is `error`, so on a stock
deployment a failed object produced no line at all. Raising those
branches to `warn` (#6840) did not close this: the default filter still
dropped them.
Report the terminal outcome instead of the branches. `replicate_object_
with_outcome` and `replicate_delete_with_outcome` now emit one `error`
per failed (object, target) once the per-target results are merged,
carrying the object key, version id, target ARN and endpoint, and the
target's own error, redacted through `sanitize_resync_error_detail` so
an echoed credential cannot reach the log. Volume is bounded by objects
that actually fail rather than by attempts inside a transfer.
Also state the single-PutObject size limit instead of discovering it at
the target. Replication picks its transport from the source object's
storage shape, not its size, so an object written with one PutObject
replicates with one PutObject however large it is — and S3 caps that at
5 GiB. Such an object could never reach a generic S3 target, and only
found out after streaming the whole body. `replication_single_put_size_
error` fails it up front with a message naming the size, the limit, and
the remedy.
Version-identity drift moves to `error` on a 10-minute per-ARN throttle.
It was `warn` deduped once per ARN per process, so the one line
explaining why a purged version is still on the target was both filtered
out by default and gone for good after it first fired.
Fixes#6825
Refs #6822
fix(replication): never mint delete markers when replicating a version purge
Heal/resync/MRF rebuilds of a delete-marker version purge carry
delete_marker: true together with a purge-shaped entry. Passing that flag
straight into replication_delete_remove_options made the target DELETE
omit the versionId (marker-creation semantics), so a generic S3 target
that ignores the internal source-version headers minted a fresh delete
marker on every retry instead of purging one — the marker count on the
target grew monotonically (rustfs#6823).
- Gate marker-creation semantics on the new pure helper
delete_replication_creates_marker (delete_marker && !version purge) so
a purge always addresses the exact version.
- Stop falling through to the marker-creation send when the pre-send
source delete-marker verification fails with a transient error; fail
the entry instead so the MRF replay / heal scanner retries without
minting a marker on the target.
- Pin the purge-shape contract with unit tests in
crates/replication/src/delete.rs.
Also replace deprecated Atomic::fetch_update calls with try_update so the
current Rust toolchain keeps lint and CI jobs warning-clean.
Co-authored-by: heihutu <heihutu@gmail.com>
Backlog#1845 step 7. The replication crate's hand-rolled, crate-generic Error type actually describes one thing: failures of the persisted resync/MRF state files. Rename it to ResyncStateError so the name says so, and stop collapsing io::Error into Other(String): a new Io(std::io::Error) variant keeps the kind and source chain, Display renders identically, and the ecstore boundary maps it to StorageError::Io so the kind survives into store-layer classification instead of degrading into a stringified other().
No thiserror introduced - the crate keeps its zero-internal-deps posture and hand-written impls.
Ref rustfs/backlog#1845
* fix(replication): tolerate orphaned resync intents at startup
Since #5215 (1.0.0-beta.12) startup reconciles every pending/started
resync intent in resync.bin against the bucket's configured targets and
aborts the whole server when an intent has no matching target ARN. A
resync whose remote target was later removed leaves exactly such an
orphan on disk, so every later start fails with "accepted replication
resync target ... is not configured" regardless of the binary version.
Skip orphaned intents with a warning instead of failing startup; the
resync routine already settles them to ResyncFailed. Cancel the intent
when its remote target is removed so the orphan is not created again.
Fixes#4784
* fix(replication): cancel removed-target resync under the admission lock
Canceling through this node's cached whole-bucket status map could
persist a map that predates another node's admission, erasing that
node's durable restart intent. Reload resync.bin under the bucket
admission lock, publish the fresh map, and only then mark the removed
target's intent canceled. Two-node regression covers the clobber.
* fix(replication): persist resync status via ETag CAS merge
mark_status, the periodic saver, admission, and removed-target
cancellation all persisted their node's cached whole-bucket map, so any
one node's stale cache could resurrect states another node had already
finalized (a canceled intent flipping back to Pending, an admission
vanishing). All resync.bin writers now go through update_resync_status_cas:
load the freshest document with its ETag, apply a per-target mutation
with staleness and canceled-is-terminal guards re-checked against the
persisted entry, and save conditionally, retrying on concurrent writes.
The periodic saver merges per target, letting terminal states and newer
admissions recorded elsewhere win. Cache convergence stays per-target so
locally running resyncs keep their authoritative progress counters.
Regressions: stale_peer_status_write_cannot_resurrect_canceled_intent
(node B's pre-cancel cache marking its own run Started must not revive
node A's canceled intent) plus unit coverage for the periodic-save merge.
* test(ecstore): rename resync test helper off the guarded contract name
fn resync_target is on the architecture guard's reserved list for
crates/replication operation contracts; the merge-test helper now reads
resync_target_state.
* fix(replication): serialize resync status updates
---------
Co-authored-by: overtrue <anzhengchao@gmail.com>
* fix(replication): deny non-owner replication config edits under site replication
Under site replication a user holding only bucket-scoped
s3:PutReplicationConfiguration could rewrite or erase the operator-managed
site-repl-* rules, with the change broadcast to every peer (backlog#1948,
audit A1/P2-17).
- Gate PutBucketReplication/DeleteBucketReplication in the S3 handlers:
when site replication is enabled and the requester is not the owner,
return MinIO-parity XMinioReplicationDenyEdit (HTTP 400). The gate runs
after policy authorization and only on the external S3 path; the
reconciler and peer bucket-meta ingestion are unaffected.
- Defense in depth in the bucket usecase: PUT merges the incoming config
with the stored site-repl-* rules (same merge as peer ingestion) instead
of overwriting verbatim; DELETE keeps the site-repl-* rules and never
garbage-collects a bucket target a surviving site-replication rule still
references.
- Move is_site_replication_rule / merge_incoming_replication_config /
replication_target_arn_deployment_id from the admin site-replication
handler down to rustfs-replication so the app layer can reuse them
without new layering violations.
* fix(replication): scope site-owned rule detection to reconciler-derived rules
The `site-repl-*` prefix alone classified any rule as site-owned, so on a
bucket outside site replication an owner's `site-repl-user` rule survived
DeleteBucketReplication (rule and target kept, success returned). Rule ids
do not reserve that namespace.
A rule is reconciler-owned only when it matches what the reconciler
derives: id `site-repl-<deployment id>` for a current remote site
replication peer and a destination ARN naming that same deployment id.
The S3 put/delete path reads the remote peer set (empty when site
replication is disabled) and keeps exactly those rules; everything else
is operator state the request replaces or deletes. An incoming rule that
claims a current peer's id is dropped so the reconciler rule's id stays
unique. The peer ingestion path and the reconciler keep their prefix
predicate unchanged.
* fix(replication): keep operator rule priorities across site rule merges
Merging stored site-replication rules into a PutBucketReplication body
renumbered every rule 1..n in list order, rewriting the submitted policy:
overlapping same-target rules submitted as priority 5 then 1 became 1
then 2, so the delete-marker-disabled rule won the replication decision.
The reconciler and the peer-removal prune renumbered the same way.
Operator priorities now stay verbatim everywhere; only the reconciler's
derived rules move, to the lowest priorities no operator rule uses, via
one pure helper shared by the S3 edit merge, the peer ingestion merge,
the reconciler pass and the prune. Being a pure function of the rule
list it is idempotent, so the reconciler's no-op check still holds after
a merged write, and an on-disk config in the historical layout (operator
rules 1..k, site rules k+1..n) yields the same bytes, so nothing is
rewritten on upgrade.
* fix(replication): pass site peer ids into the bucket usecase from the interface layer
The review fix made the bucket usecase read the site-replication peer set
through the admin handlers, an app->interface import the layer guard
rejects. The S3 handlers (interface) now read the peer set and pass it in,
so the usecase stays a pure function of its inputs; a state-read failure
still fails the edit closed, just one layer up.
* fix(replication): classify peer-ingested rules by the derived id/ARN contract
The peer ingestion merge still treated every incoming `site-repl-*` id as
reconciler-owned, so an owner-authored `site-repl-user` rule that the S3
merge now keeps on the editing site was dropped on every peer and the
sites persisted different operator configs.
The ingestion merge now classifies by the same derived contract as the
S3 merge: a rule is the reconciler's only when its `site-repl-<id>` names
the deployment its destination ARN targets and that deployment is a site
of the cluster (the receiver's own id included, since the sender's rule
towards the receiver names it). The reconciler, the peer-removal prune
and the target-online probe switch from the id prefix to the derived
shape as well, so the rule survives their passes too; rules in the
derived shape that name a removed peer or this site are still rebuilt
away.
Regression: a PutBucketReplication merged on site A and ingested on
site B keeps `site-repl-user` on both and the operator rule sets agree.
* fix(replication): keep an operator role target through site rule merges
The S3 and peer-ingestion merges cleared `Role` whenever it parsed as a
site-replication ARN, which an owner-submitted remote target with an
empty region (`arn:minio:replication::<id>:<bucket>`) also does. The
merged config then selected the rule destination ARNs instead of the
validated role target.
Only a role naming a current site of the cluster is the holder's
identity (the reconciler's per-peer target lookup reads it); every other
role passed target validation and stays. The reconciler's repair pass
applies the same rule.
Regression: an owner role target survives both merges and
`filter_target_arns` / `replication_target_arns` select it; a role naming
a current peer is still cleared.
* fix(replication): gate operator priority preservation on a peer contract probe
Keeping operator rule priorities verbatim is not rolling-upgrade safe: a
peer still running the pre-contract code renumbers every rule 1..n in
list order on ingest and on each reconciler pass, so an upgraded site
broadcasting `5,1` leaves that peer on `1,2` — which can select the
other overlapping rule — and the sites never reconverge.
Operator rules now merge under an explicit contract:
- `OperatorRuleContract::Derived`: site rules are the derived id/ARN
shape, operator priorities stay verbatim (the behavior of the previous
commits).
- `OperatorRuleContract::Legacy`: byte-for-byte what a pre-contract peer
does — `site-repl-*` ids are all site rules, a site-replication-shaped
`Role` is dropped, every rule is renumbered 1..n in list order. The S3
merge additionally lists the operator rules in priority order first,
so the renumbering keeps their relative order and the winning rule per
target is the one the operator submitted.
The S3 PutBucketReplication/DeleteBucketReplication path probes every
remote peer through the existing `peer/edit-capabilities` endpoint
(capability `derived-rule-contract`; pre-contract peers answer
`success:false` or 404) and merges under Derived only when every peer
supports it; any refusal or probe failure pins that edit to Legacy.
Every bucket-meta item this site sends (S3 hooks, bootstrap plan, retry
snapshots, tombstones) carries `derivedRuleContract: true`; a receiver
merges a payload without the marker the Legacy way, so an item from a
pre-contract sender is handled exactly as its own peers handle it.
Rolling upgrade: while any site runs the older code every edit is
canonicalized cluster-wide (numbers lost, order kept); once the last
site is upgraded the next edit keeps its priorities. Configs
canonicalized during the mixed period are not renumbered back — the
derived priority assignment is a no-op on the canonical layout — so an
operator who wants the original values re-submits the config after the
upgrade completes. Adding a site that runs the older code after
priorities were preserved is not gated and would desynchronize that
bucket until the next edit.
---------
Co-authored-by: houseme <housemecn@gmail.com>
The read-proxy selector already honors a target's disable_proxy flag
(PR #6172), but the admin API still rejected the field, so the only way
to set it was importing a MinIO-written bucket-targets.json.
- move disableProxy from REMOTE_TARGET_UNSUPPORTED_FIELDS to
REMOTE_TARGET_WRITABLE_FIELDS (set-remote-target create accepts it)
- add TargetUpdateOp::Proxy so set-remote-target?update=true&proxy=true
overlays only the proxy group (MinIO TargetUpdateType parity)
- bump REMOTE_TARGET_CAPABILITY_CONTRACT_VERSION 1 -> 2 and update the
runtime capability pin tests
- keep edge/edgeSyncBeforeExpiry rejected (no implementation behind them)
- pin that a published TargetClient carries disable_proxy, the field the
proxy-target selector consults
Refs rustfs/backlog#1950
* refactor(replication): split four oversized hot-path functions into focused helpers
Pure-move decomposition of the four oversized functions flagged by the
replication compatibility review (P1-18), unblocking migration milestone
M2 which requires resyncer moves to stay mechanical:
- resync_bucket (522 lines -> 61-line step sequence): leader lock,
target resolution, walk/collector/worker spawning, and dispatch loop
extracted into focused helpers; pure decision helpers (DTO builders,
HEAD-result classification) separated from IO orchestration.
- replicate_all (411 lines -> 113-line main body): initial target-info
seeding, read/stat option builders, skip-path notes, target HEAD
action resolution, and the multipart/single-put payload transport
extracted as private free functions.
- start_mrf_processor (306 lines -> 46-line spawn body): recovery guard,
ledger load, per-entry replay (delete/object/metadata), and retained
entry resolution extracted; retry bookkeeping semantics preserved
exactly (inner continue-paths push inside helpers, outer Missed push
stays in the loop).
- apply_iam_item (255 lines -> match dispatch skeleton): one helper per
IAM item type.
No behavior change: log texts, error paths, event emissions, and metric
counts are byte-identical; existing tests unchanged and green (238
ecstore replication/mrf/resync + 232 rustfs site-replication).
* feat(replication): proxy GET/HEAD/Tagging for unreplicated objects to replication targets (#6172)
* feat(replication): proxy GET/HEAD/Tagging for unreplicated objects to replication targets
Implements the MinIO active-active read-proxy protocol (P1-5 of the
replication compatibility review): when a GET/HEAD/GetObjectTagging/
PutObjectTagging/DeleteObjectTagging request fails locally with
not-found and the bucket has replication targets, the request is proxied
to the targets in rule order, mirroring bucket-replication.go
proxyGetToReplicationTarget/proxyHeadToRepTarget/proxyTaggingToRepTarget.
Protocol surface:
- Anti-loop: inbound {x-rustfs-,x-minio-}source-proxy-request is parsed
into ObjectOptions (proxy_request + proxy_header_set, matching MinIO
ProxyRequest/ProxyHeaderSet); a request carrying the marker with ANY
value is never re-proxied. Outbound client proxy calls send the marker
as "true"; replication worker convergence HEADs send it as "false" so
a peer's proxy layer cannot answer a convergence check by proxying
back to the source (which would fake Completed without a PUT).
- Target selection: new replication_proxy.rs get_proxy_targets — empty
when the marker is set, versioning is suspended, or no replication
config; otherwise filter_target_arns -> TargetClient lookup, skipping
targets with proxying disabled.
- TargetClient gains head_object_for_proxy/get_object (streaming) and
the three tagging calls. Proxy calls never send the replication-check
SSE-C exemption header; customer SSE-C keys are forwarded verbatim so
the target performs real decryption. Conditional (If-*) headers are
not forwarded (MinIO parity); Range and part_number are, with
parts_count/tag_count/storage_class/expiration passed through.
- Metrics: proxy counters now count only real client proxy traffic,
MinIO-aligned (one total per proxied request, one failed when no
target served it). The previous misattributed counters — replication
worker HEAD/PUT (#2672) and local tagging operations (#2682) — are
removed; ReplProxyMetric now maps the tagging counters instead of
dropping them.
e2e (fake_s3_target extended with tagging + header journaling): proxied
GET body + outbound header contract (marker present, no
replication-check, SSE-C passthrough), HEAD, anti-loop 404 with zero
outbound requests, GetObjectTagging, and metric mapping unit tests.
Rolling note: proxying only activates for buckets with replication
targets; requests carrying the marker keep pre-upgrade behavior.
Refs rustfs/backlog#1675 (P1-5)
* fix(replication): fail SSE-C passthrough closed on targets that drop transport headers (#6178)
SSE-C ciphertext passthrough replicates via X-Rustfs-Replication-* transport
headers. A MinIO/generic-S3 target silently discards them, storing bare
ciphertext with no decryption material — yet the PUT succeeded, so the object
reported COMPLETED with a silently unreadable replica (backlog#1675 N2).
Fail-closed design:
- SsecPassthroughCapability {Unknown, Supported, Unsupported} cached in
BucketTargetSys per target ARN with a recording timestamp. Entries reset
whenever the target is rebuilt, edited, or removed (arn_remotes_map
lifecycle) and expire after SSEC_PASSTHROUGH_CAPABILITY_TTL (10 minutes):
an expired verdict in either direction is re-earned through the audit, so
an Unsupported target recovers automatically after an upgrade (at most one
wasted PUT+HEAD audit per bad target per TTL window) and a Supported
verdict cannot outlive a backend swapped behind the same endpoint.
- Replication worker (replicate_object and replicate_all): fresh Unsupported
targets never receive the PUT — the attempt fails immediately into the
normal MRF retry channel with a "run ?replication-check to re-probe" hint.
Unknown or expired verdicts are audited: after the PUT the worker HEADs
the replica back through the replication-check channel (source version id
mapped through resolve_read_api_version_id, so null-version objects audit
correctly) and requires SSE-C evidence (the echoed customer-algorithm
header); missing evidence records Unsupported and fails the attempt.
Convergence HEADs are audited the same way, so a broken ciphertext replica
from an earlier attempt can never launder itself into COMPLETED via an
ETag match. The gate/evidence policy is pure (replication_target_boundary,
staleness folded in as an input) for the M2 worker migration.
- replication-check grows an SsecPassthrough probe phase: a probe PUT
carrying the live transport-header shape, HEAD-back for evidence, and a
machine-readable Code BucketRemoteSsecPassthroughUnsupported on failure.
The probe verdict is synced into the runtime capability cache. Unlike
VersionFidelity, a failed SsecPassthrough phase does NOT fail the target
overall — it is a capability limit, not a broken replication contract,
and a plaintext-only deployment against such a target must not turn red.
- fake_s3_target: default mode now models a RustFS target (stores the
transport headers, echoes SSE-C evidence); the new
drop_unlisted_replication_headers mode models MinIO. The journal records
whether a request carried transport headers.
Receiver-echo verification: the replication-check HEAD exemption only skips
SSE-C key validation; the response has always built sse-customer-algorithm
from stored metadata (rustfs/src/app/object_usecase.rs), so no receiver
change was needed — pinned end to end by the replication-check e2e against
a real RustFS target.
Rolling-upgrade constraint: RustFS targets older than the replication-check
HEAD exemption (#5898) answer the audit HEAD without SSE-C evidence (or fail
it outright), so SSE-C replication to such targets reports FAILED. This is
deliberate — FAILED-and-retryable beats a silently undecryptable replica —
and self-heals: once the target is upgraded, the next TTL expiry (or a
manual ?replication-check re-probe) re-audits and records Supported.
Plaintext and managed-SSE replication are unaffected. The capability cache
is per-node; each node audits independently.
Known limitations:
- The audit judges evidence from the echoed customer-algorithm header only.
A hypothetical target that preserves that one header while dropping other
transport headers (partial-drop) would pass the audit; no known target
behaves this way — observed targets drop the whole unknown-header family.
- A mixed-version target cluster can flap the verdict between audits routed
to different target nodes until the rollout completes; the TTL bounds how
long each stale verdict persists.
New e2e (backlog#1675 C1 + N2, red-first): fail-closed against a
header-dropping fake (FAILED + no second PUT via the capability cache,
journal-asserted; red run showed the old COMPLETED), replication-check
reports the SsecPassthrough phase Code while the target stays OK overall,
SSE-C heal convergence after a real target outage, and SSE-C
existing-object resync landing a REPLICA readable with the customer key.
TTL expiry in both directions is pinned at the cache and gate seams.
* refactor(replication): move resyncer pure decision logic into rustfs-replication (M2) (#6180)
* refactor(replication): move resyncer pure decision logic into rustfs-replication (M2)
Pure-move milestone M2 of the ECStore replication split (backlog#1675
P1-17): relocate the resyncer's IO-free decision helpers, with their unit
tests, into the crates they already belong to by type ownership. No
behavior change.
Moved into crates/replication:
- resync.rs: resync_status_duration
- delete.rs: resync_existing_delete_replication_info,
replicate_delete_outcome, target_delete_version_id,
delete_marker_purge_version_id, delete_marker_purge_mrf_entry
- object.rs: version_identity_drifted, is_replication_target_offline_error,
SsecPassthroughCapability, SsecPassthroughGate, ssec_passthrough_gate,
ssec_passthrough_evidence_present (param-demoted to the echoed
customer-algorithm string; ECStore keeps the HeadObjectOutput adapter)
- filemeta.rs: NULL_VERSION_ID wire literal (crate-owned copy per the
filemeta-independence contract)
ECStore rewiring (Rule #14: imports stay in *_boundary.rs):
- resync/object-decision/target boundaries re-export the moved symbols;
resyncer call sites are unchanged
- bucket_target_sys keeps only the verdict cache + TTL and re-exports the
capability enum so existing consumer paths keep compiling
Not moved (signatures carry ECStore or aws-sdk types):
verify_resync_head_result, resync_target_error_detail, the SdkError
classifiers, the replicate_all_* option/info builders, and the env-coupled
bounded_resync_max_jobs admission clamp. README milestone table updated.
* chore(replication): retire the datatypes.rs relay early
README sanctions retiring datatypes.rs ahead of M4. The module was a
pure relay (resync boundary -> datatypes -> mod.rs facade) with no
external consumer importing it directly, so the facade now re-exports
ResyncStatusType from replication_resync_boundary and the relay file is
deleted. Consumers stay behind the ECStore facade, keeping Migration
Rule #15 intact — the original retirement wording ("consumers import
through rustfs-replication directly") conflicted with that rule and is
corrected in the README.
* chore(arch): extend migration guards to the M2-moved decision contracts
The adversarial review of the M2 move found the per-symbol ratchet in
check_architecture_migration_rules.sh was not extended for the moved
symbols, leaving them free to be redefined in ECStore or imported past
their boundary without CI noticing:
- resync definition pin + boundary fences gain resync_status_duration;
- the object-decision boundary fences gain the five delete-family
helpers (delete_marker_purge_mrf_entry, delete_marker_purge_version_id,
replicate_delete_outcome, resync_existing_delete_replication_info,
target_delete_version_id);
- the target-boundary fence gains the SSE-C gate family, the offline
classifier, and version_identity_drifted;
- a new definition pin rejects ECStore redefinitions of the M2-moved
fns/enums (ssec_passthrough_evidence_present deliberately excluded:
ECStore keeps a thin HeadObjectOutput adapter under that name).
Mutation-verified: a probe fn ssec_passthrough_gate under
crates/ecstore/src/bucket/replication trips the new pin.
Also anchors the intentionally-duplicated NULL_VERSION_ID wire literal
from the filemeta side and tightens the M2 README note on
bounded_resync_max_jobs.
* test(admin): pin minio-go Metrics/MetricsV2 wire contract for replication metrics
Red-light evidence for backlog#1675 P1-11: ?replication-metrics[=2]
serializes the internal snake_case BucketStats family straight onto the
wire, while minio-go's replication.Metrics/MetricsV2 expect camelCase
tags (currStats/queueStats/replicaCount/queued/...). Go's decoder is
case-insensitive but does not ignore underscores, so 'mc replicate
status' shows all zeros without any error. The rewritten snapshot tests
assert the minio-go tags (plus a synthesized queueStats node — the
aggregation path leaves queue_stats.nodes empty today) and fail against
the current pass-through serialization.
* fix(admin): serialize replication metrics in minio-go wire shapes
?replication-metrics[=2] and the admin replicationmetrics endpoint
serialized the internal snake_case BucketStats family straight onto the
wire, so 'mc replicate status' decoded all zeros without any error
(backlog#1675 P1-11). The internal structs cannot be renamed: they are
the intra-cluster peer-RPC wire format (rmp_serde to_vec_named in
node_service.rs), pinned by a new regression test.
- New admin/replication_metrics_wire.rs: Serialize-only projections onto
minio-go replication.Metrics (v1 body, currStats) and MetricsV2
(uptime/currStats/queueStats/downtimeInfo) with the exact json tags;
per-target failed becomes the TimedErrStats envelope fed from the
FailStats rolling window; the queue peak is dual-emitted as max
(MinIO server tag) and peak (minio-go tag).
- queueStats synthesizes one node from the bucket queue snapshot — the
aggregation path leaves queue_stats.nodes empty, and mc treats an
empty node list as 'no data' — and carries transfer summaries
(Large/Small/Total) derived from the per-target xfer rates.
- Both endpoints share the DTOs; source-health extension keys
(provider_available/cluster_complete/...) ride along and are ignored
by Go decoders.
- Widen the ecstore replication_stats_boundary re-exports
(BucketReplicationStat/InQueueMetric/XferStats) so the admin facade
chain can name the projected types.
* fix(replication): carry failure rolling windows through cluster aggregation
Review: both metrics endpoints aggregate first, and FailStats::merge
dropped the process-local samples (which also never cross the peer-RPC
wire — serde-skipped), so lastMinute/lastHour serialized as zero right
after a failure while totals was nonzero.
- FailStats gains serializable last_minute/last_hour window snapshots
(serde default: old nodes read zeros, new fields are ignored by old
decoders), recomputed on every add_size and re-stamped at the
per-node collection point (get_latest_replication_stats), and summed
by merge.
- The wire DTO takes the component-wise max of the live samples and the
snapshot, so both the single-node and the aggregated path report the
window.
- Regression test drives a stat through rmp round trip + merge before
serialization, as requested.
Also restore the #[allow(dead_code)] attribute to route_policy — the
new module declaration had been inserted between the attribute and its
item, which broke the -D warnings CI lanes.
* fix(replication): bin transfer summaries at 128 MiB and keep window refresh off the hot path
Second review round:
- update_xfer_rate split at 1 MiB while the minio-go transferSummary
labels (and RustFS's own worker-pool split) mean >= 128 MiB for
Large, so a 2 MiB replication reported under Large with Small stuck
at zero. The producer now bins on MIN_LARGE_OBJ_SIZE; a MetricsV2
assertion covers 2 MiB / 127 MiB / exactly 128 MiB.
- add_size no longer recomputes the rolling windows: two full
one-hour-deque scans per failure under the bucket-stats write lock
made failure bursts quadratic (30k events ~2.1s). The windows are
stamped only at the collection point (get_latest_replication_stats,
which serves both the local leg and the peer RPC); the aggregation
regression now drives that path explicitly before the RPC round trip
and merge.
* fix(replication): average transfer summaries
---------
Co-authored-by: overtrue <anzhengchao@gmail.com>
backlog#1833 PR1 prescribed deduplicating crates/replication/src/http.rs onto the canonical rustfs-utils http modules via a re-export facade. That plan conflicts with a standing architecture guard the issue's review missed: check_architecture_migration_rules.sh rejects any rustfs-utils import or dependency from the replication crate ("replication crate HTTP/helper contracts must not import or depend on rustfs-utils"), the same way it bans rustfs-filemeta and rustfs-storage-api — the wire-contract crate deliberately has zero internal dependencies.
So this lands the issue's fallback shape instead (the same bidirectional do-not-merge pattern the issue itself prescribes for the policy path.rs cluster): a module doc on replication/http.rs naming the canonical owners and the guard that forces the local copy, mirror notes on utils' metadata_compat.rs and header_compat.rs, and a new test pinning every duplicated constant to its literal wire value so the two copies cannot drift silently.
No production code changed.
Ref rustfs/backlog#1833 (PR1).
P1-20 (rustfs/backlog#1675 B2, test-only). No prior test wrote objects
BEFORE the replication rule arrived, leaving the scanner's existing-object
resync pass — the only channel for such objects — without end-to-end
coverage, and the enqueue truth table partially unpinned at unit level.
e2e (both negative cells are contracts, asserted over multiple fast-scanner
cycles next to a replicated control key that proves the scanner and the
live path are running):
- test_scanner_compensates_existing_objects_across_write_paths: plain PUT,
CopyObject and Snowball auto-extract products written pre-rule all
converge via scanner compensation; a null-version object (PUT before the
bucket became versioned) is pinned as never compensated (the scanner heal
gate skips nil-version objects).
- test_scanner_never_compensates_when_existing_object_replication_disabled:
ExistingObjectReplication=Disabled is a contract, not a delay — existing
keys stay absent while post-rule writes replicate normally.
Unit truth-table pins (crates/replication):
- queue.rs: an empty replicate decision (Disabled existing-object, inbound
REPLICA) skips heal queueing for every status; Completed without a resync
decision skips.
- operation.rs: existing-object resync without a reset replicates exactly
the never-replicated (Empty) objects.
Helper: put_bucket_replication_with_statuses parameterizes the previously
hardcoded ExistingObjectReplication status; the nextest count comments are
refreshed to the post-rebase totals.
* fix(admin): align replication-reset responses with madmin ResyncTargetsInfo shape
The replication-reset and replication-reset-status responses serialized
their shell as "Targets" and per-target fields in PascalCase, while
madmin-go ResyncTargetsInfo/ResyncTarget expect the "target" shell key
and lowercase field tags (arn/resetid/resyncStatus/replicationCount/
completedReplicationSize/failedReplicationCount/failedReplicationSize).
Go json decoding is case-insensitive per field, but Targets vs target,
Status vs resyncStatus and the size/count key names cannot match, so
mc replicate resync decoded empty results.
Rename the serde tags to the exact madmin wire shape, keep the
ResetBeforeDate/Error RustFS extension keys (unknown keys are ignored
by Go decoders), pin the shape with a snapshot unit test, and update
the e2e client DTO to decode the madmin shape.
* fix(admin): stream bare madmin DiffInfo documents from replication diff
POST /v3/replication/diff returned a single enveloped object
({Entries, IsTruncated, ScannedVersions}) while madmin-go
BucketReplicationDiff decodes the body with a json.Decoder loop over
bare DiffInfo documents. The envelope decoded as exactly one DiffInfo
with an empty object, so mc replicate diff printed a phantom empty row
instead of the real backlog.
Emit one DiffInfo JSON document per line by default, using the exact
madmin json tags (object/versionId/rStatus/deletemarker/lastModified;
Size stays as a RustFS extension key that Go decoders ignore). The
enveloped shape moves to the opt-in ?aggregate=true RustFS extension,
which remains the only carrier of scan-coverage metadata; a truncated
default-mode scan is surfaced via a warn tracing event instead of
in-stream. Pin both shapes with unit tests and tighten the e2e helper
to reject any envelope in the stream.
* feat(replication): validate replication config structure before persisting
PutBucketReplication accepted structurally invalid configurations that
MinIO's replication.Config.Validate rejects: empty or oversized rule
lists, duplicate or negative rule priorities, over-long rule IDs,
filters carrying more than one of Prefix/Tag/And, and delete marker
replication enabled on tag-filtered rules. Such configs persisted
silently and later produced undefined routing (e.g. ambiguous priority
ties) instead of failing the PUT.
Add validate_replication_config_structure as a pure function in
rustfs-replication (limits documented as constants), surface it through
the ecstore api facade, and run it first in the PUT capability gate so
defects are named before any metadata write. Missing Priority counts as
zero for the uniqueness check, matching Go's zero-value semantics. The
self-target rejection deliberately stays at set-remote-target, where the
endpoint is known; a config can never reference a self-pointing ARN.
Document the rule-level Destination.StorageClass contract (use the
remote target's storage_class instead) and renumber the acceptance
matrix e2e to unique priorities, which MinIO would also require.
* test(replication): pin duplicated wire types with boundary reconciliation tests
rustfs-filemeta (xl.meta disk format) and rustfs-replication (MRF/resync
persistence format) deliberately each own ReplicationStatusType,
VersionPurgeStatusType and ReplicationState; the boundary converts
between them via as_str(), whose From<&str> impls fall back to Empty on
unknown tokens — a variant added on one side silently degrades to Empty
on the other.
Add reconciliation tests in replication_filemeta_boundary: exhaustive
matches with no wildcard arm on both sides of both enums (a new variant
fails compilation until the mapping is reconsidered), string-token
round-trip asserts (a token the other side does not recognize fails
instead of quietly becoming Empty), and a full-field ReplicationState
round-trip. Cross-reference the tests from both type definitions.
Struct drift was already compile-guarded by the exhaustive struct
literals in the conversion functions.
* docs(replication): define split completion criteria and milestone sequence
The ecstore replication split plan had no completion measure — the
boundary scaffolding risked ossifying because nothing said when the
migration counts as done. Record the criteria in the module inventory:
done means the Required Contracts table's 'Current dependency to
remove' column is empty; the end state moves pool/resyncer/state into
crates/replication, with the boundary micro-files dissolving as code
crosses the crate line (batch-merging them beforehand is explicitly
rejected — the guard scripts anchor on their file names, so merging is
churn with zero functional gain; only datatypes.rs can retire early).
Sequence the remaining work as M2 (resyncer pure decision logic, after
the oversized function splits) → M3 (worker runtime, highest risk,
last) → M4 (retire boundaries and guard entries). Refresh the stale
first-step text — the event sink / runtime contracts already landed —
and update the split-plan status table accordingly.
* fix(replication): align structural validator with MinIO semantics after adversarial review
Three interop corrections found by adversarial review of the new
structural validator, plus review fallout fixes:
- Delete-marker replication is now rejected only for a direct Filter.Tag,
not for tags inside Filter.And — MinIO's validator only inspects the
direct tag, and mc replicate add --tags "k1=v1&k2=v2" (delete-marker
replication on by default) puts multiple tags into And.Tags, so the
stricter check rejected mc-generated configs MinIO accepts.
- Rule ID length is measured in bytes (Go len semantics), not chars —
a 255-char multibyte ID must not round-trip into a config MinIO
rejects.
- An empty <Tag/> element (no key) counts as absent, matching MinIO's
Tag.IsEmpty(); console form serializers emit empty tags, which would
otherwise trip the exactly-one-of and delete-marker checks.
Also: repair the store-uninitialized PUT test whose empty-rules fixture
now (correctly) fails structural validation before reaching the store
lookup; pin the previously untested startTime madmin key in the
reset-status shape test; and signal a truncated default-mode diff scan
via the x-rustfs-replication-diff-truncated response header — the bare
madmin stream has no envelope, so a truncated scan was otherwise
indistinguishable from a complete healthy one (madmin/mc ignore unknown
headers).
* test(e2e): activate SSE-S3 replication contract and pin resync fail-closed path
The SSE-S3 replication contract e2e was ignored under backlog#1291
(silent plaintext replication); the fail-closed gate in
replication_target_boundary.rs closed that hole, so the ignore reason
expired. Un-ignore the test — it now pins the current fail-closed
contract (FAILED status, failure event, readable encrypted source,
stable absence of all target versions), verified green.
Add test_bucket_replication_sse_s3_resync_stays_fail_closed: drives the
existing-object resync path (PUT ?replication-reset) over a FAILED
SSE-S3 object and asserts the resync generation reaches a terminal
state without ever materializing a target version, with the
stays-absent window also spanning fast-scanner heal cycles. The new
start_bucket_replication_reset helper doubles as the madmin
ResyncTargetsInfo shape assertion (target[0].arn/resetid) for the
reset-start response.
Refresh the stale nextest count commentary (the module is at 20 fast +
36 nightly = 56 tests by cargo nextest list; the SSE-S3-ignored note no
longer holds).
* test(replication): accept madmin nanosecond healthCheckDuration payloads
Red-phase TDD tests for P0-7: mc 'replicate add' sends the madmin default
healthCheckDuration=60s as a Go time.Duration nanosecond integer
(60000000000), which RustFS currently rejects as an unsupported field and
would misread as seconds. Also pins the defensive seconds-or-nanos read
for persisted bucket-targets metadata and the capability contract listing
healthCheckDuration as writable.
Currently failing (red):
- remote_target_request_accepts_go_duration_wire_values
- remote_target_request_accepts_legacy_seconds_health_check
- remote_target_health_check_duration_is_declared_writable
- bucket_target_reads_go_nanosecond_durations_defensively
- runtime_capabilities_response_reports_missing_topology_before_storage_init
* fix(replication): accept remote target healthCheckDuration nanoseconds
mc 'replicate add' always sends the madmin default healthcheck-seconds=60
serialized as a Go time.Duration nanosecond integer (60000000000), so the
default mc link-creation path (and 'mc replicate update') failed with
InvalidRequest. Move healthCheckDuration from the unsupported to the
writable remote-target field list; the capability contract in the runtime
capabilities response follows the constants automatically.
Fix the unit mismatch in both directions:
- Request parsing and persisted bucket-targets reads decode the value
defensively: below 10^7 it is legacy RustFS seconds, otherwise Go
time.Duration nanoseconds (also covers MinIO-written metadata).
totalDowntime shares the same wire shape and gets the same handling.
- The list-remote-targets admin response re-encodes only these two fields
as nanoseconds via a dedicated serialization path, leaving the persisted
seconds-based wire format untouched for existing readers.
The per-target health-check interval is accepted for mc compatibility but
not yet applied; the heartbeat keeps its global env-configured interval,
and the explicit 'healthcheck' update op stays rejected. disableProxy,
edge, and edgeSyncBeforeExpiry remain explicitly rejected.
* fix(replication): accept explicit STANDARD destination storage class
The replication engine never reads Rule.Destination.StorageClass (replica
placement comes from the bucket-target config or the source object), yet the
validator rejected any config carrying the field. The console's add-rule form
always sends StorageClass=STANDARD, so every rule created through it failed
with InvalidRequest.
Tolerate exactly STANDARD as a no-op — semantically identical to omitting
the field — and keep rejecting every other value, which would be silently
ignored rather than honored. Document the deliberate omission from the
replication capability contract.
* feat(admin): support MinIO-style partial updates for set-remote-target
set-remote-target?update=true previously replaced every stored field and
required complete credentials in the body, so flipping a target's sync mode
from the console forced operators to re-enter the secret key, and real
mc replicate update bodies (madmin Clone() strips the secret) failed to
deserialize at all.
Adopt MinIO's TargetUpdateType contract: query params creds/sync/bandwidth/
path name the field groups to overlay onto the stored target, everything
else keeps its persisted value, and unsupported groups (proxy, healthcheck,
edge, edgeSyncBeforeExpiry) fail loudly. Credentials updates are skipped for
site-replication peer targets — probed by both scheme derivations of the
stored endpoint and the stored deployment id — because an operator never
knows the site replicator's credentials, and a body-supplied deployment id
is ignored on update since it anchors peer identity. madmin JSON aliases
(bandwidthlimit, storageclass, resetID, deploymentID, sessionToken) let mc
bodies parse under deny_unknown_fields.
e2e: cover a credential-free sync-only update preserving the stored
connection and the zero-ops no-op contract; align the missing-arn assertion
with the earlier validation error.
* chore(scripts): add two-site replication lab manager
site_replication_smoke.py spawns and manages two local rustfs processes,
pairs them via the site-replication admin API (idempotent), and verifies
bidirectional object replication. Subcommands: up/down/restart/status/logs/
smoke/info/remove/clean. Stdlib-only; requests are SigV4-signed the same
way as crates/e2e_test.
* chore(scripts): rename direction-suffixed payload variables for typos check
The typos linter reads the _ba suffix in payload_ba as a misspelling of
"by"; use payload_a_to_b / payload_b_to_a instead.
---------
Co-authored-by: overtrue <anzhengchao@gmail.com>
* feat(replication): purge delete markers by the target's own version id
When a delete marker is replicated, the target assigns it a version id. The
purge that follows derived one from the *source* uuid instead, which is only
correct when the target mirrors source version ids. A generic S3 target does
not: the derived id addresses a version that does not exist there, so the
purge is a no-op and the replica keeps a marker the source has already
removed. Same failure class as #4401.
Record the id the target reports and address it directly on purge.
Data path, all of it driven by the object's internal metadata rather than the
`ReplicationState` wire form, which encodes positionally and cannot carry a
map:
- `rustfs-utils`: the `replication-delete-marker-version-<arn>` key family,
plus `strip_internal_prefix_preserving_case` — ARNs are case-sensitive and
the existing `strip_internal_prefix` lowercases.
- `ReplicationState` gains the map and a `..._corrupt` flag, both
`#[serde(skip)]`; `ReplicatedTargetInfo` carries the per-target id.
- `persist_target_delete_marker_versions` is merge-only. A delete arriving
over internode RPC has an empty map, so treating it as authoritative would
let a remote disk erase an id the local disk still holds.
- `delete_object_version` copies the map into `fi.metadata` before dispatch,
so the durable carrier crosses the wire even though the field does not.
- The keys are folded into the quorum hash through their normalized form:
the dual internal prefixes carrying one mapping share an identity, while a
genuine disagreement between disks still shows up as a quorum difference.
- `corrupt` (the prefixes disagreed) fails closed: skip the purge and warn
rather than guess an id and risk destroying a live version on the target.
Ported from the rc.1 branch, which cannot merge as a whole: its MRF replay
rewrite collides with #5659/#5671/#5672/#5673 and regressed
`MRF_PENDING_CAP`. main's MRF machinery is kept; only this capability moves
across. It touches no MRF code.
Two things did not survive the port, deliberately. The branch's
`missing_is_complete` purge regression does not exist here — it came from its
own HEAD-precheck rewrite, and main's simpler path never had it. And the
branch's `MrfReplicateEntry` ordering fields are MRF-redesign scope, left
behind.
Verification: cargo fmt --all --check, git diff --check,
cargo check --workspace --all-targets, and the suites for the four touched
crates — 4070 tests, 2 pre-existing failures unrelated to this change
(`system_resolver_negative_result_reaches_the_dns_allowlist`,
`test_resolve_domain_preserves_system_resolver_error_provenance`; both are
the sandbox DNS interception, they fail on a clean checkout too).
* fix(replication): keep the layer guard happy
scripts/check_architecture_migration_rules.sh matches on text, so the doc
comments naming `rustfs_filemeta::` read as a cross-layer dependency even
though nothing imports it. Reword them; the guard passes.
* fix(replication): make the target-version cap deterministic
Two defects in this PR, both found in review.
The cap was applied while iterating a `HashMap`, so *which* 1000 entries
survived depended on iteration order. Two disks decoding the same oversized
metadata could keep different subsets, hash differently, and lose quorum —
instead of both reporting the same corruption. Collect first, then truncate
in `BTreeMap` order, which is total and identical everywhere.
And `persist_target_delete_marker_versions` discarded the `corrupt` flag from
the RPC carrier, committing a delete-marker update that looked clean while the
exact remote marker identity was unknown. It now declines to merge a corrupt
carrier. Because the helper only ever inserts, declining leaves the durable
keys already on the object untouched, which is strictly safer than writing a
mapping we cannot trust.
Residual, stated rather than papered over: corruption confined to the RPC
carrier is not persisted as a sentinel, so a later reader of an object that
carried no durable keys still sees "legacy, no mapping" rather than "corrupt".
Persisting that would need a wire-format addition; the consumer already fails
closed on any corruption it can observe.
New test: `target_delete_marker_versions_cap_is_deterministic_across_decodes`
decodes the same 1050-entry map twice and asserts both the corrupt flag and
the retained subset agree.
* fix(replication): preserve multipart source mtime (#5669)
* fix(kms): repair unopenable ciphertext and cover the Vault backends (#5668)
* Add black-box behavior tests for KMS resilience and serialization
* fix(kms): repair unopenable ciphertext across backends
Black-box testing of the KMS crate surfaced several defects that make
encrypted data permanently unreadable.
Symmetric envelopes. The Local and Vault Transit backends returned raw
cipher output from `encrypt` while `decrypt` parsed a JSON envelope, so
anything sealed through the master-key path could never be opened again.
Local also discarded the AES-GCM nonce. Both now emit the same envelope
`decrypt` consumes, matching the Static backend.
Deterministic AAD. The object layer derived AEAD additional data by
serializing a `HashMap` directly. Iteration order differs per instance,
so a context rebuilt from storage produced different AAD bytes than the
one used to seal and the object stopped opening. Ordering by key removes
that dependency, matching the Static backend's existing `context_aad`.
Objects written with the default single-key context are unaffected,
since a one-entry map has only one serialization.
Cipher in the header projection. `metadata_to_headers` recorded the SSE
mode (`AES256` / `aws:kms`), which cannot represent ChaCha20-Poly1305,
so a ChaCha-sealed object came back claiming `aws:kms` and was opened
with the wrong cipher. The cipher now travels in
`x-rustfs-encryption-algorithm` — the header the storage layer already
reads but nothing ever wrote. Objects without it fall back as before.
Also: the Static backend ignored `key_spec` and always issued 256-bit
data keys; Local `list_keys` hardcoded `truncated: false`, ignored
`marker`, and paginated over unordered `read_dir`, so a paginating
client silently saw a partial key list; and Local and Vault KV2 reported
`key_id: "unknown"` from `decrypt` despite the envelope naming the
master key.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
* test(kms): cover both Vault backends and key rotation
The behavior suite ran only against Local and Static, and its own harness
documented the gap: the Vault backends had no business-capability
coverage at all. Setting `RUSTFS_KMS_VAULT_TOKEN` now adds Vault KV2 and
Vault Transit to every `for_each_backend` spec against a live server.
That lane is what surfaced the Transit envelope defect fixed in the
previous commit.
`rotate` and `versioning` are advertised only by the Vault backends, so
until now every capability-gated branch for them took the
`UnsupportedCapability` side and the working half was never asserted — a
rotation that dropped prior key versions would have gone green. The new
`behavior_rotation.rs` pins that half: material sealed before a rotation
still opens after it, repeated rotations accumulate versions rather than
overwriting a single spare, and the history survives a restart.
Two test defects fixed. `objects_round_trip_across_sizes_and_algorithms`
asserted a 1-byte object differs from its own ciphertext, which collides
once every 256 runs; the assertion now applies only where a collision is
not realistic, and small objects stay covered by the tag check and the
decrypt round-trip. `test_from_env_selects_token_file` depended on
`RUSTFS_KMS_VAULT_TOKEN` being absent from the caller's environment and
now clears it explicitly.
The snapshots directory was also removed from `.gitignore`: insta
snapshots are the assertions themselves, so leaving them untracked gives
CI nothing to compare against. Only `.snap.new` scratch files are
ignored now.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
* test(kms): adapt behavior suite to current key APIs
Rebasing onto main brought four API changes the suite predates.
`DeleteKeyRequest` gained `confirm_key_id`, and immediate deletion is now
gated on the server's `allow_immediate_deletion`. Scheduled deletions pass
`None`; the four specs that destroy a key outright echo the key id back
and opt the harness config in, which is what the gate asks of a real
caller.
`LocalBackupExportRequest` gained `sanitized_config`. These specs cover
the key-material path, so they seal no configuration and pass `None`.
`KmsCacheStats` became a named struct with real hit, miss, and eviction
counters. `cache_stats_returns_an_entry_count_and_no_hit_or_miss_data`
existed to pin the old placeholder behavior — that the second tuple
element was always zero — which main has since fixed, so it is now
`cache_stats_reports_hits_and_misses_separately` and asserts the counters
actually move.
Starting the service provisions the reserved probe key, so it shows up in
listings and backup bundles. Exact-set assertions filter it through a new
`without_probe_key` helper rather than naming it, keeping those specs
about the keys they seeded.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
* fix(kms): bind the AAD to the stored context bytes
Review caught that canonicalizing the AAD on decrypt breaks objects sealed
before canonicalization existed, and it was right. The AAD is the
*serialization* of the encryption context, and `x-rustfs-encryption-context`
stores that exact byte sequence: `encrypt_object` fed one `HashMap` to the
AEAD and then moved the same map into the metadata the header is written
from, so the stored string is byte-identical to the AAD the object was
sealed under. Those objects are therefore recoverable — but only while
nothing round-trips the value through a `HashMap` and re-serializes it.
Recomputing sorted AAD on decrypt would have turned a readable object into
a permanently unreadable one. The previous behavior was worse than the
first analysis credited: it did not merely fail intermittently, it made
the failure deterministic.
`EncryptionMetadata` now carries `context_aad`, the bytes the object was
actually sealed with. Encryption records what it fed the AEAD, the header
projection stores those bytes verbatim (and preserves a legacy ordering
across a re-projection rather than rewriting it into sorted form), and
`headers_to_metadata` carries the stored string through untouched. Both
decrypt paths, SSE-KMS and SSE-C, prefer it and fall back to canonical
serialization only when no stored serialization exists. Canonicalization
still applies to everything newly sealed, so the original ordering bug
cannot recur.
Two tests pin this: a legacy record whose sealed bytes are non-canonical
must survive a full header round trip unchanged, and a context header
rewritten to an equivalent-but-reordered serialization must fail
authentication rather than silently re-deriving a working AAD. Both were
mutation-checked against the reinstated bug on each side.
Also from review: the lifecycle churn test asserted only that every
request was accounted for, which holds whether the state gate exists or
not, so both branches are now pinned deterministically after the churn
(asserting `refused > 0` on the concurrent phase would only trade the hole
for a scheduling flake). And the Local and Vault KV2 envelopes compare
`encryption_context` without authenticating it — `DekCrypto` seals only
the plaintext — which is now documented at both sites; closing it needs a
versioned envelope, since existing ciphertext was sealed without AAD.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
---------
Co-authored-by: Claude Opus 5 <noreply@anthropic.com>
---------
Co-authored-by: ccccpj <ccccpj@outlook.com>
Co-authored-by: 唐小鸭 <tangtang1251@qq.com>
Co-authored-by: Claude Opus 5 <noreply@anthropic.com>
Preserve metadata replication operations in the durable MRF and route tagging, retention, and legal-hold updates through the existing full-object replication transport. Keep ACL propagation outside the contract because the current object model has no durable object ACL state.
Refs #1616
Add opt-in hotpath feature surfaces to every workspace crate and wire the root rustfs feature passthrough for function, allocation, and CPU profiling.
Add a focused set of function-level measurements for scanner, heal, lock, target replay, IAM, KMS, Keystone, trusted proxy, and capacity paths without adding request-scoped primitive wrappers.
Co-authored-by: heihutu <heihutu@gmail.com>
唐小鸭