唐小鸭 e11ce2f132 fix(site-replication): route every state RMW through the locked transaction (#6097)
* fix(site-replication): route every state RMW through the locked transaction

P1-15 PR2 (rustfs/backlog#1796, batch B2 of rustfs/backlog#1675), the
follow-up promised by rustfs/rustfs#5882.

PR1 left ~26 read-modify-write call sites on
config/site-replication/state.json in the pre-transaction shape: a
process-local mutex around load / mutate / save, each IO taking its own
object lock. Nothing held a distributed lock across the whole sequence, so
two nodes of one site still lost each other's updates, and the transitional
mutex kept the old shape available to copy.

Every remaining RMW now runs inside update_site_replication_state;
read-only sites use load_site_replication_state, whose object read comes
with the object-level read lock. SITE_REPLICATION_STATE_LOCK and its owner
helper are gone, together with their architecture-guard allowlist entry and
inventory row.

The multi-stage flows (add / edit / peer join / peer edit / remove / rotate)
keep their updated_at and pending-id CAS, but the CAS now runs inside the
transaction that writes, against the state that transaction loaded. Peer
probes, IAM work and fan-outs run between transactions and hold no lock at
all — the add no longer blocks every writer of the site across its peer join
round trips, and it re-checks the precondition right after the capability
probes so the common race is rejected before any IAM write or remote join.
When the add's commit CAS still fails, the error says the peers may already
be joined and that re-running the add reconverges. The add adopts only the
fields it computed (exhaustive destructure — adding a state field is a
compile error until classified); fields owned by writers that do not bump
updated_at keep their freshly loaded values.

Ordering of peer-edit deliveries now rests on the generation fence landed in
PR1 rather than on a guard that could never order two nodes: the add's
finalize fan-out carries the generation allocated in its commit. An accepted
peer join PRESERVES the applied-generation high-water marks — join fan-outs
are routine (adds and rotations both deliver SRPeerJoin to existing peers),
so wiping them would let stalled older edits land after any join; the
unilateral-removal rejoin misfence that a wipe would have patched is
pre-existing since the fence landed and needs an epoch in the fence instead.

The rotation handler now takes the lifecycle guard: the background
service-account reconciler runs its repair under a lifecycle try-acquire,
and its pending-rotation precheck is only sound if a rotation cannot start
mid-repair — an exclusion the removed process mutex used to provide as a
side effect.

update_site_replication_state_when_changed adds persist-or-skip so ack
markers and pending-clearing paths stop rewriting the object on a miss —
load-bearing, because the shared persist helper clears the whole object for
a ≤1-peer pending-free state — and save_site_replication_state is now
cfg(test): the pre-P1-15 shape can no longer be written in production code.

No on-disk format change.

Verification: cargo nextest run -p rustfs -E
'test(/admin::handlers::site_replication::/)' (181 passed); site-replication
dual/three-node e2e (13 passed); cargo clippy -p rustfs --all-targets -D
warnings; make pre-commit. Mutation checks: dropping the state-object lock
from the boundary reds the separate-node concurrency tests; flipping a
persist-or-skip miss to a persist reds
test_missed_pending_clear_must_not_rewrite_the_state_object. Reviewed by
three independent adversarial passes (correctness/concurrency,
security/compatibility, simplicity/test-coverage); their confirmed findings
are folded in.

* fix(site-replication): serialize peer-join admission around its IAM write

Review follow-up (overtrue): two joins accepted by the same node could
interleave as "A checks a stale snapshot and pauses reading its body, B
applies secret B and commits, A resumes, overwrites IAM with secret A, and
A's commit is refused as superseded" — the persisted state advertised B's
contract while IAM only accepted A's secret, failing every peer
control-plane call. The pre-P1-15 process mutex serialized same-node joins
end to end; removing it dropped that exclusion.

admit_peer_join now runs the staleness check, the IAM upsert and the state
commit under the lifecycle guard, with the authoritative pre-check taken
against a load under that guard BEFORE IAM changes anything. The closing
transaction still re-checks staleness: the guard is process-local (exactly
as far as the old mutex reached) and the state-object lock arbitrates joins
accepted by different nodes. The body is fully read before the guard so a
stalling sender cannot block add/remove/rotate/reconciler.

The IAM step is injected, and the gated-body regression test reproduces the
review's ordering: join A is held mid-IAM while a newer join B arrives; B
must wait at the guard, and both IAM order and the final persisted state end
on B. Mutation-verified: removing the lifecycle guard from admit_peer_join
turns the test red.

Verification: cargo nextest run -p rustfs -E
'test(/admin::handlers::site_replication::/)' (182 passed);
site-replication dual/three-node e2e (13 passed); cargo clippy -p rustfs
--all-targets -D warnings; make pre-commit.

* fix(site-replication): fence peer-join admission across nodes

Review follow-up (overtrue, round 2): the lifecycle guard only serializes
joins within one process. Node A could pass the staleness check for an
older T1, node B write secret B to IAM and commit a newer T2, and node A
then overwrite IAM with secret A while its own state commit is refused as
superseded — state advertising T2's contract while IAM only accepts A's
secret.

The admission (staleness check -> IAM upsert -> state commit) now also runs
under a distributed join-admission lock, a namespace-lock key with no
backing object, following the repair execution lock's pattern — including
its nesting of config-object locks (admission -> state), and delegating
crash safety to the lock subsystem's lease expiry instead of a hand-rolled
TTL. The staleness check runs against a load taken inside the lock, before
IAM changes anything, so a superseded join exits without touching IAM. The
closing transaction keeps its re-check for defence in depth and for
old-version nodes that do not take the admission lock during a rolling
upgrade (that mixed-version window keeps today's behavior and closes when
the upgrade completes).

admit_peer_join_across_nodes is the admission minus the process-local
lifecycle guard — exactly what a second node runs — and the new
separate-nodes regression test drives it directly with join A gated
mid-IAM: join B must wait at the distributed lock, and both the IAM write
order and the final persisted state end on B. Mutation-verified: removing
the admission lock turns the test red while the same-node test (which
drives the full admit_peer_join) stays green.

Verification: cargo nextest run -p rustfs -E
'test(/admin::handlers::site_replication::/)' (183 passed);
site-replication dual/three-node e2e (13 passed); cargo clippy -p rustfs
--all-targets -D warnings; make pre-commit.
2026-08-14 22:13:37 +08:00
2025-12-18 20:13:24 +08:00
2025-07-08 09:04:37 +08:00
2025-08-07 22:37:05 +08:00
2025-06-30 21:27:45 +08:00

RustFS

RustFS is a high-performance, distributed object storage system built in Rust.

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Getting Started · Docs · Bug reports · Discussions

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RustFS is a high-performance, distributed object storage system built in Rust—one of the most loved programming languages worldwide. RustFS combines the simplicity of MinIO with the memory safety and raw performance of Rust. It offers broad S3 API compatibility for supported features, is completely open-source, and is optimized for data lakes, AI, and big data workloads.

Unlike other storage systems, RustFS is released under the permissible Apache 2.0 license, avoiding the restrictions of AGPL. With Rust as its foundation, RustFS delivers superior speed and secure distributed features for next-generation object storage.

Feature & Status

  • High Performance: Built with Rust to ensure maximum speed and resource efficiency.
  • Distributed Architecture: Scalable and fault-tolerant design suitable for large-scale deployments.
  • S3 Compatibility: Seamless integration with common S3-compatible applications and tools; current coverage is tracked in the S3 compatibility matrix.
  • OpenStack Swift API: Native support for Swift protocol with Keystone authentication.
  • OpenStack Keystone Integration: Native support for OpenStack Keystone authentication with X-Auth-Token headers.
  • Data Lake Support: Optimized for high-throughput big data and AI workloads.
  • Open Source: Licensed under Apache 2.0, encouraging unrestricted community contributions and commercial usage.
  • User-Friendly: Designed with simplicity in mind for easy deployment and management.
Feature Status Feature Status
S3 Core Features Available Bitrot Protection Available
Upload / Download Available Single Node Mode Available
Versioning Available Bucket Replication Available
Logging Available Lifecycle Management 🚧 Under Testing
Event Notifications Available Distributed Mode 🚧 Under Testing
K8s Helm Charts Available RustFS KMS 🚧 Under Testing
Keystone Auth Available Multi-Tenancy Available
Swift API Available Swift Metadata Ops 🚧 Partial

RustFS vs MinIO Performance

Stress Test Environment:

Type Parameter Remark
CPU 2 Core Intel Xeon (Sapphire Rapids) Platinum 8475B, 2.7/3.2 GHz
Memory 4GB
Network 15Gbps
Drive 40GB x 4 IOPS 3800 / Drive

https://github.com/user-attachments/assets/2e4979b5-260c-4f2c-ac12-c87fd558072a

RustFS vs Other Object Storage

Feature RustFS Other Object Storage
Console Experience Powerful Console
Comprehensive management interface.
Basic / Limited Console
Often overly simple or lacking critical features.
Language & Safety Rust-based
Memory safety by design.
Go or C-based
Potential for memory GC pauses or leaks.
Data Sovereignty No Telemetry / Full Compliance
Guards against unauthorized cross-border data egress. Compliant with GDPR (EU/UK), CCPA (US), and APPI (Japan).
Potential Risk
Possible legal exposure and unwanted data telemetry.
Licensing Permissive Apache 2.0
Business-friendly, no "poison pill" clauses.
Restrictive AGPL v3
Risk of license traps and intellectual property pollution.
Compatibility S3-Compatible Core
Works with common S3-compatible clients, with coverage tracked in the compatibility matrix.
Variable Compatibility
May lack support for local cloud vendors or specific APIs.
Edge & IoT Strong Edge Support
Ideal for secure, innovative edge devices.
Weak Edge Support
Often too heavy for edge gateways.
Risk Profile Enterprise Risk Mitigation
Clear IP rights and safe for commercial use.
Legal Risks
Intellectual property ambiguity and usage restrictions.

Staying ahead

Star RustFS on GitHub and be instantly notified of new releases.

Quickstart

To get started with RustFS, follow these steps:

1. One-click Installation (Option 1)

curl -O https://rustfs.com/install_rustfs.sh && bash install_rustfs.sh

2. Docker Quick Start (Option 2)

The RustFS container runs as a non-root user rustfs (UID/GID 10001:10001). If you bind-mount host directories with Docker or Compose, every mounted path must be writable by that user, otherwise startup may fail with permission denied errors. This applies to data directories, log directories, and TLS certificate directories when RUSTFS_TLS_PATH is enabled.

# Create data and logs directories
mkdir -p data logs

# Change the owner of these directories
chown -R 10001:10001 data logs

# Using latest version
docker run -d -p 9000:9000 -p 9001:9001 -v $(pwd)/data:/data -v $(pwd)/logs:/logs rustfs/rustfs:latest

# Using specific version
docker run -d -p 9000:9000 -p 9001:9001 -v $(pwd)/data:/data -v $(pwd)/logs:/logs rustfs/rustfs:1.0.0-rc.1

If you use podman instead of docker, you can install the RustFS with the below command

# Create data and logs directories
mkdir -p data logs

# Run the container (podman will automatically set the folders ownership)
podman run -d -p 9000:9000 -p 9001:9001 -v $(pwd)/data:/data:Z,U -v $(pwd)/logs:/logs:Z,U rustfs/rustfs:latest

If you enable TLS with a bind-mounted certificate directory, prepare that mount the same way:

mkdir -p certs
chown -R 10001:10001 certs

You can also use Docker Compose. Using the docker-compose-simple.yml file in the root directory:

docker compose -f docker-compose-simple.yml up -d

Before running Compose with host bind mounts:

  • Ensure every mounted host path is writable by 10001:10001.
  • If you enable TLS, ensure the certificate mount for /opt/tls is also readable by 10001:10001.
  • If matching host ownership is not practical, run the rustfs service with user: "<host-uid>:<host-gid>" instead.
  • docker-compose-simple.yml includes a volume-permission-helper service for named volumes. docker-compose-simple.yml relies on you to prepare bind-mounted host paths in advance.

Similarly, you can run the command with podman

podman compose -f docker-compose-simple.yml up -d

Webhook notification quick start (Docker):

docker run -d --name rustfs -p 9000:9000 \
  -e RUSTFS_NOTIFY_ENABLE=true \
  -e RUSTFS_NOTIFY_WEBHOOK_ENABLE_PRIMARY=on \
  -e RUSTFS_NOTIFY_WEBHOOK_ENDPOINT_PRIMARY=http://<host-ip>:3020/webhook \
  -e RUSTFS_NOTIFY_WEBHOOK_QUEUE_DIR_PRIMARY=/tmp/rustfs-events \
  -e RUSTFS_OUTBOUND_ALLOW_ORIGINS=http://<host-ip>:3020 \
  rustfs/rustfs:latest

Notes:

  • RUSTFS_NOTIFY_ENABLE=true enables the global notify module switch.
  • For ARN arn:rustfs:sqs::primary:webhook, use instance-scoped env vars with _PRIMARY.
  • If queue dir is omitted, default is /opt/rustfs/events; ensure it is writable by the container runtime user.
  • RUSTFS_NOTIFY_WEBHOOK_SKIP_TLS_VERIFY_PRIMARY defaults to false; enabling it skips webhook TLS certificate verification, allows MITM attacks, and emits a startup warning. Prefer RUSTFS_NOTIFY_WEBHOOK_CLIENT_CA_PRIMARY for private CAs.
  • Since 1.0.0-beta.11, webhook endpoints on private or container networks (Docker Compose service names, host.docker.internal, RFC 1918 addresses) are blocked unless their exact scheme://host:port origin is listed in RUSTFS_OUTBOUND_ALLOW_ORIGINS (the origin only, without the path). See Outbound Connection Policy.

NOTE: We recommend reviewing the docker-compose.yml file before running. It defines several services including Grafana, Prometheus, and Jaeger, which are helpful for RustFS observability. If you wish to start Redis or Nginx containers, you can specify the corresponding profiles.

3. Build from Source (Option 3) - Advanced Users

For developers who want to build RustFS Docker images from source with multi-architecture support:

# Build multi-architecture images locally
./docker-buildx.sh --build-arg RELEASE=latest

# Build and push to registry
./docker-buildx.sh --push

# Build specific version
./docker-buildx.sh --release v1.0.0 --push

# Build for custom registry
./docker-buildx.sh --registry your-registry.com --namespace yourname --push

The docker-buildx.sh script supports:

  • Multi-architecture builds: linux/amd64, linux/arm64
  • Automatic version detection: Uses git tags or commit hashes
  • Registry flexibility: Supports Docker Hub, GitHub Container Registry, etc.
  • Build optimization: Includes caching and parallel builds

You can also use Make targets for convenience:

make docker-buildx                    # Build locally
make docker-buildx-push               # Build and push
make docker-buildx-version VERSION=v1.0.0  # Build specific version
make help-docker                      # Show all Docker-related commands

Heads-up (macOS cross-compilation): macOS keeps the default ulimit -n at 256, so cargo zigbuild or ./build-rustfs.sh --platform ... may fail with ProcessFdQuotaExceeded when targeting Linux. The build script attempts to raise the limit automatically, but if you still see the warning, run ulimit -n 4096 (or higher) in your shell before building.

4. Build with Helm Chart (Option 4) - Cloud Native

Follow the instructions in the Helm Chart README to install RustFS on a Kubernetes cluster.

For scanner pacing, cycle budgets, bitrot cadence, lifecycle transition status, and single-node single-disk idle CPU tuning, see Scanner Runtime Controls. For repeatable scanner-pressure validation, see Scanner Benchmark Runbook. For drive timeout knobs on slow storage — including the walk stall budget that governs ListObjects on large prefixes — see Drive Timeout Tuning.

5. Nix Flake (Option 5)

If you have Nix with flakes enabled:

# Run directly without installing
nix run github:rustfs/rustfs

# Build the binary
nix build github:rustfs/rustfs
./result/bin/rustfs --help

# Or from a local checkout
nix build
nix run

6. X-CMD (Option 6)

If you are an x-cmd user:

# Run directly without installing
x rustfs

# Download the binary and install it to the global environment
x env use rustfs
rustfs --help

Accessing RustFS

  1. Access the Console: Open your web browser and navigate to http://localhost:9001 to access the RustFS console.
    • Default credentials: rustfsadmin / rustfsadmin
  2. Create a Bucket: Use the console to create a new bucket for your objects.
  3. Upload Objects: You can upload files directly through the console or use S3-compatible APIs/clients to interact with your RustFS instance.

NOTE: To access the RustFS instance via https, please refer to the TLS Configuration Docs.

OIDC Roles Claim (Microsoft Entra ID)

RustFS supports mapping an OIDC claim containing role values into the existing authorization pipeline. The roles_claim setting is optional: when unset or empty, only the groups claim contributes to authorization (same as older RustFS releases). For Microsoft Entra ID app roles, set roles_claim=roles so both console admin checks and bucket IAM policies can evaluate those roles.

Example environment configuration (opt-in roles claim):

RUSTFS_IDENTITY_OPENID_ENABLE=on
RUSTFS_IDENTITY_OPENID_CONFIG_URL="https://login.microsoftonline.com/<tenant-id>/v2.0/.well-known/openid-configuration"
RUSTFS_IDENTITY_OPENID_CLIENT_ID="<client-id>"
RUSTFS_IDENTITY_OPENID_CLIENT_SECRET="<client-secret>"
RUSTFS_IDENTITY_OPENID_SCOPES="openid,profile,email"
RUSTFS_IDENTITY_OPENID_GROUPS_CLAIM="groups"
RUSTFS_IDENTITY_OPENID_ROLES_CLAIM="roles"

Policy condition example (evaluate app roles directly with jwt:roles; when roles_claim is configured, RustFS also merges those values into jwt:groups for backward compatibility with older policies):

{
  "Version": "2012-10-17",
  "Statement": [
    {
      "Effect": "Allow",
      "Action": ["admin:*"],
      "Resource": ["arn:aws:s3:::*"],
      "Condition": {
        "ForAnyValue:StringEquals": {
          "jwt:roles": ["RustFS.ConsoleAdmin"]
        }
      }
    }
  ]
}

Documentation

For detailed documentation, including configuration options, API references, and advanced usage, please visit our Documentation.

Getting Help

If you have any questions or need assistance:

  • Check the FAQ for common issues and solutions.
  • Join our GitHub Discussions to ask questions and share your experiences.
  • Open an issue on our GitHub Issues page for bug reports or feature requests.

Contact

Contributors

RustFS is a community-driven project, and we appreciate all contributions. Check out the Contributors page to see the amazing people who have helped make RustFS better.

RustFS contributors

Star History

RustFS star history chart

License

Apache 2.0

RustFS is a trademark of RustFS, Inc. All other trademarks are the property of their respective owners.

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Description
2.3x faster than MinIO for 4KB object payloads. RustFS is an open-source, S3-compatible high-performance object storage system supporting migration and coexistence with other S3-compatible platforms such as MinIO and Ceph.
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