houseme 6f613317f6 feat(internode): optimize gRPC transport (#4337)
* feat(internode): P0 gRPC transport tuning, message limits, payload metrics

Land the P0 subtask from docs/grpc-optimization: close the client-vs-server
transport gaps and add instrumentation to size which unary RPCs need channel
isolation in P1.

Transport tuning (G3): the client `Endpoint` now disables Nagle and raises the
HTTP/2 stream/connection flow-control windows to mirror the server socket, so
small lock/health RPCs are not batched and larger metadata responses are not
throttled by the 64KiB default window. All env-overridable, 0 opts out.

Message-size limits (G1): both `NodeServiceClient` and `NodeServiceServer` set
max decode/encode size (default 100MiB) instead of tonic's silent 4MiB cap, so a
large multi-version xl.meta or aggregated ReadMultiple no longer fails
out_of_range. The server limit is set on `NodeServiceServer` before wrapping in
the auth `InterceptedService` (the interceptor type does not expose it).

Payload instrumentation (P1 prep): ReadAll/ReadMultiple record a payload-size
histogram plus a large-payload counter when a response crosses the configured
threshold (default 8MiB), feeding alerting on paths that contend with
latency-sensitive control-plane traffic on the shared channel. Threshold-only
counter, no per-call hot-path log.

Verification: cargo check/test on config, io-metrics, ecstore, rustfs; clippy
clean on touched files; make pre-commit green.

Co-Authored-By: heihutu <heihutu@gmail.com>

* feat(internode): P1 control/bulk gRPC channel isolation (opt-in)

Land the P1 subtask from docs/grpc-optimization: physically separate large
bytes-carrying unary RPCs from latency-sensitive control-plane RPCs so a big
transfer can no longer head-of-line block a lock/health RPC on the shared
HTTP/2 connection (G2/G5).

Introduce ChannelClass { Control, Bulk } and get_channel_for_class in protos.
Control RPCs keep the per-peer connection keyed by the bare address; Bulk RPCs
(ReadAll/WriteAll/ReadMultiple/BatchReadVersion, via a new get_bulk_client) are
round-robined across a small per-peer bulk pool.

Rather than restructuring the global GLOBAL_CONN_MAP (and every consumer), bulk
channels are cached under a composite key (addr\0bulk\0idx). The NUL separator
cannot appear in a URL, so bulk keys never collide with the control key. This
keeps the blast radius small on a consistency-sensitive path. create_new_channel
is refactored into build_channel(dial_addr, cache_key) so several physically
distinct channels to one peer cache independently while dialing/TLS still use
the real address.

Gated by RUSTFS_INTERNODE_CHANNEL_ISOLATION (default OFF) so the default build
is byte-for-byte the pre-P1 behavior: bulk resolves to the control channel and
the switch is a single-env rollback. RUSTFS_INTERNODE_BULK_CHANNELS (default 2,
clamped >=1) sizes the pool. On failure, evict_failed_connection drops the whole
bulk pool for the peer (round-robin hides which index was used), avoiding
half-dead cached channels.

Lock RPCs (remote_locker) already use the default Control path, so lock
semantics and retry behavior are unchanged.

Verification: cargo check/test on config, protos, ecstore, rustfs; new protos
tests for bulk key routing and isolation-off passthrough; clippy clean on
touched files; make pre-commit green.

Co-Authored-By: heihutu <heihutu@gmail.com>

* feat(internode): P2 msgpack/JSON codec observability + encode buffer presizing

Land the safe, wire-compatible slice of P2 from docs/grpc-optimization: the
observability prerequisite for retiring the redundant JSON fields, plus a codec
micro-optimization. No proto/wire-format change; JSON is still dual-written.

Internode RPCs today dual-encode each metadata value as both msgpack (`*_bin`)
and a JSON compatibility string, and decoders prefer `_bin` with a JSON
fallback. Before the JSON fields can ever be dropped (a cross-version change),
that fallback must be proven unused in production.

Add rustfs_system_network_internode_msgpack_json_fallback_total{direction,
message}: incremented whenever a decode falls back to the JSON field because the
msgpack payload was absent. Wired into both directions — the client decoding
peer responses (remote_disk.rs, incl. the list-level read_multiple/batch
fallbacks) and the server decoding peer requests (node_service/disk.rs). This
counter must read zero across a release window before send paths stop writing
JSON and the proto text fields are reserved/removed (the deferred P2-1 steps).

Also pre-size the msgpack encode buffers (Vec::with_capacity(512)) on both
sides, eliminating the repeated growth reallocations for typical FileInfo
payloads with zero added copy. Full thread_local buffer pooling is deferred: it
needs either an extra copy (unclear net win) or a send-path buffer-return
lifecycle, to be justified by a codec microbenchmark first.

Verification: cargo check/test on io-metrics, ecstore, rustfs; new fallback
counter smoke test; existing codec decode tests green; clippy clean on touched
files; make pre-commit green.

Co-Authored-By: heihutu <heihutu@gmail.com>

* docs(internode): add msgpack/JSON convergence observation runbook

Runbook driving the observation-gated retirement of the redundant JSON
compatibility fields on internode gRPC metadata RPCs (grpc-optimization P2-1).

Documents the shipped fallback counter
(rustfs_system_network_internode_msgpack_json_fallback_total{direction,message}),
the PromQL to confirm it reads zero across a release window, a standing alert,
and the staged flip/rollback procedure (env-gated msgpack-only send, then proto
field removal in N+1).

Includes the verified field -> peer-decoder audit: only fields whose peer
decodes _bin first may be converged. Notes DeleteVersion.opts (DeleteOptions) is
NOT convergence-ready — its server handler is not _bin-first and must gain a
decode_msgpack_or_json path first. This gates the send-side change so it cannot
empty a JSON field an old peer still needs.

Co-Authored-By: heihutu <heihutu@gmail.com>

* feat(internode): env-gated msgpack-only send + DeleteVersion _bin support (P2-1)

Implements the send-side lever for retiring the redundant JSON compatibility
fields on internode gRPC metadata RPCs, plus the missing `_bin` support on the
delete path that it depends on (grpc-optimization P2-1). Default-off: the base
build is byte-for-byte the prior dual-write behavior.

Gated msgpack-only send (RUSTFS_INTERNODE_RPC_MSGPACK_ONLY, default false):
- New rustfs_protos::internode_rpc_msgpack_only() reads the flag.
- Client (remote_disk.rs) compat_json() and server (node_service/disk.rs)
  compat_response_json() emit an empty JSON string when the flag is on, so only
  the msgpack _bin payload is sent. The _bin field is always sent; decoders keep
  the JSON read fallback. Applied only to fields with a confirmed _bin-first peer
  decoder (WriteMetadata/UpdateMetadata/RenameData file_info, UpdateMetadata opts,
  ReadOptions, ReadMultipleReq, BatchReadVersionReq; ReadVersion/ReadXL/RenameData
  responses and the ReadMultiple/BatchReadVersion response lists).
- Only enable after the P2 fallback counter has read zero across a release window
  (see docs/operations/internode-msgpack-json-convergence-runbook.md). Single-env
  rollback; no wire-format break.

DeleteVersion(s) _bin support (prerequisite):
- The DeleteVersion/DeleteVersions protos had NO _bin fields. Add additive
  (backward-compatible) bytes file_info_bin/opts_bin (DeleteVersion) and repeated
  bytes versions_bin + bytes opts_bin (DeleteVersions); regenerate the checked-in
  prost struct.
- Client dual-writes them; server decodes them _bin-first with JSON fallback.
- These delete fields are kept OUT of the msgpack-only set (always dual-write)
  until their own fallback counter reads zero across a window with the new
  decoders fully deployed. DeleteVersion.raw_file_info stays JSON-only (no _bin
  field yet).

Verification: cargo check/test on protos, config, ecstore, rustfs (incl. the six
delete request handler tests and a compat_json default-path test); clippy clean
on touched files; make pre-commit green.

Co-Authored-By: heihutu <heihutu@gmail.com>

* feat(internode): P3 cluster peer online/offline health metric

Land the safe observability core of P3 (grpc-optimization G6/G8): track each
internode peer's reachability and expose the offline count, for parity with
MinIO's minio_cluster_servers_offline_total. Pure instrumentation — peer
selection and quorum are unchanged.

- io-metrics: per-peer PeerHealthState { online, consecutive_failures } registry
  plus record_peer_reachable/record_peer_unreachable. A peer flips offline after
  N consecutive failures (dial failures or RPC-triggered evictions) and back
  online on the next successful dial; the count of offline peers is published to
  the rustfs_cluster_servers_offline_total gauge.
- config: RUSTFS_INTERNODE_OFFLINE_FAILURE_THRESHOLD (default 3, clamped >= 1).
- protos: build_channel marks the peer reachable on a successful dial and
  unreachable on a dial failure; evict_failed_connection feeds the failure signal
  too. Keyed by the real peer address, so control and bulk channels to one peer
  share health state.

Deferred (documented in docs/grpc-optimization P3): startup prewarm (no clean
topology-ready hook yet), the offline fast-bypass in peer routing (consistency-
sensitive; must not change quorum), and idempotent-read-only retry. This commit
is observability only.

Verification: cargo check/test on io-metrics, config, protos (new peer-health
state-machine and threshold-clamp tests); clippy clean on touched files; make
pre-commit green.

Co-Authored-By: heihutu <heihutu@gmail.com>

* feat(internode): P3 control-channel prewarm + self-healing offline bypass

Add the remaining P3 connection-lifecycle levers (grpc-optimization G6/G8), both
env-gated and default-off so the base build is unchanged.

Prewarm (RUSTFS_INTERNODE_PREWARM, default off): RemoteDisk::new spawns a
best-effort background dial of the peer's control channel, deduped per peer
address, moving the connect cost off the first RPC. Failures fall through to the
existing lazy connect + recovery monitor.

Offline bypass (RUSTFS_INTERNODE_OFFLINE_BYPASS, default off): remote_disk
get_client/get_bulk_client fast-fail a peer already marked offline instead of
paying the connect timeout, so the erasure layer proceeds on quorum sooner. This
does NOT change quorum. It is self-healing: cluster_peer_should_bypass lets one
request per RUSTFS_INTERNODE_OFFLINE_REPROBE_SECS (default 5s) through to recover
the peer even with no background monitor, and the recovery monitor's own probe
path calls the client directly so it is never bypassed.

io-metrics gains cluster_peer_is_offline / cluster_peer_should_bypass (with a
per-peer re-probe timestamp). Scope: data path only — remote_locker (lock RPCs,
most consistency-sensitive) is left dual-writing/unbypassed as a follow-up.

Verification: cargo check/test on io-metrics, config, ecstore (new self-healing
bypass tests; all 105 rpc tests green); clippy clean on touched files; make
pre-commit green.

Co-Authored-By: heihutu <heihutu@gmail.com>

* docs(internode): add A/B benchmark runbook for gRPC optimization stages

Reproducible before/after collection procedure for grpc-optimization P0–P3.
Since every stage is env-gated, before/after is the same binary with different
env — no rebuild. Documents, per stage: the exact env toggles (baseline vs
enabled column), which existing bench script to run
(run_internode_transport_baseline.sh / run_four_node_cluster_failover_bench.sh),
the Prometheus metrics to capture, and the acceptance gates from the design docs
(e.g. lock p99 down >= 20% for P1, msgpack fallback counter = 0 before enabling
P2, correct rustfs_cluster_servers_offline_total for P3).

Live runs require a multi-node cluster + load tool + Prometheus scrape and cannot
be produced in a single-process sandbox; artifacts land under target/bench
(gitignored) and attach to the PR.

Co-Authored-By: heihutu <heihutu@gmail.com>

* feat(internode): P3-2 lock-path offline bypass + P3-3 idempotent read retry

Extend the offline bypass to the lock path and add opt-in retries for idempotent
reads (grpc-optimization P3-2/P3-3). Both env-gated and default-off/zero.

Offline bypass (lock path): factor the bypass decision into a shared pub(crate)
internode_offline_bypass_reason(addr) and call it from remote_locker::get_client
too, so lock RPCs to an offline peer fast-fail (letting dsync reach quorum
sooner) instead of paying the connect timeout. Does not change quorum; the
self-healing re-probe keeps peers recoverable. Gated by
RUSTFS_INTERNODE_OFFLINE_BYPASS (default off).

Idempotent read retry (P3-3): add execute_read_with_retry — a bounded,
exponential-backoff retry for read-only/reentrant RPCs on transient network
errors — and route disk_info through it. RUSTFS_INTERNODE_IDEMPOTENT_READ_RETRIES
defaults to 0 (disabled). Write/lock RPCs are never retried (quorum/idempotency
safety, per CLAUDE.md); the wrapper requires an Fn closure so only reads that
rebuild their request from borrowed inputs qualify.

Deferred: grpc.health.v1 (optional ecosystem-compat only; needs a new
tonic-health dep and 3-way hybrid-service wiring — internal needs are met by the
existing Ping RPC).

Verification: cargo check/test on config, ecstore (105 rpc tests green incl.
disk_info now via the retry wrapper); clippy clean on touched files; make
pre-commit green.

Co-Authored-By: heihutu <heihutu@gmail.com>

* feat(scripts): one-click internode gRPC A/B benchmark driver

Wrap the per-stage env matrix from the benchmark runbook into
scripts/run_internode_grpc_ab_bench.sh: given --stage <p0|p1|p2|p3> and --phase
<before|after>, it emits the stage/phase RUSTFS_INTERNODE_* server env to
<out-dir>/server-env.sh and runs the right underlying bench
(run_internode_transport_baseline.sh for p0/p1/p2, run_four_node_cluster_failover_bench.sh
for p3) into a labeled target/bench/internode-transport/<stage>-<phase>/.

Passthrough args after `--` reach the underlying bench; --dry-run previews the
env + command. The script is explicit that RUSTFS_INTERNODE_* are server env, so
for the load-driven stages the operator must restart rustfs with the emitted env
before the run; the docker four-node (p3) path exports them for a forwarding
compose. shellcheck-clean.

Runbook updated with a "One-click driver" section.

Co-Authored-By: heihutu <heihutu@gmail.com>

* chore(compose): forward RUSTFS_INTERNODE_* into the four-node cluster

The four-node local-build compose only forwarded a fixed whitelist of env, so
the internode gRPC knobs (grpc-optimization P0-P3) never reached the containers
and the A/B bench driver's "after" phase was a no-op. Forward the full
RUSTFS_INTERNODE_* set with defaults matching the binary defaults, so leaving
them unset is a no-op and the A/B driver can toggle a stage per phase.

Co-Authored-By: heihutu <heihutu@gmail.com>

* fix(internode): address Copilot review — retry health action + poison-safe peer health

Two review nits on #4337:

- P3-3 idempotent read retry (remote_disk.rs): execute_read_with_retry ran every
  attempt through execute_with_timeout_for_op, which hardcodes
  FailureHealthAction::MarkFailure. So the first transient error could flip the
  disk faulty and short-circuit the remaining retries, and each attempt
  over-counted the failure. Route all but the final attempt through
  execute_with_timeout_for_op_and_health_action with IgnoreFailure; only the last
  attempt marks faulty/evicts. No default impact (retries default 0).

- Peer-health helpers (io-metrics): record_peer_reachable/record_peer_unreachable,
  cluster_peer_is_offline and cluster_peer_should_bypass early-returned on a
  poisoned mutex, permanently stalling the offline gauge and bypass state after a
  single panic. Recover via PoisonError::into_inner().

Verification: cargo check/test on io-metrics + ecstore (105 rpc tests green);
clippy clean on touched files; make pre-commit green.

Co-Authored-By: heihutu <heihutu@gmail.com>

---------

Co-authored-by: heihutu <heihutu@gmail.com>
2026-07-07 05:18:31 +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.

CI Build and Push Docker Images GitHub commit activity Github Last Commit Discord Featured|HelloGitHub

rustfs%2Frustfs | Trendshift ROSS Index - Fastest Growing Open-Source Startups in Q4 2025 | Runa Capital

Getting Started · Docs · Bug reports · Discussions

English | 简体中文 | Deutsch | Español | français | 日本語 | 한국어 | Portuguese | Русский

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-beta.8

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 \
  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.

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.

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.

Contributors

Star History

Star History Chart

License

Apache 2.0

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

S
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.
Readme Apache-2.0 104 MiB
Languages
Rust 94.8%
Shell 4.1%
Python 0.9%