Files
rustfs/crates/ecstore/src/store/mod.rs
T
Zhengchao An dd368f0f5b fix(odm): fence source work against bucket recreation (#7231)
* fix(odm): fence backfill checkpoints by bucket incarnation

* fix(odm): bind source work to the bucket incarnation

* fix(odm): retain checkpoint fences through owned commit tails

* docs(odm): explain application service and incarnation boundaries

* test(odm): probe lifecycle fence after checkpoint waiter aborts

* fix(odm): defer source identity errors past local reads

* docs(metadata): clarify MinIO target recovery limits

* fix(odm): keep source-free reads independent of capture errors

* fix(odm): retain one source policy snapshot across lookup

* test(odm): name recorded metadata hook snapshots
2026-09-06 02:05:43 +08:00

2925 lines
118 KiB
Rust

// Copyright 2024 RustFS Team
//
// Licensed under the Apache License, Version 2.0 (the "License");
// you may not use this file except in compliance with the License.
// You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing, software
// distributed under the License is distributed on an "AS IS" BASIS,
// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
// See the License for the specific language governing permissions and
// limitations under the License.
#![allow(clippy::map_entry)]
use crate::bucket::lifecycle::bucket_lifecycle_audit::LcEventSrc;
use crate::bucket::lifecycle::bucket_lifecycle_ops::{
enqueue_immediate_expiry, enqueue_transition_immediate, init_background_expiry,
};
use crate::bucket::metadata_sys;
use crate::bucket::utils::check_abort_multipart_args;
use crate::bucket::utils::check_complete_multipart_args;
use crate::bucket::utils::check_copy_obj_args;
use crate::bucket::utils::check_del_obj_args;
use crate::bucket::utils::check_get_obj_args;
use crate::bucket::utils::check_list_multipart_args;
use crate::bucket::utils::check_list_parts_args;
use crate::bucket::utils::check_new_multipart_args;
use crate::bucket::utils::check_object_args;
use crate::bucket::utils::check_put_object_args;
use crate::bucket::utils::check_put_object_part_args;
use crate::bucket::utils::{check_valid_bucket_name, check_valid_bucket_name_strict, is_meta_bucketname};
use crate::cluster::rpc::{RemoteClient, S3PeerSys};
use crate::config::storageclass;
use crate::core::pools::{DecommissionCanceler, PoolMeta, PoolMetaWriteState};
use crate::disk::endpoint::{Endpoint, EndpointType};
use crate::disk::{DiskAPI, DiskInfo, DiskInfoOptions};
use crate::error::{Error, Result};
use crate::error::{
StorageError, is_err_bucket_exists, is_err_invalid_upload_id, is_err_object_not_found, is_err_read_quorum,
is_err_strict_volume_not_found, is_err_version_not_found, to_object_err,
};
use crate::runtime::global::DISK_RESERVE_FRACTION;
use crate::runtime::instance::InstanceContext;
use crate::runtime::sources as runtime_sources;
use crate::services::rebalance::{RebalStatus, RebalanceMeta, is_rebalance_conflicting_with_decommission};
use crate::storage_api_contracts::{
bucket::{BucketInfo, BucketOperations, BucketOptions, DeleteBucketOptions, MakeBucketOptions},
list::{StorageListObjectVersionsInfo, StorageListObjectsV2Info, StorageObjectInfoOrErr, StorageWalkOptions},
multipart::{CompletePart, ListMultipartsInfo, ListPartsInfo, MultipartInfo, MultipartUploadResult, PartInfo},
object::{DeletedObject, ObjectToDelete},
range::HTTPRangeSpec,
};
use crate::store::init_format::{check_disk_fatal_errs, ec_drives_no_config};
use crate::{
bucket::{lifecycle::bucket_lifecycle_ops::TransitionState, metadata::BucketMetadata},
core::sets::Sets,
disk::{BUCKET_META_PREFIX, DiskOption, DiskStore, RUSTFS_META_BUCKET},
layout::endpoints::EndpointServerPools,
object_api::{GetObjectReader, ObjectInfo, ObjectOptions, PutObjReader, ScannerPublicationCommitScope},
};
use futures::future::join_all;
use http::HeaderMap;
use lazy_static::lazy_static;
use rand::RngExt as _;
use rustfs_config::server_config::Config;
use rustfs_filemeta::{FileInfo, FileMeta};
use rustfs_heal_contracts::heal_channel::{HealItemType, HealOpts};
use rustfs_lock::{LocalClient, LockClient, NamespaceLockWrapper};
use rustfs_madmin::heal_commands::HealResultItem;
use rustfs_utils::path::{decode_dir_object, encode_dir_object, path_join_buf};
use s3s::dto::{BucketVersioningStatus, ObjectLockConfiguration, ObjectLockEnabled, VersioningConfiguration};
use std::net::SocketAddr;
use std::process::exit;
use std::{collections::HashMap, sync::Arc, time::Duration};
use time::OffsetDateTime;
use tokio::select;
use tokio::sync::{Mutex, RwLock};
use tokio::time::sleep;
use tokio_util::sync::CancellationToken;
use tracing::{debug, error, info, instrument, warn};
use uuid::Uuid;
type ListObjectsV2Info = StorageListObjectsV2Info<ObjectInfo>;
type ListObjectVersionsInfo = StorageListObjectVersionsInfo<ObjectInfo>;
type ObjectInfoOrErr = StorageObjectInfoOrErr<ObjectInfo, Error>;
type WalkOptions = StorageWalkOptions<fn(&FileInfo) -> bool>;
pub const SCANNER_PUBLICATION_LEASE_TTL_MS: u64 = 60_000;
pub(crate) const BUCKET_DELETE_XLMETA_DIAGNOSTIC_MAX_BYTES: u64 = 1024 * 1024;
pub(crate) const BUCKET_DELETE_DIAGNOSTIC_MAX_ENTRIES: usize = 4_096;
pub(crate) const BUCKET_DELETE_DIAGNOSTIC_MAX_ELAPSED: Duration = Duration::from_millis(100);
#[derive(Debug)]
pub(crate) struct BucketDeleteDiagnosticBudget {
deadline: Option<tokio::time::Instant>,
max_elapsed: Duration,
entries_remaining: usize,
#[cfg(test)]
first_io_delay: Option<(Duration, Arc<std::sync::atomic::AtomicBool>)>,
}
impl BucketDeleteDiagnosticBudget {
pub(crate) fn new() -> Self {
Self::with_limits(BUCKET_DELETE_DIAGNOSTIC_MAX_ENTRIES, BUCKET_DELETE_DIAGNOSTIC_MAX_ELAPSED)
}
fn with_limits(entries: usize, elapsed: Duration) -> Self {
Self {
deadline: None,
max_elapsed: elapsed,
entries_remaining: entries,
#[cfg(test)]
first_io_delay: None,
}
}
#[cfg(test)]
fn with_first_io_delay(mut self, delay: Duration, started: Arc<std::sync::atomic::AtomicBool>) -> Self {
self.first_io_delay = Some((delay, started));
self
}
fn deadline(&mut self) -> tokio::time::Instant {
let max_elapsed = self.max_elapsed;
*self.deadline.get_or_insert_with(|| tokio::time::Instant::now() + max_elapsed)
}
fn claim_entry(&mut self) -> bool {
if self.entries_remaining == 0 {
return false;
}
let deadline = self.deadline();
if tokio::time::Instant::now() >= deadline {
return false;
}
self.entries_remaining -= 1;
true
}
async fn run_io<T, F>(&mut self, future: F) -> std::io::Result<Option<T>>
where
F: std::future::Future<Output = std::io::Result<T>>,
{
let deadline = self.deadline();
if tokio::time::Instant::now() >= deadline {
return Ok(None);
}
#[cfg(test)]
let first_io_delay = self.first_io_delay.take();
#[cfg(test)]
let timeout_result = tokio::time::timeout_at(deadline, async move {
if let Some((delay, started)) = first_io_delay {
started.store(true, std::sync::atomic::Ordering::SeqCst);
tokio::time::sleep(delay).await;
}
future.await
})
.await;
#[cfg(not(test))]
let timeout_result = tokio::time::timeout_at(deadline, future).await;
match timeout_result {
Ok(result) => result.map(Some),
Err(_) => Ok(None),
}
}
}
#[derive(Debug, Default, Clone, PartialEq, Eq)]
pub(crate) struct BucketMetadataLessResidue {
pub(crate) xlmeta_found: bool,
pub(crate) xlmeta_blocker: Option<BucketDeleteBlockerKind>,
pub(crate) files: usize,
pub(crate) uuid_data_dirs: usize,
pub(crate) entries_scanned: usize,
pub(crate) diagnostic_bytes_read: u64,
pub(crate) diagnostic_truncated: bool,
pub(crate) sample: Option<String>,
}
#[derive(Debug, Clone, Copy, PartialEq, Eq)]
pub(crate) enum BucketDeleteBlockerKind {
VisibleVersion,
TierFreeVersion,
UnknownXlMeta,
OrphanDirectory,
DiagnosticBudgetExceeded,
}
impl BucketDeleteBlockerKind {
pub(crate) const fn as_str(self) -> &'static str {
match self {
Self::VisibleVersion => "visible_version",
Self::TierFreeVersion => "tier_free_version",
Self::UnknownXlMeta => "unknown_xlmeta",
Self::OrphanDirectory => "orphan_directory",
Self::DiagnosticBudgetExceeded => "diagnostic_budget_exceeded",
}
}
/// Whether the blocking residue is something the caller can still see and
/// remove through the S3 API.
///
/// A live version or a tier free-version is ordinary: the bucket really is
/// not empty, the client can list and delete what is left, and the 409 it
/// receives is a complete answer.
///
/// The remaining kinds are not. They are on-disk state that no S3 request
/// can reach: the caller has drained every version the API will show and
/// `DeleteBucket` still refuses, with no way to find out why. That is a
/// server-side integrity problem, and it is the reason this classification
/// exists — see [`bucket_delete_blocker_level`].
pub(crate) const fn is_client_visible(self) -> bool {
matches!(self, Self::VisibleVersion | Self::TierFreeVersion)
}
}
impl BucketMetadataLessResidue {
pub(crate) fn has_residue_without_xlmeta(&self) -> bool {
!self.xlmeta_found && (self.files > 0 || self.diagnostic_truncated)
}
pub(crate) fn describe(&self) -> String {
let sample = self.sample.as_deref().unwrap_or("<none>");
format!(
"metadata-less on-disk residue remains after empty-bucket verification: files={}, uuid_data_dirs={}, entries_scanned={}, diagnostic_bytes_read={}, diagnostic_truncated={}, sample={sample}",
self.files, self.uuid_data_dirs, self.entries_scanned, self.diagnostic_bytes_read, self.diagnostic_truncated,
)
}
}
/// Check if a directory contains any xl.meta files (indicating actual S3 objects)
/// This is used to determine if a bucket is empty for deletion purposes.
pub(crate) async fn has_xlmeta_files(path: &std::path::Path) -> std::io::Result<bool> {
use crate::disk::STORAGE_FORMAT_FILE;
use tokio::fs;
let mut stack = vec![path.to_path_buf()];
while let Some(current_path) = stack.pop() {
let mut entries = match fs::read_dir(&current_path).await {
Ok(entries) => entries,
Err(err) if err.kind() == std::io::ErrorKind::NotFound => continue,
Err(err) => return Err(err),
};
while let Some(entry) = entries.next_entry().await? {
let file_name = entry.file_name();
let file_name_str = file_name.to_string_lossy();
// Check if this is an xl.meta file
if file_name_str == STORAGE_FORMAT_FILE {
return Ok(true);
}
// If it's a directory, add to stack for further exploration
if entry.file_type().await?.is_dir() {
stack.push(entry.path());
}
}
}
Ok(false)
}
#[cfg(test)]
pub(crate) async fn scan_metadata_less_residue(path: &std::path::Path) -> std::io::Result<BucketMetadataLessResidue> {
let mut budget = BucketDeleteDiagnosticBudget::new();
scan_metadata_less_residue_with_budget(path, &mut budget).await
}
async fn scan_metadata_less_residue_with_budget(
path: &std::path::Path,
budget: &mut BucketDeleteDiagnosticBudget,
) -> std::io::Result<BucketMetadataLessResidue> {
use crate::disk::STORAGE_FORMAT_FILE;
use tokio::fs;
use tokio::io::AsyncReadExt as _;
let mut scan = BucketMetadataLessResidue::default();
let mut stack = vec![path.to_path_buf()];
let mark_budget_exhausted = |scan: &mut BucketMetadataLessResidue| {
scan.diagnostic_truncated = true;
scan.sample.get_or_insert_with(|| "<diagnostic-budget-exceeded>".to_string());
};
while let Some(current_path) = stack.pop() {
let mut entries = match budget.run_io(fs::read_dir(&current_path)).await {
Ok(Some(entries)) => entries,
Ok(None) => {
mark_budget_exhausted(&mut scan);
return Ok(scan);
}
Err(err) if err.kind() == std::io::ErrorKind::NotFound => continue,
Err(err) => return Err(err),
};
loop {
let entry = match budget.run_io(entries.next_entry()).await? {
Some(Some(entry)) => entry,
Some(None) => break,
None => {
mark_budget_exhausted(&mut scan);
return Ok(scan);
}
};
if !budget.claim_entry() {
mark_budget_exhausted(&mut scan);
return Ok(scan);
}
scan.entries_scanned = scan.entries_scanned.saturating_add(1);
let Some(file_type) = budget.run_io(entry.file_type()).await? else {
mark_budget_exhausted(&mut scan);
return Ok(scan);
};
let file_name = entry.file_name();
let file_name_str = file_name.to_string_lossy();
if file_name_str == STORAGE_FORMAT_FILE {
scan.xlmeta_found = true;
if scan.xlmeta_blocker.is_none() {
let entry_path = entry.path();
let Some(metadata) = budget.run_io(fs::metadata(&entry_path)).await? else {
mark_budget_exhausted(&mut scan);
scan.xlmeta_blocker = Some(BucketDeleteBlockerKind::DiagnosticBudgetExceeded);
return Ok(scan);
};
scan.xlmeta_blocker = Some(if metadata.len() > BUCKET_DELETE_XLMETA_DIAGNOSTIC_MAX_BYTES {
BucketDeleteBlockerKind::UnknownXlMeta
} else {
match budget.run_io(fs::File::open(&entry_path)).await {
Ok(Some(file)) => {
let mut data = Vec::new();
let read = budget
.run_io(file.take(BUCKET_DELETE_XLMETA_DIAGNOSTIC_MAX_BYTES).read_to_end(&mut data))
.await;
scan.diagnostic_bytes_read = data.len() as u64;
match read {
Ok(Some(_)) => match FileMeta::load(&data) {
Ok(meta)
if !meta.versions.is_empty()
&& meta.versions.iter().all(|version| version.header.free_version()) =>
{
BucketDeleteBlockerKind::TierFreeVersion
}
Ok(meta) if !meta.versions.is_empty() => BucketDeleteBlockerKind::VisibleVersion,
Ok(_) | Err(_) => BucketDeleteBlockerKind::UnknownXlMeta,
},
Ok(None) => {
mark_budget_exhausted(&mut scan);
BucketDeleteBlockerKind::DiagnosticBudgetExceeded
}
Err(_) => BucketDeleteBlockerKind::UnknownXlMeta,
}
}
Ok(None) => {
mark_budget_exhausted(&mut scan);
BucketDeleteBlockerKind::DiagnosticBudgetExceeded
}
Err(_) => BucketDeleteBlockerKind::UnknownXlMeta,
}
});
let sample = entry_path
.strip_prefix(path)
.unwrap_or(entry_path.as_path())
.to_string_lossy()
.replace(std::path::MAIN_SEPARATOR, "/");
scan.sample = Some(sample);
}
return Ok(scan);
}
if file_type.is_dir() {
if Uuid::parse_str(&file_name_str).is_ok() {
scan.uuid_data_dirs = scan.uuid_data_dirs.saturating_add(1);
}
stack.push(entry.path());
} else {
scan.files = scan.files.saturating_add(1);
if scan.sample.is_none() {
let entry_path = entry.path();
let sample = entry_path
.strip_prefix(path)
.unwrap_or(entry_path.as_path())
.to_string_lossy()
.replace(std::path::MAIN_SEPARATOR, "/");
scan.sample = Some(sample);
}
}
}
}
Ok(scan)
}
async fn enqueue_transition_after_write(result: Result<ObjectInfo>, src: LcEventSrc) -> Result<ObjectInfo> {
match result {
Ok(oi) => {
if should_enqueue_transition_immediately(&oi) {
enqueue_transition_immediate(&oi, src.clone()).await;
enqueue_immediate_expiry(&oi, src).await;
}
Ok(oi)
}
Err(err) => Err(err),
}
}
fn should_enqueue_transition_immediately(oi: &ObjectInfo) -> bool {
!is_meta_bucketname(&oi.bucket)
}
const MAX_UPLOADS_LIST: usize = 10000;
mod bucket;
mod bucket_fence;
pub(crate) use bucket::await_bucket_namespace_operation;
pub use bucket_fence::BucketIncarnationFenceGuard;
mod heal;
mod heal_walk;
pub use heal_walk::HealWalkVersion;
mod init;
pub(crate) mod init_format;
pub(crate) mod list_objects;
mod multipart;
mod object;
#[cfg(feature = "test-util")]
pub use object::DeleteAfterObjectLockSnapshotBarrier;
pub(crate) use object::{
DecommissionFixedReadAnchor, ObjectLockDiagGuard, RemoteTuplePublicationCommitGuard, RemoteTuplePublicationFence,
SourceCleanupMutationFence, tiered_data_movement_source_matches,
};
pub use object::{
PrepareSelectObjectSnapshotError, PreparedGetObjectReader, SelectObjectSnapshot, SelectObjectSnapshotReadError,
SnapshotConsistencyError,
};
mod peer;
mod rebalance;
pub(crate) mod utils;
use peer::init_local_peer;
pub use peer::{
all_local_disk, all_local_disk_path, find_local_disk_by_ref, get_disk_infos, init_local_disks,
init_local_disks_with_instance_ctx, init_lock_clients, prewarm_local_disk_id_map,
prewarm_local_disk_id_map_with_instance_ctx,
};
pub struct ECStore {
pub id: Uuid,
// pub disks: Vec<DiskStore>,
pub disk_map: HashMap<usize, Vec<Option<DiskStore>>>,
pub pools: Vec<Arc<Sets>>,
pub peer_sys: S3PeerSys,
// pub local_disks: Vec<DiskStore>,
pub pool_meta: RwLock<PoolMeta>,
pub rebalance_meta: RwLock<Option<RebalanceMeta>>,
pub decommission_cancelers: RwLock<Vec<Option<DecommissionCanceler>>>,
/// Serializes rebalance/decommission start transitions.
///
/// Lock order: acquire `start_gate` before `pool_meta`, `rebalance_meta`,
/// or `decommission_cancelers`. The guarded sections may perform bounded
/// async metadata work so check/init/start cannot race across operations.
pub(crate) start_gate: Mutex<()>,
/// Serializes full-document pool metadata saves and retains a fail-closed
/// write block after startup observes an unreadable replica.
///
/// Lock order: acquire `pool_meta_save_gate`, then the distributed
/// `pool.bin` fence, then clone `pool_meta` under a short read lock.
pub(crate) pool_meta_save_gate: Mutex<PoolMetaWriteState>,
/// Per-instance runtime state (Phase 5, backlog#939).
///
/// Carries this instance's identity/runtime out of the process globals so
/// multiple instances can coexist without cross-contamination. `new`
/// adopts the process bootstrap context (never mints a fresh one) so that
/// startup writes and post-construction reads share one cell — single
/// instance behavior is unchanged.
pub(crate) ctx: Arc<InstanceContext>,
/// Memoizes bucket-incarnation validation under continuous lifecycle
/// read-lock coverage (see [`bucket_fence`]).
pub(crate) bucket_fence_registry: Arc<bucket_fence::BucketFenceRegistry>,
}
const METRIC_SCANNER_DATA_MOVEMENT_PAUSED: &str = "rustfs_scanner_data_movement_paused";
const METRIC_SCANNER_DATA_MOVEMENT_PAUSE_DURATION_SECONDS: &str = "rustfs_scanner_data_movement_pause_duration_seconds";
const METRIC_SCANNER_DATA_MOVEMENT_BACKLOG_WORK_ITEMS: &str = "rustfs_scanner_data_movement_backlog_work_items";
const SCANNER_DATA_MOVEMENT_PAUSE_POLICY: &str = "global_pause";
#[derive(Clone, Copy, Debug, PartialEq, Eq, serde::Serialize)]
#[serde(rename_all = "snake_case")]
pub enum ScannerDataMovementPauseReason {
OperationEpochExhausted,
MovementGenerationExhausted,
DecommissionActive,
DecommissionFailed,
DecommissionCanceled,
RebalanceActive,
}
#[derive(Clone, Debug, PartialEq, Eq, serde::Serialize)]
pub struct ScannerDataMovementPauseStatus {
pub paused: bool,
pub policy: &'static str,
pub reasons: Vec<ScannerDataMovementPauseReason>,
pub started_at_unix_secs: u64,
pub duration_seconds: u64,
pub operation_epoch: u64,
pub movement_generation: u64,
pub movement_backlog_work_items: u64,
pub movement_backlog_estimated: bool,
}
impl Default for ScannerDataMovementPauseStatus {
fn default() -> Self {
Self {
paused: false,
policy: SCANNER_DATA_MOVEMENT_PAUSE_POLICY,
reasons: Vec::new(),
started_at_unix_secs: 0,
duration_seconds: 0,
operation_epoch: 0,
movement_generation: 0,
movement_backlog_work_items: 0,
movement_backlog_estimated: false,
}
}
}
fn offset_unix_seconds(value: OffsetDateTime) -> u64 {
u64::try_from(value.unix_timestamp()).unwrap_or(0)
}
fn earliest_timestamp(current: Option<OffsetDateTime>, candidate: Option<OffsetDateTime>) -> Option<OffsetDateTime> {
match (current, candidate) {
(Some(current), Some(candidate)) => Some(current.min(candidate)),
(Some(current), None) => Some(current),
(None, candidate) => candidate,
}
}
fn usize_to_u64(value: usize) -> u64 {
u64::try_from(value).unwrap_or(u64::MAX)
}
fn metric_u64(value: u64) -> f64 {
f64::from(u32::try_from(value).unwrap_or(u32::MAX))
}
pub(crate) fn scanner_data_movement_timestamp_generation(value: OffsetDateTime) -> u64 {
let timestamp = value.unix_timestamp_nanos();
if timestamp <= 0 {
0
} else {
u64::try_from(timestamp).unwrap_or(u64::MAX)
}
}
fn valid_scanner_data_movement_timestamp_generation(value: OffsetDateTime) -> Option<u64> {
let generation = scanner_data_movement_timestamp_generation(value);
(generation != 0 && generation != u64::MAX).then_some(generation)
}
fn durable_scanner_data_movement_generation(pool_meta: &PoolMeta, rebalance_meta: Option<&RebalanceMeta>) -> u64 {
let mut generation = 0;
for pool in pool_meta.pools.iter().filter(|pool| pool.decommission.is_some()) {
let Some(pool_generation) = valid_scanner_data_movement_timestamp_generation(pool.last_update) else {
return u64::MAX;
};
generation = generation.max(pool_generation);
}
for movement_timestamp in rebalance_meta.into_iter().flat_map(|meta| {
meta.stopped_at.into_iter().chain(
meta.pool_stats
.iter()
.flat_map(|pool| [pool.info.start_time, pool.info.end_time])
.flatten(),
)
}) {
let Some(rebalance_generation) = valid_scanner_data_movement_timestamp_generation(movement_timestamp) else {
return u64::MAX;
};
generation = generation.max(rebalance_generation);
}
if generation == 0
&& rebalance_meta.is_some_and(|meta| !meta.id.is_empty() || !meta.pool_stats.is_empty() || meta.stopped_at.is_some())
{
u64::MAX
} else {
generation
}
}
#[derive(Clone, Copy)]
struct ScannerDataMovementSequenceState {
operation_epoch: u64,
operation_epoch_exhausted: bool,
movement_generation: u64,
movement_generation_exhausted: bool,
}
fn resolve_scanner_data_movement_pause_status(
pool_meta: &PoolMeta,
rebalance_meta: Option<&RebalanceMeta>,
decommission_worker_active: bool,
sequence: ScannerDataMovementSequenceState,
now: OffsetDateTime,
) -> ScannerDataMovementPauseStatus {
let mut decommission_active = decommission_worker_active;
let mut decommission_failed = false;
let mut decommission_canceled = false;
let mut rebalance_active = false;
let mut started_at = None;
let mut movement_backlog_work_items = 0_u64;
for pool in &pool_meta.pools {
let Some(info) = pool.decommission.as_ref() else {
continue;
};
let active = info.has_decommission_state() && !info.complete && !info.failed && !info.canceled;
let failed = !info.queued && info.failed;
let canceled = !info.queued && info.canceled;
if !(active || failed || canceled) {
continue;
}
decommission_active |= active;
decommission_failed |= failed;
decommission_canceled |= canceled;
started_at = earliest_timestamp(started_at, info.start_time.or(Some(pool.last_update)));
let queued = usize_to_u64(info.queued_buckets.len());
let current_bucket = if info.bucket.is_empty() { 0 } else { 1 };
movement_backlog_work_items = movement_backlog_work_items.saturating_add(queued.max(current_bucket));
}
if let Some(rebalance_meta) = rebalance_meta {
for pool in &rebalance_meta.pool_stats {
let active = (pool.participating && pool.info.status == RebalStatus::Started) || pool.info.stopping;
if !active {
continue;
}
rebalance_active = true;
started_at = earliest_timestamp(started_at, pool.info.start_time);
movement_backlog_work_items = movement_backlog_work_items.saturating_add(usize_to_u64(pool.buckets.len()));
}
}
let mut reasons = Vec::with_capacity(6);
if sequence.operation_epoch_exhausted {
reasons.push(ScannerDataMovementPauseReason::OperationEpochExhausted);
}
if sequence.movement_generation_exhausted {
reasons.push(ScannerDataMovementPauseReason::MovementGenerationExhausted);
}
if decommission_active {
reasons.push(ScannerDataMovementPauseReason::DecommissionActive);
}
if decommission_failed {
reasons.push(ScannerDataMovementPauseReason::DecommissionFailed);
}
if decommission_canceled {
reasons.push(ScannerDataMovementPauseReason::DecommissionCanceled);
}
if rebalance_active {
reasons.push(ScannerDataMovementPauseReason::RebalanceActive);
}
let started_at_unix_secs = started_at.map(offset_unix_seconds).unwrap_or(0);
let duration_seconds = started_at
.and_then(|started_at| u64::try_from((now - started_at).whole_seconds()).ok())
.unwrap_or(0);
let paused = !reasons.is_empty();
ScannerDataMovementPauseStatus {
paused,
policy: SCANNER_DATA_MOVEMENT_PAUSE_POLICY,
reasons,
started_at_unix_secs,
duration_seconds,
operation_epoch: sequence.operation_epoch,
movement_generation: sequence.movement_generation,
movement_backlog_work_items,
movement_backlog_estimated: paused,
}
}
fn record_scanner_data_movement_pause_status(status: &ScannerDataMovementPauseStatus) {
metrics::gauge!(METRIC_SCANNER_DATA_MOVEMENT_PAUSED).set(if status.paused { 1.0 } else { 0.0 });
metrics::gauge!(METRIC_SCANNER_DATA_MOVEMENT_PAUSE_DURATION_SECONDS).set(metric_u64(status.duration_seconds));
metrics::gauge!(METRIC_SCANNER_DATA_MOVEMENT_BACKLOG_WORK_ITEMS).set(metric_u64(status.movement_backlog_work_items));
}
impl std::fmt::Debug for ECStore {
fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
let disk_slot_count: usize = self.disk_map.values().map(Vec::len).sum();
f.debug_struct("ECStore")
.field("id", &self.id)
.field("disk_map_pool_count", &self.disk_map.len())
.field("disk_slot_count", &disk_slot_count)
.field("pool_count", &self.pools.len())
.finish_non_exhaustive()
}
}
/// Phase 2: Accessor methods for config globals
/// These delegate to the process-global statics. No local state — the globals
/// remain the single source of truth until the migration is complete.
impl ECStore {
/// Every erasure set across all pools, pool-major order.
///
/// Read-only queries that must consult each set's own copy of a
/// per-bucket object (e.g. the scanner's `.usage-cache.bin`) iterate
/// this instead of the hash-routed store path, which would always land
/// on one set (rustfs/backlog#1872).
pub fn all_set_disks(&self) -> Vec<Arc<crate::set_disk::SetDisks>> {
self.pools.iter().flat_map(|pool| pool.disk_set.iter().cloned()).collect()
}
/// Erasure sets that may receive scanner pause-backlog replicas.
///
/// An actively decommissioning or already decommissioned source pool is
/// excluded so an operational record acknowledged during movement always
/// has a copy on storage that remains in the cluster. The record is kept
/// separate from pool and rebalance metadata.
pub async fn scanner_pause_backlog_writable_set_disks(&self) -> Vec<Arc<crate::set_disk::SetDisks>> {
let pool_meta = self.pool_meta.read().await;
self.pools
.iter()
.enumerate()
.filter(|(pool_index, _)| {
!pool_meta.pools.get(*pool_index).is_some_and(|pool| {
pool.decommission
.as_ref()
.is_some_and(|info| info.has_decommission_state() && !info.failed && !info.canceled)
})
})
.flat_map(|(_, pool)| pool.disk_set.iter().cloned())
.collect()
}
/// Get server configuration (delegates to global)
pub fn get_server_config(&self) -> Option<Config> {
runtime_sources::server_config()
}
/// Set server configuration (delegates to global)
pub fn set_server_config(&self, cfg: Config) {
runtime_sources::set_server_config(cfg);
}
/// Get storage class configuration (delegates to global)
pub fn get_storage_class(&self) -> Option<crate::config::storageclass::Config> {
runtime_sources::storage_class_config()
}
/// Set storage class configuration (delegates to global)
pub fn set_storage_class(&self, cfg: crate::config::storageclass::Config) {
runtime_sources::set_storage_class_config(cfg);
}
}
/// Phase 3: Accessor methods for service globals
/// These provide a unified API through ECStore for accessing cross-cutting
/// service singletons. The globals remain the source of truth.
impl ECStore {
/// Get the notification system
pub fn notification_system(&self) -> Option<std::sync::Arc<crate::services::notification_sys::NotificationSys>> {
runtime_sources::notification_sys()
}
/// Get the bucket metadata system
pub fn bucket_metadata_sys(&self) -> Option<Arc<tokio::sync::RwLock<crate::bucket::metadata_sys::BucketMetadataSys>>> {
runtime_sources::bucket_metadata_sys()
}
/// Get the global endpoints
pub fn endpoints(&self) -> EndpointServerPools {
runtime_sources::endpoint_pools().unwrap_or_else(|| Vec::new().into())
}
/// Get this store instance's endpoint topology without consulting process globals.
pub fn instance_endpoints(&self) -> Option<EndpointServerPools> {
self.ctx.endpoints()
}
/// Get the global region
pub fn region(&self) -> Option<s3s::region::Region> {
runtime_sources::region()
}
/// Get the tier config manager
pub fn tier_config_mgr(&self) -> Arc<tokio::sync::RwLock<crate::services::tier::tier::TierConfigMgr>> {
self.ctx.tier_config_mgr()
}
/// Get the server configuration
pub fn server_config(&self) -> Option<Config> {
runtime_sources::server_config()
}
/// Get the storage class configuration
pub fn storage_class(&self) -> Option<crate::config::storageclass::Config> {
runtime_sources::storage_class_config()
}
}
/// Phase 4: Server address accessors
/// These provide a unified API through ECStore for accessing server-level
/// configuration globals. The globals remain the source of truth.
impl ECStore {
/// Get the server port
pub fn port(&self) -> u16 {
runtime_sources::rustfs_port()
}
/// Get the server host
pub async fn host(&self) -> String {
runtime_sources::rustfs_host().await
}
/// Get the server address (host:port)
pub async fn addr(&self) -> String {
runtime_sources::rustfs_addr().await
}
}
/// Phase 5: Per-instance erasure setup accessors (backlog#939)
///
/// These read this instance's own [`InstanceContext`] rather than a process
/// global, so two instances carrying different contexts stay isolated. The
/// legacy free-function facade (`runtime::global::is_erasure` etc.) forwards to
/// the current instance's context, preserving single-instance behavior.
impl ECStore {
/// Whether this instance uses erasure coding (single-node or distributed).
pub async fn setup_is_erasure(&self) -> bool {
self.ctx.is_erasure().await
}
/// Whether this instance uses distributed erasure coding.
pub async fn setup_is_dist_erasure(&self) -> bool {
self.ctx.is_dist_erasure().await
}
/// Whether this instance uses single-drive erasure coding.
pub async fn setup_is_erasure_sd(&self) -> bool {
self.ctx.is_erasure_sd().await
}
pub fn scanner_namespace_mutation_generation(&self) -> u64 {
list_objects::scanner_namespace_mutation_generation().saturating_add(self.ctx.namespace_commit_generation())
}
pub async fn scanner_data_movement_active(&self) -> bool {
let (decommission, rebalance) = tokio::join!(self.is_decommission_running(), self.is_rebalance_started());
decommission || rebalance
}
/// Return the storage-owned movement state and generation as one
/// authenticated activity snapshot. The read lock is acquired before
/// the state locks (cancelers, pool metadata, then rebalance metadata),
/// matching the transition writer order and preventing a terminal state
/// from being reported with the preceding generation.
pub async fn scanner_data_movement_activity(&self) -> (bool, bool, u64) {
let operation_gate = self.ctx.data_movement_operation_gate();
let _operation_guard = operation_gate.read_owned().await;
let (active, blocked) = self.scanner_data_movement_snapshot_locked().await;
let blocked =
blocked || self.ctx.data_movement_operation_epoch_exhausted() || self.ctx.data_movement_generation_exhausted();
self.ctx.set_scanner_publication_state(blocked);
(active, blocked, self.ctx.data_movement_generation())
}
pub fn scanner_data_movement_generation(&self) -> u64 {
self.ctx.data_movement_generation()
}
pub fn scanner_data_movement_generation_exhausted(&self) -> bool {
self.ctx.data_movement_generation_exhausted()
}
pub fn scanner_data_movement_changed(&self) -> std::sync::Arc<tokio::sync::Notify> {
self.ctx.data_movement_generation_notify()
}
/// Returns whether scanner metadata may still be hidden by a local
/// data-movement state. Terminal failed/canceled decommission entries
/// remain suspended until an operator clears or retries them, so they are
/// a publication barrier even after the worker has stopped. Active PUT
/// rename fanouts also defer publication, including post-ACK tails.
pub async fn scanner_data_usage_publication_blocked(&self) -> bool {
let operation_gate = self.ctx.data_movement_operation_gate();
let _operation_guard = operation_gate.read_owned().await;
self.scanner_data_usage_publication_snapshot_blocked().await || self.ctx.namespace_commits_pending()
}
pub async fn scanner_data_movement_pause_status(&self) -> ScannerDataMovementPauseStatus {
let operation_gate = self.ctx.data_movement_operation_gate();
let _operation_guard = operation_gate.read_owned().await;
self.scanner_data_movement_pause_snapshot().await
}
async fn scanner_data_usage_publication_snapshot_blocked(&self) -> bool {
self.scanner_data_movement_pause_snapshot().await.paused
}
async fn scanner_data_movement_snapshot_locked(&self) -> (bool, bool) {
let decommission_cancelers = self.decommission_cancelers.read().await;
let decommission_active = decommission_cancelers
.iter()
.any(|canceler| canceler.as_ref().is_some_and(DecommissionCanceler::is_active));
let pool_meta = self.pool_meta.read().await;
let decommission_active = decommission_active
|| pool_meta.pools.iter().any(|pool| {
pool.decommission
.as_ref()
.is_some_and(|info| info.has_decommission_state() && !info.complete && !info.failed && !info.canceled)
});
let decommission_terminal = pool_meta.pools.iter().any(|pool| {
pool.decommission
.as_ref()
.is_some_and(|info| !info.queued && (info.failed || info.canceled))
});
let rebalance_meta = self.rebalance_meta.read().await;
let rebalance_active = rebalance_meta
.as_ref()
.is_some_and(is_rebalance_conflicting_with_decommission);
self.ctx
.observe_durable_data_movement_generation(durable_scanner_data_movement_generation(
&pool_meta,
rebalance_meta.as_ref(),
));
let blocked = decommission_active || decommission_terminal || rebalance_active;
(decommission_active || rebalance_active, blocked)
}
async fn scanner_data_movement_pause_snapshot(&self) -> ScannerDataMovementPauseStatus {
let decommission_active = {
let decommission_cancelers = self.decommission_cancelers.read().await;
decommission_cancelers
.iter()
.any(|canceler| canceler.as_ref().is_some_and(DecommissionCanceler::is_active))
};
let pool_meta = self.pool_meta.read().await.clone();
let rebalance_meta = self.rebalance_meta.read().await.clone();
self.ctx
.observe_durable_data_movement_generation(durable_scanner_data_movement_generation(
&pool_meta,
rebalance_meta.as_ref(),
));
let status = resolve_scanner_data_movement_pause_status(
&pool_meta,
rebalance_meta.as_ref(),
decommission_active,
ScannerDataMovementSequenceState {
operation_epoch: self.ctx.data_movement_operation_epoch(),
operation_epoch_exhausted: self.ctx.data_movement_operation_epoch_exhausted(),
movement_generation: self.ctx.data_movement_generation(),
movement_generation_exhausted: self.ctx.data_movement_generation_exhausted(),
},
OffsetDateTime::now_utc(),
);
self.ctx.set_scanner_publication_state(status.paused);
record_scanner_data_movement_pause_status(&status);
status
}
#[cfg(test)]
pub(crate) async fn scanner_data_movement_pause_snapshot_for_test(&self) -> ScannerDataMovementPauseStatus {
self.scanner_data_movement_pause_snapshot().await
}
/// Admit one short data-usage publication commit under the same
/// per-instance gate used by decommission side effects and transitions.
/// The epoch is sampled while the read guard is held, so a transition
/// cannot cross this admission without waiting for the commit to finish.
pub async fn scanner_data_usage_publication_read_guard(&self) -> (tokio::sync::OwnedRwLockReadGuard<()>, u64) {
let operation_gate = self.ctx.data_movement_operation_gate();
let operation_guard = operation_gate.read_owned().await;
let epoch = self.ctx.data_movement_operation_epoch();
(operation_guard, epoch)
}
/// Acquire the movement gate and inspect the movement owner once. The
/// state inspection is performed after acquiring the read guard so a
/// transition cannot update its durable state between the check and the
/// publication commit.
pub async fn scanner_data_usage_publication_admission_guard(&self) -> Option<(tokio::sync::OwnedRwLockReadGuard<()>, u64)> {
let operation_gate = self.ctx.data_movement_operation_gate();
let operation_guard = operation_gate.read_owned().await;
if self.ctx.data_movement_operation_epoch_exhausted() || self.ctx.data_movement_generation_exhausted() {
return None;
}
if self.scanner_data_usage_publication_snapshot_blocked().await {
return None;
}
Some((operation_guard, self.ctx.data_movement_operation_epoch()))
}
/// Acquire a storage-owned scanner publication scope. Unlike the legacy
/// admission helper, the movement permit is owned by the returned scope
/// and therefore survives cancellation of the scanner coordinator while
/// the actual metadata mutation drains.
pub async fn scanner_data_usage_publication_commit_scope(
&self,
expected_movement_epoch: u64,
safe_deadline: tokio::time::Instant,
remote_lease_tokens: Vec<Uuid>,
) -> Option<ScannerPublicationCommitScope> {
let (movement_permit, epoch) = self.scanner_data_usage_publication_admission_guard().await?;
if epoch != expected_movement_epoch {
return None;
}
Some(ScannerPublicationCommitScope::new_storage_owned(
epoch,
safe_deadline,
remote_lease_tokens,
movement_permit,
))
}
pub async fn scanner_data_usage_publication_commit_scope_with_release_flag(
&self,
expected_movement_epoch: u64,
safe_deadline: tokio::time::Instant,
remote_lease_tokens: Vec<Uuid>,
lease_release_safe: Arc<std::sync::atomic::AtomicBool>,
) -> Option<ScannerPublicationCommitScope> {
let (movement_permit, epoch) = self.scanner_data_usage_publication_admission_guard().await?;
if epoch != expected_movement_epoch {
return None;
}
Some(ScannerPublicationCommitScope::new_storage_owned_with_release_flag(
epoch,
safe_deadline,
remote_lease_tokens,
movement_permit,
lease_release_safe,
))
}
/// Capture the current publication epoch without holding the movement
/// gate across backend I/O. Callers must re-admit the same epoch before a
/// mutation commits.
pub(crate) async fn scanner_data_usage_publication_epoch(&self) -> Option<u64> {
let (operation_guard, epoch) = self.scanner_data_usage_publication_admission_guard().await?;
drop(operation_guard);
Some(epoch)
}
/// Acquire a storage-owned read admission for a coordinator's final
/// scanner publication. The guard remains in the context's lease table,
/// so a local movement writer cannot pass the peer while its authoritative
/// PUT is in flight.
pub async fn acquire_scanner_publication_lease(
&self,
expected_generation: u64,
ttl: std::time::Duration,
) -> Result<(Uuid, u64)> {
if ttl != crate::runtime::instance::SCANNER_PUBLICATION_LEASE_TTL {
return Err(Error::other("scanner publication lease TTL is not supported"));
}
let operation_gate = self.ctx.data_movement_operation_gate();
let operation_guard = operation_gate.read_owned().await;
if self.ctx.data_movement_generation_exhausted()
|| self.ctx.data_movement_operation_epoch_exhausted()
|| self.ctx.data_movement_generation() != expected_generation
{
return Err(Error::other("scanner publication lease generation is stale"));
}
if self.scanner_data_movement_snapshot_locked().await.1 || self.ctx.namespace_commits_pending() {
return Err(Error::other("scanner publication lease is blocked by data movement"));
}
let token = Uuid::new_v4();
let expires_at = tokio::time::Instant::now() + ttl;
if !self
.ctx
.install_scanner_publication_lease(token, expires_at, expected_generation, operation_guard)
.await
{
return Err(Error::other("scanner publication lease capacity is exhausted"));
}
let context = Arc::clone(&self.ctx);
tokio::spawn(async move {
tokio::time::sleep_until(expires_at).await;
context.expire_scanner_publication_lease(token, expires_at).await;
});
Ok((token, expected_generation))
}
pub async fn release_scanner_publication_lease(&self, token: Uuid) -> bool {
self.ctx.remove_scanner_publication_lease(token).await
}
/// Revalidate a previously acquired remote publication lease immediately
/// before the coordinator's final metadata write. The operation read
/// guard makes the movement snapshot and token lookup one storage-owned
/// admission; a restarted context has no old token and therefore fails
/// closed even if its generation counter has returned to zero.
pub async fn validate_scanner_publication_lease(&self, token: Uuid, expected_generation: u64) -> Result<()> {
let _operation_guard = self.acquire_scanner_publication_lease_guard(token).await?;
if self.ctx.data_movement_generation_exhausted()
|| self.ctx.data_movement_operation_epoch_exhausted()
|| self.ctx.data_movement_generation() != expected_generation
{
return Err(Error::other("scanner publication lease generation is stale"));
}
if self.scanner_data_movement_snapshot_locked().await.1 || self.ctx.namespace_commits_pending() {
return Err(Error::other("scanner publication lease is blocked by data movement"));
}
if !self.ctx.scanner_publication_lease_is_active(token).await {
return Err(Error::other("scanner publication lease is unknown or expired"));
}
Ok(())
}
/// Acquire the target-side read guard bound to a previously granted lease.
/// The guard is returned to the RPC handler and must remain alive through
/// the complete rename/write operation. A lease token is process-owned;
/// restart, expiry, generation changes, or blocked movement all reject it
/// before the target disk is touched.
pub async fn acquire_scanner_publication_lease_guard(&self, token: Uuid) -> Result<tokio::sync::OwnedRwLockReadGuard<()>> {
let operation_gate = self.ctx.data_movement_operation_gate();
let operation_guard = operation_gate.read_owned().await;
if self.ctx.data_movement_generation_exhausted() || self.ctx.data_movement_operation_epoch_exhausted() {
return Err(Error::other("scanner publication lease generation is exhausted"));
}
if self.scanner_data_movement_snapshot_locked().await.1 || self.ctx.namespace_commits_pending() {
return Err(Error::other("scanner publication lease is blocked by data movement"));
}
let Some(lease_generation) = self.ctx.scanner_publication_lease_generation(token).await else {
return Err(Error::other("scanner publication lease is unknown or expired"));
};
if lease_generation != self.ctx.data_movement_generation() {
return Err(Error::other("scanner publication lease generation is stale"));
}
Ok(operation_guard)
}
}
// impl Clone for ECStore {
// fn clone(&self) -> Self {
// let pool_meta = match self.pool_meta.read() {
// Ok(pool_meta) => pool_meta.clone(),
// Err(_) => PoolMeta::default(),
// };
// Self {
// id: self.id.clone(),
// disk_map: self.disk_map.clone(),
// pools: self.pools.clone(),
// peer_sys: self.peer_sys.clone(),
// pool_meta: std_RwLock::new(pool_meta),
// decommission_cancelers: self.decommission_cancelers.clone(),
// }
// }
// }
// #[derive(Debug, Default, Clone)]
// pub struct ListPathOptions {
// pub id: String,
// // Bucket of the listing.
// pub bucket: String,
// // Directory inside the bucket.
// // When unset listPath will set this based on Prefix
// pub base_dir: String,
// // Scan/return only content with prefix.
// pub prefix: String,
// // FilterPrefix will return only results with this prefix when scanning.
// // Should never contain a slash.
// // Prefix should still be set.
// pub filter_prefix: String,
// // Marker to resume listing.
// // The response will be the first entry >= this object name.
// pub marker: String,
// // Limit the number of results.
// pub limit: i32,
// }
#[async_trait::async_trait]
impl crate::storage_api_contracts::object::ObjectIO for ECStore {
type Error = Error;
type RangeSpec = HTTPRangeSpec;
type HeaderMap = HeaderMap;
type ObjectOptions = ObjectOptions;
type ObjectInfo = ObjectInfo;
type GetObjectReader = GetObjectReader;
type PutObjectReader = PutObjReader;
#[instrument(level = "debug", skip(self, h))]
async fn get_object_reader(
&self,
bucket: &str,
object: &str,
range: Option<HTTPRangeSpec>,
h: HeaderMap,
opts: &ObjectOptions,
) -> Result<GetObjectReader> {
self.handle_get_object_reader(bucket, object, range, h, opts).await
}
#[instrument(level = "debug", skip(self, data))]
async fn put_object(&self, bucket: &str, object: &str, data: &mut PutObjReader, opts: &ObjectOptions) -> Result<ObjectInfo> {
self.put_object_with_old_current_size(bucket, object, data, opts)
.await
.map(|(object_info, _)| object_info)
}
}
impl ECStore {
/// `put_object` plus the rename_data old-size backfill
/// (rustfs/backlog#1009); see `SetDisks::put_object_with_old_current_size`.
/// Post-write hooks (immediate ILM transition enqueue, list-cache
/// invalidation) match the plain `put_object` path exactly.
#[instrument(level = "debug", skip(self, data))]
pub async fn put_object_with_old_current_size(
&self,
bucket: &str,
object: &str,
data: &mut PutObjReader,
opts: &ObjectOptions,
) -> Result<(ObjectInfo, Option<crate::disk::OldCurrentSize>)> {
let result = match self.handle_put_object(bucket, object, data, opts).await {
Ok((object_info, old_current_size)) => enqueue_transition_after_write(Ok(object_info), LcEventSrc::S3PutObject)
.await
.map(|object_info| (object_info, old_current_size)),
Err(err) => Err(err),
};
if result.is_ok() {
list_objects::observe_list_objects_mutation(self, bucket).await;
}
result
}
}
lazy_static! {
static ref ENABLED_OBJECT_LOCK_CONFIG: ObjectLockConfiguration = ObjectLockConfiguration {
object_lock_enabled: Some(ObjectLockEnabled::from_static(ObjectLockEnabled::ENABLED)),
..Default::default()
};
static ref ENABLED_VERSIONING_CONFIG: VersioningConfiguration = VersioningConfiguration {
status: Some(BucketVersioningStatus::from_static(BucketVersioningStatus::ENABLED)),
..Default::default()
};
}
#[async_trait::async_trait]
impl BucketOperations for ECStore {
type Error = Error;
#[instrument(skip(self))]
async fn make_bucket(&self, bucket: &str, opts: &MakeBucketOptions) -> Result<()> {
Box::pin(self.handle_make_bucket(bucket, opts)).await
}
#[instrument(skip(self))]
async fn get_bucket_info(&self, bucket: &str, opts: &BucketOptions) -> Result<BucketInfo> {
self.handle_get_bucket_info(bucket, opts).await
}
#[instrument(skip(self))]
async fn list_bucket(&self, opts: &BucketOptions) -> Result<Vec<BucketInfo>> {
self.handle_list_bucket(opts).await
}
#[instrument(skip(self))]
async fn delete_bucket(&self, bucket: &str, opts: &DeleteBucketOptions) -> Result<()> {
Box::pin(self.handle_delete_bucket(bucket, opts)).await
}
}
#[async_trait::async_trait]
impl crate::storage_api_contracts::object::ObjectOperations for ECStore {
type Error = Error;
type ObjectInfo = ObjectInfo;
type ObjectOptions = ObjectOptions;
type FileInfo = FileInfo;
type ObjectToDelete = ObjectToDelete;
type DeletedObject = DeletedObject;
async fn get_object_info(&self, bucket: &str, object: &str, opts: &ObjectOptions) -> Result<ObjectInfo> {
self.handle_get_object_info(bucket, object, opts).await
}
async fn verify_object_integrity(&self, bucket: &str, object: &str, opts: &ObjectOptions) -> Result<()> {
self.handle_verify_object_integrity(bucket, object, opts).await
}
#[instrument(skip(self))]
async fn copy_object(
&self,
src_bucket: &str,
src_object: &str,
dst_bucket: &str,
dst_object: &str,
src_info: &mut ObjectInfo,
src_opts: &ObjectOptions,
dst_opts: &ObjectOptions,
) -> Result<ObjectInfo> {
let result = enqueue_transition_after_write(
self.handle_copy_object(src_bucket, src_object, dst_bucket, dst_object, src_info, src_opts, dst_opts)
.await,
LcEventSrc::S3CopyObject,
)
.await;
if result.is_ok() {
list_objects::observe_list_objects_mutation(self, dst_bucket).await;
}
result
}
#[instrument(skip(self))]
async fn delete_object_version(&self, bucket: &str, object: &str, fi: &FileInfo, force_del_marker: bool) -> Result<()> {
let result = self.handle_delete_object_version(bucket, object, fi, force_del_marker).await;
if result.is_ok() {
list_objects::observe_list_objects_mutation(self, bucket).await;
}
result
}
#[instrument(skip(self))]
async fn delete_object(&self, bucket: &str, object: &str, opts: ObjectOptions) -> Result<ObjectInfo> {
let result = self.handle_delete_object(bucket, object, opts).await;
if result.is_ok() {
list_objects::observe_list_objects_mutation(self, bucket).await;
}
result
}
#[instrument(skip(self, objects, opts))]
async fn delete_objects(
&self,
bucket: &str,
objects: Vec<ObjectToDelete>,
opts: ObjectOptions,
) -> (Vec<DeletedObject>, Vec<Option<Error>>) {
let result = self.handle_delete_objects(bucket, objects, opts).await;
let success_count = result.1.iter().filter(|err| err.is_none()).count();
if success_count > 0 {
list_objects::observe_list_objects_mutations(self, bucket, success_count).await;
}
result
}
#[instrument(skip(self))]
async fn put_object_metadata(&self, bucket: &str, object: &str, opts: &ObjectOptions) -> Result<ObjectInfo> {
self.handle_put_object_metadata(bucket, object, opts).await
}
#[instrument(skip(self))]
async fn get_object_tags(&self, bucket: &str, object: &str, opts: &ObjectOptions) -> Result<String> {
self.handle_get_object_tags(bucket, object, opts).await
}
#[instrument(level = "debug", skip(self))]
async fn put_object_tags(&self, bucket: &str, object: &str, tags: &str, opts: &ObjectOptions) -> Result<ObjectInfo> {
self.handle_put_object_tags(bucket, object, tags, opts).await
}
#[instrument(skip(self))]
async fn delete_object_tags(&self, bucket: &str, object: &str, opts: &ObjectOptions) -> Result<ObjectInfo> {
self.handle_delete_object_tags(bucket, object, opts).await
}
#[instrument(skip(self))]
async fn add_partial(&self, bucket: &str, object: &str, version_id: &str) -> Result<()> {
self.handle_add_partial(bucket, object, version_id).await
}
#[instrument(skip(self))]
async fn transition_object(&self, bucket: &str, object: &str, opts: &ObjectOptions) -> Result<()> {
self.handle_transition_object(bucket, object, opts).await
}
#[instrument(skip(self))]
async fn restore_transitioned_object(self: Arc<Self>, bucket: &str, object: &str, opts: &ObjectOptions) -> Result<()> {
self.handle_restore_transitioned_object(bucket, object, opts).await
}
}
#[async_trait::async_trait]
impl crate::storage_api_contracts::list::ListOperations for ECStore {
type Error = Error;
type ListObjectsV2Info = ListObjectsV2Info;
type ListObjectVersionsInfo = ListObjectVersionsInfo;
type ObjectInfoOrErr = ObjectInfoOrErr;
type WalkOptions = WalkOptions;
type WalkCancellation = CancellationToken;
type WalkResultSender = tokio::sync::mpsc::Sender<ObjectInfoOrErr>;
// @continuation_token marker
// @start_after as marker when continuation_token empty
// @delimiter default="/", empty when recursive
// @max_keys limit
#[instrument(level = "trace", skip(self))]
async fn list_objects_v2(
self: Arc<Self>,
bucket: &str,
prefix: &str,
continuation_token: Option<String>,
delimiter: Option<String>,
max_keys: i32,
fetch_owner: bool,
start_after: Option<String>,
incl_deleted: bool,
) -> Result<ListObjectsV2Info> {
self.inner_list_objects_v2(
bucket,
prefix,
continuation_token,
delimiter,
max_keys,
fetch_owner,
start_after,
incl_deleted,
)
.await
}
#[instrument(skip(self))]
async fn list_object_versions(
self: Arc<Self>,
bucket: &str,
prefix: &str,
marker: Option<String>,
version_marker: Option<String>,
delimiter: Option<String>,
max_keys: i32,
) -> Result<ListObjectVersionsInfo> {
self.inner_list_object_versions(bucket, prefix, marker, version_marker, delimiter, max_keys)
.await
}
async fn walk(
self: Arc<Self>,
rx: CancellationToken,
bucket: &str,
prefix: &str,
result: tokio::sync::mpsc::Sender<ObjectInfoOrErr>,
opts: WalkOptions,
) -> Result<()> {
self.walk_internal(rx, bucket, prefix, result, opts).await
}
}
#[async_trait::async_trait]
impl crate::storage_api_contracts::multipart::MultipartOperations for ECStore {
type Error = Error;
type ObjectInfo = ObjectInfo;
type ObjectOptions = ObjectOptions;
type PutObjectReader = PutObjReader;
type CompletePart = CompletePart;
type ListMultipartsInfo = ListMultipartsInfo;
type MultipartUploadResult = MultipartUploadResult;
type PartInfo = PartInfo;
type MultipartInfo = MultipartInfo;
type ListPartsInfo = ListPartsInfo;
#[instrument(skip(self))]
async fn list_multipart_uploads(
&self,
bucket: &str,
prefix: &str,
key_marker: Option<String>,
upload_id_marker: Option<String>,
delimiter: Option<String>,
max_uploads: usize,
) -> Result<ListMultipartsInfo> {
self.handle_list_multipart_uploads(
bucket,
multipart::MultipartUploadListRequest {
prefix: prefix.to_string(),
key_marker,
upload_id_marker,
delimiter,
max_uploads,
expected_incarnation_id: None,
},
)
.await
}
#[instrument(skip(self))]
async fn new_multipart_upload(&self, bucket: &str, object: &str, opts: &ObjectOptions) -> Result<MultipartUploadResult> {
self.handle_new_multipart_upload(bucket, object, opts).await
}
#[instrument(skip(self))]
async fn copy_object_part(
&self,
src_bucket: &str,
src_object: &str,
_dst_bucket: &str,
_dst_object: &str,
_upload_id: &str,
_part_id: usize,
_start_offset: i64,
_length: i64,
_src_info: &ObjectInfo,
_src_opts: &ObjectOptions,
_dst_opts: &ObjectOptions,
) -> Result<()> {
self.handle_copy_object_part(
src_bucket,
src_object,
_dst_bucket,
_dst_object,
_upload_id,
_part_id,
_start_offset,
_length,
_src_info,
_src_opts,
_dst_opts,
)
.await
}
#[instrument(skip(self, data))]
async fn put_object_part(
&self,
bucket: &str,
object: &str,
upload_id: &str,
part_id: usize,
data: &mut PutObjReader,
opts: &ObjectOptions,
) -> Result<PartInfo> {
self.handle_put_object_part(bucket, object, upload_id, part_id, data, opts)
.await
}
#[instrument(skip(self))]
async fn get_multipart_info(
&self,
bucket: &str,
object: &str,
upload_id: &str,
opts: &ObjectOptions,
) -> Result<MultipartInfo> {
self.handle_get_multipart_info(bucket, object, upload_id, opts).await
}
#[instrument(skip(self))]
async fn list_object_parts(
&self,
bucket: &str,
object: &str,
upload_id: &str,
part_number_marker: Option<usize>,
max_parts: usize,
opts: &ObjectOptions,
) -> Result<ListPartsInfo> {
self.handle_list_object_parts(bucket, object, upload_id, part_number_marker, max_parts, opts)
.await
}
#[instrument(skip(self))]
async fn abort_multipart_upload(&self, bucket: &str, object: &str, upload_id: &str, opts: &ObjectOptions) -> Result<()> {
self.handle_abort_multipart_upload(bucket, object, upload_id, opts).await
}
#[instrument(skip(self))]
async fn complete_multipart_upload(
self: Arc<Self>,
bucket: &str,
object: &str,
upload_id: &str,
uploaded_parts: Vec<CompletePart>,
opts: &ObjectOptions,
) -> Result<ObjectInfo> {
let result = enqueue_transition_after_write(
self.clone()
.handle_complete_multipart_upload(bucket, object, upload_id, uploaded_parts, opts)
.await,
LcEventSrc::S3CompleteMultipartUpload,
)
.await;
if result.is_ok() {
list_objects::observe_list_objects_mutation(self.as_ref(), bucket).await;
}
result
}
}
#[async_trait::async_trait]
impl crate::storage_api_contracts::heal::HealOperations for ECStore {
type Error = Error;
type HealResultItem = HealResultItem;
type HealOptions = HealOpts;
#[instrument(skip(self))]
async fn heal_format(&self, dry_run: bool) -> Result<(HealResultItem, Option<Error>)> {
self.handle_heal_format(dry_run).await
}
#[instrument(skip(self))]
async fn heal_bucket(&self, bucket: &str, opts: &HealOpts) -> Result<HealResultItem> {
self.handle_heal_bucket(bucket, opts).await
}
#[instrument(level = "trace", skip(self, opts), fields(bucket = %bucket, object = %object, version_id = %version_id))]
async fn heal_object(
&self,
bucket: &str,
object: &str,
version_id: &str,
opts: &HealOpts,
) -> Result<(HealResultItem, Option<Error>)> {
self.handle_heal_object(bucket, object, version_id, opts).await
}
#[instrument(skip(self))]
async fn get_pool_and_set(&self, id: &str) -> Result<(Option<usize>, Option<usize>, Option<usize>)> {
self.handle_get_pool_and_set(id).await
}
#[instrument(skip(self))]
async fn check_abandoned_parts(&self, bucket: &str, object: &str, opts: &HealOpts) -> Result<()> {
self.handle_check_abandoned_parts(bucket, object, opts).await
}
}
#[async_trait::async_trait]
impl crate::storage_api_contracts::namespace::NamespaceLocking for ECStore {
type Error = Error;
type NamespaceLock = NamespaceLockWrapper;
async fn new_ns_lock(&self, bucket: &str, object: &str) -> Result<NamespaceLockWrapper> {
self.handle_new_ns_lock(bucket, object).await
}
}
#[async_trait::async_trait]
impl crate::storage_api_contracts::admin::StorageAdminApi for ECStore {
type BackendInfo = rustfs_madmin::BackendInfo;
type StorageInfo = rustfs_madmin::StorageInfo;
type Disk = DiskStore;
type Error = Error;
#[instrument(skip(self))]
async fn backend_info(&self) -> Self::BackendInfo {
self.handle_backend_info().await
}
#[instrument(skip(self))]
async fn storage_info(&self) -> Self::StorageInfo {
self.handle_storage_info().await
}
#[instrument(skip(self))]
async fn local_storage_info(&self) -> Self::StorageInfo {
self.handle_local_storage_info().await
}
#[instrument(skip(self))]
async fn disk_set_inventory(
&self,
selector: crate::storage_api_contracts::admin::DiskSetSelector,
) -> Result<Vec<Option<Self::Disk>>> {
self.handle_get_disks(selector.pool_idx, selector.set_idx).await
}
#[instrument(skip(self))]
fn set_drive_counts(&self) -> Vec<usize> {
self.handle_set_drive_counts()
}
}
#[cfg(test)]
mod tests {
use super::*;
use crate::core::pools::{PoolDecommissionInfo, PoolSpaceInfo, PoolStatus};
use crate::layout::endpoints::{Endpoints, PoolEndpoints, SetupType};
use crate::object_api::ObjectOptions;
use crate::runtime::global::reset_local_disk_test_state;
use crate::runtime::sources::{clear_local_disk_id_map_for_test, local_disk_path_by_id};
use crate::store::init_format::{connect_load_init_formats, init_disks};
use serial_test::serial;
use tempfile::TempDir;
#[test]
fn g_d2_008_default_versioning_config_keeps_persisted_bytes() {
let bytes = crate::bucket::utils::serialize::<VersioningConfiguration>(&ENABLED_VERSIONING_CONFIG)
.expect("the default Versioning configuration must serialize");
assert_eq!(bytes, b"<VersioningConfiguration><Status>Enabled</Status></VersioningConfiguration>");
}
#[test]
fn g_d2_009_default_object_lock_config_keeps_persisted_bytes() {
let bytes = crate::bucket::utils::serialize::<ObjectLockConfiguration>(&ENABLED_OBJECT_LOCK_CONFIG)
.expect("the default Object Lock configuration must serialize");
assert_eq!(
bytes,
b"<ObjectLockConfiguration><ObjectLockEnabled>Enabled</ObjectLockEnabled></ObjectLockConfiguration>"
);
}
#[tokio::test]
async fn test_get_disk_infos() {
let disks = vec![None, None]; // Empty disks for testing
let infos = get_disk_infos(&disks).await;
assert_eq!(infos.len(), disks.len());
// All should be None since we passed None disks
assert!(infos.iter().all(|info| info.is_none()));
}
#[test]
fn ecstore_debug_is_bounded_summary() {
let endpoint_pools = EndpointServerPools::default();
let ctx = Arc::new(InstanceContext::new());
let store = ECStore {
id: uuid::Uuid::new_v4(),
disk_map: [(0, vec![None, None, None, None])].into_iter().collect(),
pools: Vec::new(),
peer_sys: crate::cluster::rpc::S3PeerSys::new_with_instance_ctx(&endpoint_pools, ctx.clone()),
pool_meta: RwLock::new(PoolMeta::default()),
rebalance_meta: RwLock::new(None),
decommission_cancelers: RwLock::new(Vec::new()),
start_gate: Mutex::new(()),
pool_meta_save_gate: Mutex::default(),
ctx,
bucket_fence_registry: Arc::default(),
};
let rendered = format!("{store:?}");
assert!(rendered.len() < 256, "ECStore Debug should stay bounded: {rendered}");
assert!(rendered.contains("disk_map_pool_count"));
assert!(rendered.contains("disk_slot_count"));
assert!(!rendered.contains("disk_map:"));
assert!(!rendered.contains("pools:"));
assert!(!rendered.contains("pool_meta"));
assert!(!rendered.contains("format.json"));
assert!(!rendered.contains("TimedActionSlot"));
assert!(!rendered.contains("DiskHealthTracker"));
}
#[test]
fn object_options_debug_does_not_expand_tier_store_handle() {
let store = build_store_with_ctx(Arc::new(InstanceContext::new()));
let mut opts = ObjectOptions {
version_id: Some("large-version-id".repeat(1024)),
expected_current_version_id: Some("large-expected-version-id".repeat(1024)),
preserve_etag: Some("large-etag".repeat(1024)),
http_preconditions: Some(crate::storage_api_contracts::object::HTTPPreconditions {
if_match: Some("large-if-match".repeat(1024)),
if_none_match: Some("large-if-none-match".repeat(1024)),
..Default::default()
}),
tier_delete_journal_api: Some(store),
..Default::default()
};
opts.user_defined.insert("large-user-metadata".to_owned(), "x".repeat(8192));
opts.eval_metadata = Some([("large-eval-metadata".to_owned(), "y".repeat(8192))].into_iter().collect());
opts.transition.status = "large-transition-status".repeat(1024);
opts.transition.tier = "large-transition-tier".repeat(1024);
opts.lifecycle_audit_event.event.rule_id = "large-rule-id".repeat(1024);
opts.lifecycle_audit_event.event.storage_class = "large-storage-class".repeat(1024);
let rendered = format!("{opts:?}");
assert!(rendered.len() < 4096, "ObjectOptions Debug should stay bounded: {rendered}");
assert!(rendered.contains("tier_delete_journal_api: true"));
assert!(rendered.contains("user_defined_count: 1"));
assert!(rendered.contains("eval_metadata_count: Some(1)"));
assert!(!rendered.contains("ECStore {"));
assert!(!rendered.contains("disk_map"));
assert!(!rendered.contains("large-version-id"));
assert!(!rendered.contains("large-expected-version-id"));
assert!(!rendered.contains("large-etag"));
assert!(!rendered.contains("large-if-match"));
assert!(!rendered.contains("large-transition"));
assert!(!rendered.contains("large-rule-id"));
assert!(!rendered.contains("large-storage-class"));
assert!(!rendered.contains("large-user-metadata"));
assert!(!rendered.contains("large-eval-metadata"));
assert!(!rendered.contains("format.json"));
assert!(!rendered.contains("TimedActionSlot"));
assert!(!rendered.contains("DiskHealthTracker"));
}
// Build a minimal ECStore carrying an explicit instance context. Empty
// pools/disks are sufficient: the Phase 5 accessors read only `self.ctx`.
fn build_store_with_ctx(ctx: Arc<InstanceContext>) -> Arc<ECStore> {
let endpoint_pools = EndpointServerPools::default();
Arc::new(ECStore {
id: uuid::Uuid::new_v4(),
disk_map: std::collections::HashMap::new(),
pools: Vec::new(),
peer_sys: crate::cluster::rpc::S3PeerSys::new_with_instance_ctx(&endpoint_pools, ctx.clone()),
pool_meta: RwLock::new(PoolMeta::default()),
rebalance_meta: RwLock::new(None),
decommission_cancelers: RwLock::new(Vec::new()),
start_gate: Mutex::new(()),
pool_meta_save_gate: Mutex::default(),
ctx,
bucket_fence_registry: Arc::default(),
})
}
fn scanner_sequence_state(operation_epoch: u64, movement_generation: u64) -> ScannerDataMovementSequenceState {
ScannerDataMovementSequenceState {
operation_epoch,
operation_epoch_exhausted: false,
movement_generation,
movement_generation_exhausted: false,
}
}
#[test]
fn scanner_pause_status_derives_restart_stable_decommission_fields() {
let started_at = OffsetDateTime::from_unix_timestamp(1_000).expect("fixed timestamp should be valid");
let now = OffsetDateTime::from_unix_timestamp(1_090).expect("fixed timestamp should be valid");
let pool_meta = PoolMeta {
pools: vec![PoolStatus {
id: 0,
cmd_line: "pool-0".to_string(),
last_update: started_at,
decommission: Some(PoolDecommissionInfo {
start_time: Some(started_at),
queued_buckets: vec!["bucket-a".to_string(), "bucket-b".to_string()],
bucket: "bucket-a".to_string(),
..Default::default()
}),
}],
..Default::default()
};
let status = resolve_scanner_data_movement_pause_status(&pool_meta, None, false, scanner_sequence_state(7, 11), now);
assert!(status.paused);
assert_eq!(status.policy, "global_pause");
assert_eq!(status.reasons, vec![ScannerDataMovementPauseReason::DecommissionActive]);
assert_eq!(status.started_at_unix_secs, 1_000);
assert_eq!(status.duration_seconds, 90);
assert_eq!(status.operation_epoch, 7);
assert_eq!(status.movement_generation, 11);
assert_eq!(status.movement_backlog_work_items, 2);
assert!(status.movement_backlog_estimated);
}
#[test]
fn completed_decommission_restores_durable_movement_generation() {
let completed_at = OffsetDateTime::from_unix_timestamp(1_100).expect("fixed timestamp should be valid");
let pool_meta = PoolMeta {
pools: vec![PoolStatus {
id: 0,
cmd_line: "pool-0".to_string(),
last_update: completed_at,
decommission: Some(PoolDecommissionInfo {
complete: true,
..Default::default()
}),
}],
..Default::default()
};
let durable_generation = durable_scanner_data_movement_generation(&pool_meta, None);
let ctx = InstanceContext::new();
ctx.observe_durable_data_movement_generation(durable_generation);
assert_eq!(durable_generation, 1_100_000_000_000);
assert_eq!(ctx.data_movement_generation(), durable_generation);
}
#[tokio::test]
async fn cleared_decommission_restores_durable_movement_generation_after_restart() {
let mut pool_meta = PoolMeta {
pools: vec![PoolStatus {
id: 0,
cmd_line: "pool-0".to_string(),
last_update: OffsetDateTime::UNIX_EPOCH,
decommission: Some(PoolDecommissionInfo {
failed: true,
..Default::default()
}),
}],
..Default::default()
};
assert!(pool_meta.clear_decommission(0).expect("failed decommission should clear"));
assert!(
pool_meta.pools[0]
.decommission
.as_ref()
.is_some_and(|info| !info.has_decommission_state())
);
let durable_generation = durable_scanner_data_movement_generation(&pool_meta, None);
let restarted = build_store_with_ctx(Arc::new(InstanceContext::new()));
*restarted.pool_meta.write().await = pool_meta;
let status = restarted.scanner_data_movement_pause_status().await;
assert_ne!(durable_generation, 0);
assert!(!status.paused);
assert_eq!(status.movement_generation, durable_generation);
assert_eq!(restarted.scanner_data_movement_generation(), durable_generation);
}
#[tokio::test]
async fn same_tick_cleared_decommission_tombstones_advance_durable_movement_generation() {
let same_tick = OffsetDateTime::from_unix_timestamp(1_100).expect("fixed timestamp should be valid");
let mut pool_meta = PoolMeta {
pools: vec![
PoolStatus {
id: 0,
cmd_line: "pool-0".to_string(),
last_update: same_tick,
decommission: Some(PoolDecommissionInfo {
failed: true,
..Default::default()
}),
},
PoolStatus {
id: 1,
cmd_line: "pool-1".to_string(),
last_update: same_tick,
decommission: Some(PoolDecommissionInfo {
canceled: true,
..Default::default()
}),
},
],
..Default::default()
};
assert!(
pool_meta
.clear_decommission_at_for_test(0, same_tick, None)
.expect("first terminal decommission should clear")
);
let first_generation = durable_scanner_data_movement_generation(&pool_meta, None);
assert_eq!(
first_generation,
scanner_data_movement_timestamp_generation(same_tick + time::Duration::nanoseconds(1))
);
assert!(
pool_meta
.clear_decommission_at_for_test(1, same_tick, None)
.expect("second terminal decommission should clear")
);
let second_generation = durable_scanner_data_movement_generation(&pool_meta, None);
assert_eq!(
second_generation,
scanner_data_movement_timestamp_generation(same_tick + time::Duration::nanoseconds(2))
);
assert!(second_generation > first_generation);
let restarted = build_store_with_ctx(Arc::new(InstanceContext::new()));
*restarted.pool_meta.write().await = pool_meta;
let status = restarted.scanner_data_movement_pause_status().await;
assert!(!status.paused);
assert_eq!(status.movement_generation, second_generation);
assert_eq!(restarted.scanner_data_movement_generation(), second_generation);
}
#[tokio::test]
async fn terminal_decommission_transitions_advance_durable_generation_across_same_or_earlier_clocks() {
let same_tick = OffsetDateTime::from_unix_timestamp(1_200).expect("fixed timestamp should be valid");
let earlier_tick = same_tick - time::Duration::nanoseconds(10);
let rebalance_floor = same_tick + time::Duration::nanoseconds(5);
let rebalance = RebalanceMeta {
stopped_at: Some(rebalance_floor),
id: "completed-rebalance".to_string(),
..Default::default()
};
let active_decommission = |id| PoolStatus {
id,
cmd_line: format!("pool-{id}"),
last_update: same_tick,
decommission: Some(PoolDecommissionInfo {
start_time: Some(same_tick),
..Default::default()
}),
};
let mut pool_meta = PoolMeta {
pools: vec![active_decommission(0), active_decommission(1), active_decommission(2)],
..Default::default()
};
assert!(pool_meta.decommission_complete_at_for_test(0, same_tick, Some(&rebalance)));
assert_eq!(pool_meta.pools[0].last_update, rebalance_floor + time::Duration::nanoseconds(1));
assert!(pool_meta.decommission_cancel_at_for_test(1, same_tick, Some(&rebalance)));
assert_eq!(pool_meta.pools[1].last_update, rebalance_floor + time::Duration::nanoseconds(2));
assert!(pool_meta.decommission_failed_at_for_test(2, earlier_tick, Some(&rebalance)));
assert_eq!(pool_meta.pools[2].last_update, rebalance_floor + time::Duration::nanoseconds(3));
let durable_generation = durable_scanner_data_movement_generation(&pool_meta, Some(&rebalance));
assert_eq!(
durable_generation,
scanner_data_movement_timestamp_generation(rebalance_floor + time::Duration::nanoseconds(3))
);
let restarted = build_store_with_ctx(Arc::new(InstanceContext::new()));
*restarted.pool_meta.write().await = pool_meta;
*restarted.rebalance_meta.write().await = Some(rebalance);
let status = restarted.scanner_data_movement_pause_status().await;
assert_eq!(status.movement_generation, durable_generation);
assert_eq!(restarted.scanner_data_movement_generation(), durable_generation);
assert_eq!(
status.reasons,
vec![
ScannerDataMovementPauseReason::DecommissionFailed,
ScannerDataMovementPauseReason::DecommissionCanceled
]
);
}
#[tokio::test]
async fn decommission_start_after_clear_advances_durable_generation_across_clock_rollback_after_restart() {
let same_tick = OffsetDateTime::from_unix_timestamp(1_250).expect("fixed timestamp should be valid");
let earlier_tick = same_tick - time::Duration::nanoseconds(10);
let rebalance_floor = same_tick + time::Duration::nanoseconds(5);
let rebalance = RebalanceMeta {
stopped_at: Some(rebalance_floor),
id: "completed-rebalance".to_string(),
..Default::default()
};
let mut pool_meta = PoolMeta {
pools: vec![PoolStatus {
id: 0,
cmd_line: "pool-0".to_string(),
last_update: same_tick,
decommission: Some(PoolDecommissionInfo {
failed: true,
..Default::default()
}),
}],
..Default::default()
};
assert!(
pool_meta
.clear_decommission_at_for_test(0, same_tick, Some(&rebalance))
.expect("failed decommission should clear")
);
let cleared_at = rebalance_floor + time::Duration::nanoseconds(1);
assert_eq!(pool_meta.pools[0].last_update, cleared_at);
pool_meta
.decommission_at_for_test(
0,
PoolSpaceInfo {
total: 200,
free: 50,
used: 150,
},
earlier_tick,
Some(&rebalance),
)
.expect("decommission restart after clear should be allowed");
let started_at = cleared_at + time::Duration::nanoseconds(1);
assert_eq!(pool_meta.pools[0].last_update, started_at);
assert_eq!(
pool_meta.pools[0].decommission.as_ref().and_then(|info| info.start_time),
Some(started_at)
);
assert!(pool_meta.decommission_complete_at_for_test(0, earlier_tick, Some(&rebalance)));
let completed_at = started_at + time::Duration::nanoseconds(1);
assert_eq!(pool_meta.pools[0].last_update, completed_at);
let durable_generation = durable_scanner_data_movement_generation(&pool_meta, Some(&rebalance));
assert_eq!(durable_generation, scanner_data_movement_timestamp_generation(completed_at));
let restarted = build_store_with_ctx(Arc::new(InstanceContext::new()));
*restarted.pool_meta.write().await = pool_meta;
*restarted.rebalance_meta.write().await = Some(rebalance);
let status = restarted.scanner_data_movement_pause_status().await;
assert!(!status.paused);
assert_eq!(status.movement_generation, durable_generation);
assert_eq!(restarted.scanner_data_movement_generation(), durable_generation);
}
#[tokio::test]
async fn decommission_terminal_reload_failure_advances_durable_generation_across_clock_rollback_after_restart() {
let terminal_at = OffsetDateTime::from_unix_timestamp(1_280).expect("fixed timestamp should be valid");
let earlier_tick = terminal_at - time::Duration::nanoseconds(10);
let rebalance_floor = terminal_at + time::Duration::nanoseconds(5);
let rebalance = RebalanceMeta {
stopped_at: Some(rebalance_floor),
id: "completed-rebalance".to_string(),
..Default::default()
};
let mut pool_meta = PoolMeta {
pools: vec![PoolStatus {
id: 0,
cmd_line: "pool-0".to_string(),
last_update: terminal_at,
decommission: Some(PoolDecommissionInfo {
start_time: Some(terminal_at),
complete: true,
..Default::default()
}),
}],
..Default::default()
};
assert!(
pool_meta
.record_decommission_terminal_reload_failure_at_for_test(
0,
"complete_decommission",
"peer reload failed".to_string(),
earlier_tick,
Some(&rebalance),
)
.expect("reload failure should be recorded")
);
let reload_failure_at = rebalance_floor + time::Duration::nanoseconds(1);
assert_eq!(pool_meta.pools[0].last_update, reload_failure_at);
let info = pool_meta.pools[0]
.decommission
.as_ref()
.expect("decommission metadata should exist");
assert_eq!(info.terminal_reload_attempt_at, Some(reload_failure_at));
assert_eq!(
info.terminal_reload_failures,
vec!["complete_decommission: peer reload failed".to_string()]
);
let durable_generation = durable_scanner_data_movement_generation(&pool_meta, Some(&rebalance));
assert_eq!(durable_generation, scanner_data_movement_timestamp_generation(reload_failure_at));
let restarted = build_store_with_ctx(Arc::new(InstanceContext::new()));
*restarted.pool_meta.write().await = pool_meta;
*restarted.rebalance_meta.write().await = Some(rebalance);
let status = restarted.scanner_data_movement_pause_status().await;
assert!(!status.paused);
assert_eq!(status.movement_generation, durable_generation);
assert_eq!(restarted.scanner_data_movement_generation(), durable_generation);
}
#[tokio::test]
async fn rebalance_transitions_advance_durable_generation_across_same_or_earlier_clocks_after_restart() {
let same_tick = OffsetDateTime::from_unix_timestamp(1_300).expect("fixed timestamp should be valid");
let earlier_tick = same_tick - time::Duration::nanoseconds(10);
let decommission_floor = same_tick + time::Duration::nanoseconds(5);
let store = build_store_with_ctx(Arc::new(InstanceContext::new()));
*store.pool_meta.write().await = PoolMeta {
pools: vec![PoolStatus {
id: 0,
cmd_line: "pool-0".to_string(),
last_update: decommission_floor,
decommission: Some(PoolDecommissionInfo {
complete: true,
..Default::default()
}),
}],
..Default::default()
};
let started_at = store.next_scanner_data_movement_update(same_tick).await;
assert_eq!(started_at, decommission_floor + time::Duration::nanoseconds(1));
*store.rebalance_meta.write().await = Some(RebalanceMeta {
id: "rebalance-generation".to_string(),
pool_stats: vec![crate::services::rebalance::RebalanceStats {
participating: true,
info: crate::services::rebalance::RebalanceInfo {
start_time: Some(started_at),
status: RebalStatus::Started,
..Default::default()
},
..Default::default()
}],
..Default::default()
});
let completed_at = store.next_scanner_data_movement_update(same_tick).await;
assert_eq!(completed_at, decommission_floor + time::Duration::nanoseconds(2));
{
let mut rebalance_meta = store.rebalance_meta.write().await;
let meta = rebalance_meta.as_mut().expect("rebalance metadata should be present");
meta.pool_stats[0].info.status = RebalStatus::Completed;
meta.pool_stats[0].info.end_time = Some(completed_at);
}
let stopped_at = store.next_scanner_data_movement_update(earlier_tick).await;
assert_eq!(stopped_at, decommission_floor + time::Duration::nanoseconds(3));
{
let mut rebalance_meta = store.rebalance_meta.write().await;
let meta = rebalance_meta.as_mut().expect("rebalance metadata should be present");
meta.stopped_at = Some(stopped_at);
}
let pool_meta = store.pool_meta.read().await.clone();
let rebalance_meta = store.rebalance_meta.read().await.clone();
let durable_generation = durable_scanner_data_movement_generation(&pool_meta, rebalance_meta.as_ref());
assert_eq!(
durable_generation,
scanner_data_movement_timestamp_generation(decommission_floor + time::Duration::nanoseconds(3))
);
let restarted = build_store_with_ctx(Arc::new(InstanceContext::new()));
*restarted.pool_meta.write().await = pool_meta;
*restarted.rebalance_meta.write().await = rebalance_meta;
let status = restarted.scanner_data_movement_pause_status().await;
assert!(!status.paused);
assert_eq!(status.movement_generation, durable_generation);
assert_eq!(restarted.scanner_data_movement_generation(), durable_generation);
}
#[test]
fn malformed_durable_movement_timestamp_exhausts_generation_fail_closed() {
let pool_meta = PoolMeta {
pools: vec![PoolStatus {
id: 0,
cmd_line: "pool-0".to_string(),
last_update: OffsetDateTime::UNIX_EPOCH,
decommission: Some(PoolDecommissionInfo {
complete: true,
..Default::default()
}),
}],
..Default::default()
};
assert_eq!(durable_scanner_data_movement_generation(&pool_meta, None), u64::MAX);
let exhausted_generation =
OffsetDateTime::from_unix_timestamp(253_402_300_799).expect("the largest RFC 3339 timestamp should be valid");
assert_eq!(scanner_data_movement_timestamp_generation(exhausted_generation), u64::MAX);
}
#[test]
fn malformed_durable_movement_timestamp_is_not_masked_by_valid_rebalance_generation() {
let valid_rebalance_at = OffsetDateTime::from_unix_timestamp(2_400).expect("fixed timestamp should be valid");
let pool_meta = PoolMeta {
pools: vec![PoolStatus {
id: 0,
cmd_line: "pool-0".to_string(),
last_update: OffsetDateTime::UNIX_EPOCH,
decommission: Some(PoolDecommissionInfo {
complete: true,
..Default::default()
}),
}],
..Default::default()
};
let rebalance_meta = RebalanceMeta {
id: "completed-rebalance".to_string(),
stopped_at: Some(valid_rebalance_at),
pool_stats: vec![crate::services::rebalance::RebalanceStats {
participating: true,
info: crate::services::rebalance::RebalanceInfo {
start_time: Some(valid_rebalance_at - time::Duration::nanoseconds(1)),
end_time: Some(valid_rebalance_at),
status: RebalStatus::Completed,
..Default::default()
},
..Default::default()
}],
..Default::default()
};
assert_eq!(durable_scanner_data_movement_generation(&pool_meta, Some(&rebalance_meta)), u64::MAX);
}
#[test]
fn durable_movement_generation_without_records_is_zero() {
assert_eq!(durable_scanner_data_movement_generation(&PoolMeta::default(), None), 0);
assert_eq!(
durable_scanner_data_movement_generation(&PoolMeta::default(), Some(&RebalanceMeta::default())),
0
);
}
#[test]
fn scanner_pause_status_distinguishes_terminal_rebalance_epoch_and_idle() {
let last_update = OffsetDateTime::from_unix_timestamp(2_000).expect("fixed timestamp should be valid");
let now = OffsetDateTime::from_unix_timestamp(2_030).expect("fixed timestamp should be valid");
let failed = PoolMeta {
pools: vec![PoolStatus {
id: 0,
cmd_line: "pool-0".to_string(),
last_update,
decommission: Some(PoolDecommissionInfo {
failed: true,
..Default::default()
}),
}],
..Default::default()
};
let failed_status = resolve_scanner_data_movement_pause_status(&failed, None, false, scanner_sequence_state(3, 12), now);
assert_eq!(failed_status.reasons, vec![ScannerDataMovementPauseReason::DecommissionFailed]);
assert_eq!(failed_status.started_at_unix_secs, 2_000);
assert_eq!(failed_status.duration_seconds, 30);
let rebalance = RebalanceMeta {
pool_stats: vec![crate::services::rebalance::RebalanceStats {
buckets: vec!["bucket-a".to_string(), "bucket-b".to_string()],
participating: true,
info: crate::services::rebalance::RebalanceInfo {
start_time: Some(last_update),
status: RebalStatus::Started,
..Default::default()
},
..Default::default()
}],
..Default::default()
};
let rebalance_status = resolve_scanner_data_movement_pause_status(
&PoolMeta::default(),
Some(&rebalance),
false,
scanner_sequence_state(4, 13),
now,
);
assert_eq!(rebalance_status.reasons, vec![ScannerDataMovementPauseReason::RebalanceActive]);
assert_eq!(rebalance_status.movement_backlog_work_items, 2);
let exhausted = resolve_scanner_data_movement_pause_status(
&PoolMeta::default(),
None,
false,
ScannerDataMovementSequenceState {
operation_epoch: u64::MAX,
operation_epoch_exhausted: true,
movement_generation: 14,
movement_generation_exhausted: false,
},
now,
);
assert_eq!(exhausted.reasons, vec![ScannerDataMovementPauseReason::OperationEpochExhausted]);
assert_eq!(exhausted.started_at_unix_secs, 0);
let generation_exhausted = resolve_scanner_data_movement_pause_status(
&PoolMeta::default(),
None,
false,
ScannerDataMovementSequenceState {
operation_epoch: 5,
operation_epoch_exhausted: false,
movement_generation: u64::MAX,
movement_generation_exhausted: true,
},
now,
);
assert_eq!(
generation_exhausted.reasons,
vec![ScannerDataMovementPauseReason::MovementGenerationExhausted]
);
let idle =
resolve_scanner_data_movement_pause_status(&PoolMeta::default(), None, false, scanner_sequence_state(5, 15), now);
assert!(!idle.paused);
assert!(idle.reasons.is_empty());
assert!(!idle.movement_backlog_estimated);
}
#[tokio::test]
async fn scanner_data_usage_publication_blocks_active_and_unqueued_terminal_decommission() {
let store = build_store_with_ctx(Arc::new(InstanceContext::new()));
let cases = [
(
"active",
PoolDecommissionInfo {
start_time: Some(OffsetDateTime::now_utc()),
..Default::default()
},
true,
),
(
"failed",
PoolDecommissionInfo {
failed: true,
..Default::default()
},
true,
),
(
"canceled",
PoolDecommissionInfo {
canceled: true,
..Default::default()
},
true,
),
(
"queued_failed",
PoolDecommissionInfo {
failed: true,
queued: true,
..Default::default()
},
false,
),
(
"complete",
PoolDecommissionInfo {
complete: true,
..Default::default()
},
false,
),
("idle", PoolDecommissionInfo::default(), false),
];
for (name, decommission, expected) in cases {
*store.pool_meta.write().await = PoolMeta {
pools: vec![PoolStatus {
id: 0,
cmd_line: format!("scanner-publication-{name}"),
last_update: OffsetDateTime::now_utc(),
decommission: Some(decommission),
}],
..Default::default()
};
assert_eq!(
store.scanner_data_usage_publication_blocked().await,
expected,
"unexpected scanner publication barrier state for {name}"
);
}
}
#[tokio::test]
async fn scanner_data_usage_publication_admission_is_fenced_and_epoch_monotonic() {
let store = build_store_with_ctx(Arc::new(InstanceContext::new()));
let operation_gate = store.ctx.data_movement_operation_gate();
let movement_guard = operation_gate.write().await;
let pending = {
let store = store.clone();
tokio::spawn(async move { store.scanner_data_usage_publication_admission_guard().await })
};
tokio::task::yield_now().await;
assert!(!pending.is_finished(), "publication admission must wait for a movement writer");
drop(movement_guard);
let (_, epoch) = pending
.await
.expect("publication admission task should not panic")
.expect("idle store should admit publication");
assert_eq!(epoch, 0);
assert_eq!(store.ctx.advance_data_movement_operation_epoch(), 1);
let (_, next_epoch) = store
.scanner_data_usage_publication_admission_guard()
.await
.expect("idle store should admit the next publication");
assert_eq!(next_epoch, 1);
assert_eq!(store.scanner_data_movement_generation(), 1);
}
#[tokio::test(start_paused = true)]
async fn scanner_publication_lease_blocks_movement_writer_until_release_or_expiry() {
let store = build_store_with_ctx(Arc::new(InstanceContext::new()));
let (token, generation) = store
.acquire_scanner_publication_lease(0, crate::runtime::instance::SCANNER_PUBLICATION_LEASE_TTL)
.await
.expect("an idle store should grant a publication lease");
assert_eq!(generation, 0);
let gate = store.ctx.data_movement_operation_gate();
let (writer_started, writer_started_rx) = tokio::sync::oneshot::channel();
let movement_writer = tokio::spawn(async move {
let _ = writer_started.send(());
gate.write_owned().await
});
writer_started_rx
.await
.expect("movement writer should reach the gate before waiting");
assert!(
!movement_writer.is_finished(),
"a movement writer must wait while the remote lease owns the read guard"
);
assert!(store.release_scanner_publication_lease(token).await);
tokio::time::timeout(Duration::from_secs(1), movement_writer)
.await
.expect("movement writer should proceed after lease release")
.expect("movement writer task should not panic");
let (expiring_token, _) = store
.acquire_scanner_publication_lease(0, crate::runtime::instance::SCANNER_PUBLICATION_LEASE_TTL)
.await
.expect("the store should grant a second publication lease");
let expiry_gate = store.ctx.data_movement_operation_gate();
let (expiry_started, expiry_started_rx) = tokio::sync::oneshot::channel();
let mut expiry_writer = tokio::spawn(async move {
let _ = expiry_started.send(());
expiry_gate.write_owned().await
});
expiry_started_rx
.await
.expect("expiry writer should reach the gate before waiting");
assert!(!expiry_writer.is_finished());
tokio::time::advance(crate::runtime::instance::SCANNER_PUBLICATION_LEASE_TTL + Duration::from_millis(1)).await;
tokio::task::yield_now().await;
tokio::time::timeout(Duration::from_secs(1), &mut expiry_writer)
.await
.expect("movement writer should proceed after lease expiry")
.expect("expiry writer task should not panic");
assert!(
store.validate_scanner_publication_lease(expiring_token, 0).await.is_err(),
"an expired lease must not validate after its read guard is released"
);
assert!(!store.release_scanner_publication_lease(expiring_token).await);
}
#[tokio::test]
async fn scanner_publication_lease_rejects_a_new_movement_generation() {
let store = build_store_with_ctx(Arc::new(InstanceContext::new()));
let (token, generation) = store
.acquire_scanner_publication_lease(0, crate::runtime::instance::SCANNER_PUBLICATION_LEASE_TTL)
.await
.expect("an idle store should grant a publication lease");
assert_eq!(store.ctx.advance_data_movement_generation(), Some(1));
assert!(
store.validate_scanner_publication_lease(token, generation).await.is_err(),
"a lease from the prior movement generation must fail closed"
);
assert!(store.release_scanner_publication_lease(token).await);
}
#[tokio::test]
async fn scanner_publication_lease_rejects_stale_generation_before_install() {
let store = build_store_with_ctx(Arc::new(InstanceContext::new()));
let error = store
.acquire_scanner_publication_lease(1, crate::runtime::instance::SCANNER_PUBLICATION_LEASE_TTL)
.await
.expect_err("a stale movement generation must not acquire a lease");
assert!(error.to_string().contains("generation is stale"));
}
#[tokio::test(start_paused = true)]
async fn scanner_publication_commit_scope_owns_permit_until_terminal_drain() {
let store = build_store_with_ctx(Arc::new(InstanceContext::new()));
let scope = store
.scanner_data_usage_publication_commit_scope(
0,
tokio::time::Instant::now() + Duration::from_secs(30),
vec![Uuid::new_v4()],
)
.await
.expect("idle storage should grant a publication scope");
assert_eq!(scope.state(), crate::object_api::ScannerPublicationCommitState::Admitted);
assert_eq!(scope.remote_lease_tokens().len(), 1);
let gate = store.ctx.data_movement_operation_gate();
let writer = tokio::spawn(async move { gate.write_owned().await });
tokio::task::yield_now().await;
assert!(!writer.is_finished(), "the scope must own its movement permit after the caller returns");
scope.cancel();
assert!(scope.mark_aborted_before_commit());
assert_eq!(
scope.wait_for_completion().await,
crate::object_api::ScannerPublicationCommitState::AbortedBeforeCommit
);
assert!(scope.release_movement_permit().await);
tokio::time::timeout(Duration::from_secs(1), writer)
.await
.expect("movement writer should proceed after the scope drains")
.expect("movement writer task should not panic");
}
#[tokio::test(start_paused = true)]
async fn scanner_publication_commit_scope_rejects_late_start_and_keeps_indeterminate_permit() {
let store = build_store_with_ctx(Arc::new(InstanceContext::new()));
let scope = store
.scanner_data_usage_publication_commit_scope(0, tokio::time::Instant::now() + Duration::from_secs(1), Vec::new())
.await
.expect("idle storage should grant a publication scope");
tokio::time::advance(Duration::from_secs(1)).await;
assert_eq!(
scope.try_begin(),
Err(crate::object_api::ScannerPublicationCommitStartError::DeadlineExceeded)
);
assert!(
!scope.release_movement_permit().await,
"an admitted scope is not safe to release before owner resolution"
);
assert!(scope.mark_aborted_before_commit());
assert!(scope.release_movement_permit().await);
let scope = store
.scanner_data_usage_publication_commit_scope(0, tokio::time::Instant::now() + Duration::from_secs(30), Vec::new())
.await
.expect("a second idle publication scope should be granted");
scope.try_begin().expect("scope should enter the mutation state");
scope.cancel();
assert!(scope.mark_indeterminate());
assert_eq!(
scope.wait_for_completion().await,
crate::object_api::ScannerPublicationCommitState::Indeterminate
);
assert!(!scope.release_movement_permit().await, "indeterminate mutation must retain the permit");
}
#[tokio::test]
async fn scanner_publication_scope_guard_classifies_early_returns_conservatively() {
let store = build_store_with_ctx(Arc::new(InstanceContext::new()));
let permit = store.ctx.data_movement_operation_gate().read_owned().await;
let scope = ScannerPublicationCommitScope::new_storage_owned(
0,
tokio::time::Instant::now() + Duration::from_secs(30),
Vec::new(),
permit,
);
{
let _guard = crate::object_api::ScannerPublicationCommitScopeGuard::new(scope.clone());
}
assert_eq!(scope.state(), crate::object_api::ScannerPublicationCommitState::AbortedBeforeCommit);
assert!(scope.release_movement_permit().await);
let permit = store.ctx.data_movement_operation_gate().read_owned().await;
let scope = ScannerPublicationCommitScope::new_storage_owned(
0,
tokio::time::Instant::now() + Duration::from_secs(30),
Vec::new(),
permit,
);
scope.try_begin().expect("scope should enter the mutation state");
{
let _guard = crate::object_api::ScannerPublicationCommitScopeGuard::new(scope.clone());
}
assert_eq!(scope.state(), crate::object_api::ScannerPublicationCommitState::Indeterminate);
assert!(!scope.release_movement_permit().await);
}
#[tokio::test]
async fn scanner_target_guard_keeps_movement_writer_fenced_after_lease_release() {
let store = build_store_with_ctx(Arc::new(InstanceContext::new()));
let (token, _) = store
.acquire_scanner_publication_lease(0, crate::runtime::instance::SCANNER_PUBLICATION_LEASE_TTL)
.await
.expect("an idle store should grant a publication lease");
let target_guard = store
.acquire_scanner_publication_lease_guard(token)
.await
.expect("the target-side rename should acquire its short guard");
assert!(store.release_scanner_publication_lease(token).await);
let movement_gate = store.ctx.data_movement_operation_gate();
let movement_writer = tokio::spawn(async move { movement_gate.write_owned().await });
tokio::task::yield_now().await;
assert!(!movement_writer.is_finished(), "the target guard must span the rename operation");
drop(target_guard);
tokio::time::timeout(std::time::Duration::from_secs(1), movement_writer)
.await
.expect("movement writer should proceed after the target rename guard is dropped")
.expect("movement writer task should not panic");
}
#[tokio::test]
async fn scanner_publication_lease_rejects_restart_aba_token() {
let first_store = build_store_with_ctx(Arc::new(InstanceContext::new()));
let (token, generation) = first_store
.acquire_scanner_publication_lease(0, crate::runtime::instance::SCANNER_PUBLICATION_LEASE_TTL)
.await
.expect("the initial instance should grant a publication lease");
first_store
.validate_scanner_publication_lease(token, generation)
.await
.expect("the current instance should validate its own live token");
first_store
.acquire_scanner_publication_lease_guard(token)
.await
.expect("the current instance should admit the target-side rename");
// A restarted storage instance starts its local generation at zero,
// but its process-owned lease table is empty. The old token must not
// pass validation just because the numeric generation matches again.
let restarted_store = build_store_with_ctx(Arc::new(InstanceContext::new()));
let error = restarted_store
.validate_scanner_publication_lease(token, generation)
.await
.expect_err("a token from a prior instance must fail closed after restart");
assert!(error.to_string().contains("unknown or expired"));
let error = restarted_store
.acquire_scanner_publication_lease_guard(token)
.await
.expect_err("a restarted instance must reject the target-side rename token");
assert!(error.to_string().contains("unknown or expired"));
}
#[tokio::test]
async fn movement_generation_notifies_waiters_and_fails_closed_at_maximum() {
let store = build_store_with_ctx(Arc::new(InstanceContext::new()));
let notify = store.scanner_data_movement_changed();
let notified = notify.notified();
tokio::pin!(notified);
notified.as_mut().enable();
assert_eq!(store.ctx.advance_data_movement_operation_epoch(), 1);
tokio::time::timeout(std::time::Duration::from_secs(1), notified)
.await
.expect("movement transition should wake scanner waiters");
assert_eq!(store.scanner_data_movement_generation(), 1);
store.ctx.set_data_movement_generation_for_test(u64::MAX - 1);
assert_eq!(store.ctx.advance_data_movement_generation(), Some(u64::MAX));
assert!(store.scanner_data_movement_generation_exhausted());
assert_eq!(store.ctx.advance_data_movement_generation(), None);
assert!(
store.scanner_data_usage_publication_admission_guard().await.is_none(),
"generation exhaustion must close publication admission"
);
}
#[tokio::test]
async fn scanner_data_usage_publication_epoch_releases_gate_before_backend_io() {
let store = build_store_with_ctx(Arc::new(InstanceContext::new()));
let epoch = store
.scanner_data_usage_publication_epoch()
.await
.expect("idle store should expose a publication epoch");
assert_eq!(epoch, 0);
let operation_gate = store.ctx.data_movement_operation_gate();
let _movement_guard = tokio::time::timeout(Duration::from_secs(1), operation_gate.write())
.await
.expect("epoch capture must not hold the movement gate across backend I/O");
}
#[tokio::test]
async fn scanner_data_usage_publication_admission_blocks_active_rebalance_snapshot() {
let store = build_store_with_ctx(Arc::new(InstanceContext::new()));
*store.rebalance_meta.write().await = Some(RebalanceMeta {
pool_stats: vec![crate::services::rebalance::RebalanceStats {
participating: true,
info: crate::services::rebalance::RebalanceInfo {
status: crate::services::rebalance::RebalStatus::Started,
..Default::default()
},
..Default::default()
}],
..Default::default()
});
assert!(
store.scanner_data_usage_publication_admission_guard().await.is_none(),
"active rebalance must fail closed at the storage-owned admission boundary"
);
}
#[tokio::test]
async fn scanner_publication_epoch_exhaustion_fails_closed_after_max() {
let store = build_store_with_ctx(Arc::new(InstanceContext::new()));
store.ctx.set_data_movement_operation_epoch_for_test(u64::MAX - 1);
assert_eq!(store.ctx.advance_data_movement_operation_epoch(), u64::MAX);
assert!(store.ctx.data_movement_operation_epoch_exhausted());
assert!(
store.scanner_data_usage_publication_admission_guard().await.is_none(),
"publication must fail closed at the reserved terminal epoch"
);
assert_eq!(store.ctx.advance_data_movement_operation_epoch(), u64::MAX);
assert!(store.ctx.data_movement_operation_epoch_exhausted());
assert!(store.scanner_data_usage_publication_blocked().await);
}
// The object graph is the isolation carrier: two ECStore instances holding
// distinct contexts report independent erasure state through their real
// `&self` accessors — no cross-contamination.
#[tokio::test]
async fn instance_context_carrier_isolates_two_stores() {
let ctx_a = Arc::new(InstanceContext::new());
let ctx_b = Arc::new(InstanceContext::new());
ctx_a.update_erasure_type(SetupType::DistErasure).await;
ctx_b.update_erasure_type(SetupType::ErasureSD).await;
ctx_a.set_endpoints(EndpointServerPools::from(vec![PoolEndpoints {
legacy: false,
set_count: 1,
drives_per_set: 1,
endpoints: Endpoints::default(),
cmd_line: "instance-a".to_string(),
platform: String::new(),
}]));
ctx_b.set_endpoints(EndpointServerPools::from(vec![PoolEndpoints {
legacy: true,
set_count: 2,
drives_per_set: 2,
endpoints: Endpoints::default(),
cmd_line: "instance-b".to_string(),
platform: String::new(),
}]));
let store_a = build_store_with_ctx(ctx_a);
let store_b = build_store_with_ctx(ctx_b);
// store_a: distributed erasure (implies is_erasure), not single-drive.
assert!(store_a.setup_is_erasure().await);
assert!(store_a.setup_is_dist_erasure().await);
assert!(!store_a.setup_is_erasure_sd().await);
// store_b: single-drive erasure only.
assert!(store_b.setup_is_erasure_sd().await);
assert!(!store_b.setup_is_erasure().await);
assert!(!store_b.setup_is_dist_erasure().await);
let endpoints_a = store_a.instance_endpoints().expect("instance A endpoints");
let endpoints_b = store_b.instance_endpoints().expect("instance B endpoints");
assert_eq!(endpoints_a.as_ref()[0].set_count, 1);
assert_eq!(endpoints_b.as_ref()[0].set_count, 2);
assert!(!endpoints_a.as_ref()[0].legacy);
assert!(endpoints_b.as_ref()[0].legacy);
}
// The production/test constructors ADOPT the process bootstrap context
// (same Arc), so a startup write recorded before the store existed is
// visible through the store afterward — single-instance behavior preserved.
#[tokio::test]
async fn store_adopts_bootstrap_context() {
let store = build_store_with_ctx(crate::runtime::instance::bootstrap_ctx());
assert!(
Arc::ptr_eq(&store.ctx, &crate::runtime::instance::bootstrap_ctx()),
"store built via adoption must share the bootstrap context Arc"
);
}
#[tokio::test]
async fn test_has_space_for() {
let disk_infos = vec![None, None]; // No actual disk info
let result = crate::layout::pool_space::has_space_for(&disk_infos, 1024).await;
// Should fail due to no valid disk info
assert!(result.is_err());
}
#[tokio::test]
async fn test_find_local_disk() {
let result = peer::find_local_disk("/nonexistent/path").await;
assert!(result.is_none(), "Should return None for nonexistent path");
}
#[tokio::test]
#[serial]
async fn test_find_local_disk_by_ref_backfills_uuid_map() {
reset_local_disk_test_state().await;
let temp_dir = TempDir::new().expect("create temp dir for local disk ref test");
let disk_paths = (0..4)
.map(|idx| temp_dir.path().join(format!("disk{}", idx + 1)))
.collect::<Vec<_>>();
for disk_path in &disk_paths {
std::fs::create_dir_all(disk_path).expect("create disk path");
}
let mut endpoints = Vec::new();
for (idx, disk_path) in disk_paths.iter().enumerate() {
let mut endpoint = Endpoint::try_from(disk_path.to_str().expect("disk path to str")).expect("endpoint");
endpoint.set_pool_index(0);
endpoint.set_set_index(0);
endpoint.set_disk_index(idx);
endpoints.push(endpoint);
}
let endpoint_pools = EndpointServerPools(vec![PoolEndpoints {
legacy: false,
set_count: 1,
drives_per_set: 4,
endpoints: Endpoints::from(endpoints),
cmd_line: "find-local-disk-by-ref-test".to_string(),
platform: "test".to_string(),
}]);
init_local_disks(endpoint_pools.clone()).await.expect("init local disks");
let (mut disks, errs) = init_disks(
&endpoint_pools.as_ref().first().expect("pool endpoints").endpoints,
&DiskOption {
cleanup: true,
health_check: false,
},
)
.await;
assert!(errs.iter().all(|err| err.is_none()), "disk init should succeed: {errs:?}");
connect_load_init_formats(true, &mut disks, 1, 4, None)
.await
.expect("initialize format metadata");
clear_local_disk_id_map_for_test().await;
let local_disks = all_local_disk().await;
let first_disk = local_disks.first().expect("local disk exists");
let disk_id = first_disk
.get_disk_id()
.await
.expect("get disk id should succeed")
.expect("disk id should exist");
let found = find_local_disk_by_ref(&disk_id.to_string()).await;
assert!(found.is_some(), "disk lookup by id should backfill cache");
assert_eq!(local_disk_path_by_id(&disk_id).await, Some(first_disk.endpoint().to_string()));
reset_local_disk_test_state().await;
}
#[tokio::test]
async fn test_all_local_disk_path() {
let paths = all_local_disk_path().await;
// Should return empty or some paths depending on global state
assert!(paths.is_empty() || !paths.is_empty());
}
#[tokio::test]
async fn test_all_local_disk() {
let disks = all_local_disk().await;
// Should return empty or some disks depending on global state
assert!(disks.is_empty() || !disks.is_empty());
}
#[test]
fn test_should_not_enqueue_transition_for_internal_metadata_bucket() {
let oi = ObjectInfo {
bucket: RUSTFS_META_BUCKET.to_string(),
name: format!("{BUCKET_META_PREFIX}/bucket/.metadata.bin"),
..Default::default()
};
assert!(!should_enqueue_transition_immediately(&oi));
}
}