test(rpc): reproduce same-UUID cross-instance rename

This commit is contained in:
overtrue
2026-09-06 04:26:28 +08:00
parent f09aaad2a9
commit ae87ddbe2f
+222
View File
@@ -4530,6 +4530,228 @@ mod tests {
assert!(rename_response.error.is_some());
}
#[tokio::test]
async fn rename_data_same_uuid_uses_captured_instance_instead_of_global_disk() {
use crate::storage::storage_api::{
ECStore,
ecstore_disk::{DiskAPI, RUSTFS_META_BUCKET, ReadOptions},
init_local_disks_with_instance_ctx, new_instance_ctx,
};
use rustfs_filemeta::{FileInfo, ObjectPartInfo};
use tokio_util::sync::CancellationToken;
async fn build_store(root: &std::path::Path) -> Arc<ECStore> {
let mut endpoints = Vec::new();
for index in 0..4 {
let path = root.join(format!("disk{index}"));
tokio::fs::create_dir_all(&path).await.expect("create instance disk");
let mut endpoint = Endpoint::try_from(path.to_str().expect("UTF-8 disk path")).expect("local endpoint");
endpoint.set_pool_index(0);
endpoint.set_set_index(0);
endpoint.set_disk_index(index);
endpoints.push(endpoint);
}
let pools = EndpointServerPools(vec![PoolEndpoints {
legacy: false,
set_count: 1,
drives_per_set: 4,
endpoints: Endpoints::from(endpoints),
cmd_line: "namespace-target-context".to_string(),
platform: "test".to_string(),
}]);
let instance = new_instance_ctx();
init_local_disks_with_instance_ctx(&instance, pools.clone())
.await
.expect("register this instance's real disks");
// Match the isolated ECStore fixtures: startup still runs, while
// unrelated background recovery is cancelled for this process.
let shutdown = CancellationToken::new();
shutdown.cancel();
ECStore::new_with_instance_ctx("127.0.0.1:0".parse().expect("local address"), pools, shutdown, instance)
.await
.expect("initialize isolated ECStore")
}
async fn context(store: &Arc<ECStore>) -> Arc<crate::runtime_sources::AppContext> {
ObjectStore::new(store.clone())
.save_iam_config(serde_json::json!({"version": 1}), format!("{}/format.json", *IAM_CONFIG_PREFIX))
.await
.expect("seed isolated IAM format");
let iam = rustfs_iam::build_iam_sys(store.clone()).await.expect("build isolated IAM");
Arc::new(crate::runtime_sources::AppContext::with_default_interfaces(
store.clone(),
iam,
Arc::new(KmsServiceManager::new()),
))
}
fn file_info(object: &str, version: Uuid, body: Bytes) -> FileInfo {
let mut fi = FileInfo::new(object, 1, 0);
fi.erasure.index = 1;
fi.name = object.to_string();
fi.version_id = Some(version);
fi.size = i64::try_from(body.len()).expect("small fixture body");
fi.parts = vec![ObjectPartInfo {
number: 1,
size: body.len(),
actual_size: fi.size,
..Default::default()
}];
fi.data = Some(body);
fi.set_inline_data();
fi.mod_time = Some(OffsetDateTime::now_utc());
fi
}
// Both global publications are first-writer-wins. Run this fixture in
// its own nextest process; do not reset or replace another test's state.
assert!(
crate::runtime_sources::current_app_context().is_none(),
"requires an unpublished AppContext"
);
super::timeout(Duration::from_secs(90), async {
let root_b = tempfile::tempdir().expect("instance B directory");
let root_a = tempfile::tempdir().expect("instance A directory");
let store_b = build_store(root_b.path()).await;
let context_b = context(&store_b).await;
let published = crate::runtime_sources::publish_test_app_context(context_b.clone());
assert!(Arc::ptr_eq(&published, &context_b), "B must win the process AppContext publication");
// Copy the actual initialized format set, without editing IDs. The
// request UUID must identify an active physical disk in BOTH stores.
for index in 0..4 {
let relative = format!("disk{index}/{RUSTFS_META_BUCKET}/format.json");
let target = root_a.path().join(&relative);
tokio::fs::create_dir_all(target.parent().expect("format parent"))
.await
.expect("create A format directory");
tokio::fs::copy(root_b.path().join(&relative), target)
.await
.expect("copy the real disk format to A");
}
let store_a = build_store(root_a.path()).await;
let service = make_server_for_context(Some(context(&store_a).await));
assert!(Arc::ptr_eq(&service.resolve_object_store().expect("captured store"), &store_a));
assert!(Arc::ptr_eq(
&crate::runtime_sources::current_object_store_handle().expect("global store"),
&store_b
));
let disk_a = store_a.disk_map[&0][0].as_ref().expect("A disk zero").clone();
let disk_b = store_b.disk_map[&0][0].as_ref().expect("B disk zero").clone();
assert!(disk_a.is_local() && disk_b.is_local());
assert!(!Arc::ptr_eq(&disk_a, &disk_b));
let disk_id = disk_a.get_disk_id().await.expect("A disk ID").expect("formatted A disk");
assert!(!disk_id.is_nil());
assert_eq!(disk_b.get_disk_id().await.expect("B disk ID"), Some(disk_id));
let global_disk = super::find_local_disk_by_ref(&disk_id.to_string())
.await
.expect("global UUID lookup must resolve B before the request");
assert!(Arc::ptr_eq(&global_disk, &disk_b));
let volume = "namespace-target-context";
let object = "destination";
let staging = "staged";
let version = Uuid::new_v4();
let new_body = Bytes::from_static(b"committed-through-captured-A");
let new_fi = file_info(object, version, new_body.clone());
let opts = ReadOptions { read_data: true, ..Default::default() };
for (disk, old_body) in [
(&disk_a, Bytes::from_static(b"old-body-A")),
(&disk_b, Bytes::from_static(b"old-body-B")),
] {
disk.make_volume(volume).await.expect("create destination volume");
disk.write_metadata(volume, volume, object, file_info(object, version, old_body.clone()))
.await
.expect("write real old object metadata and inline body");
disk.write_metadata(volume, volume, staging, new_fi.clone())
.await
.expect("stage identical valid metadata on both physical disks");
let seeded = disk
.read_version(volume, volume, object, &version.to_string(), &opts)
.await
.expect("decode seeded inline object before invoking the handler");
assert_eq!(seeded.data, Some(old_body), "the real reader must return the seeded body");
}
let a_meta = disk_a.path().join(volume).join(object).join("xl.meta");
let b_meta = disk_b.path().join(volume).join(object).join("xl.meta");
let a_staging = disk_a.path().join(volume).join(staging).join("xl.meta");
let b_staging = disk_b.path().join(volume).join(staging).join("xl.meta");
let a_before = tokio::fs::read(&a_meta).await.expect("A old metadata bytes");
let b_before = tokio::fs::read(&b_meta).await.expect("B old metadata bytes");
let b_staging_before = tokio::fs::read(&b_staging).await.expect("B staged metadata bytes");
assert!(tokio::fs::try_exists(&a_staging).await.expect("A staging exists"));
assert_ne!(a_before, b_before, "the old on-disk bodies must distinguish A from B");
super::timeout(Duration::from_secs(10), async {
while store_a.scanner_data_usage_publication_blocked().await
|| store_b.scanner_data_usage_publication_blocked().await
{
tokio::task::yield_now().await;
}
})
.await
.expect("startup namespace commits must drain before measuring the handler");
let generation_before = (
store_a.scanner_namespace_mutation_generation(),
store_b.scanner_namespace_mutation_generation(),
);
let mut request = Request::new(RenameDataRequest {
disk: disk_id.to_string(),
src_volume: volume.to_string(),
src_path: staging.to_string(),
dst_volume: volume.to_string(),
dst_path: object.to_string(),
file_info: serde_json::to_string(&new_fi).expect("encode real FileInfo"),
file_info_bin: Vec::new().into(),
scanner_publication_lease_token: Vec::new().into(),
});
let body = rustfs_protos::canonical_rename_data_request_body(request.get_ref()).expect("canonical rename body");
set_tonic_canonical_body_digest(&mut request, &body).expect("body-bound handler request");
let response = super::timeout(Duration::from_secs(10), service.rename_data(request))
.await
.expect("real rename handler must finish within ten seconds")
.expect("rename handler response")
.into_inner();
assert!(response.success, "the valid staged rename must execute: {:?}", response.error);
let a_after = disk_a
.read_version(volume, volume, object, &version.to_string(), &opts)
.await
.expect("read A's physical object after rename");
let b_after = disk_b
.read_version(volume, volume, object, &version.to_string(), &opts)
.await
.expect("read B's physical object after rename");
let a_bytes_after = tokio::fs::read(&a_meta).await.expect("A metadata after rename");
let b_bytes_after = tokio::fs::read(&b_meta).await.expect("B metadata after rename");
let b_staging_after = tokio::fs::read(&b_staging).await.ok();
let generation_after = (
store_a.scanner_namespace_mutation_generation(),
store_b.scanner_namespace_mutation_generation(),
);
let pending_after = (
store_a.scanner_data_usage_publication_blocked().await,
store_b.scanner_data_usage_publication_blocked().await,
);
for disk in store_a.disk_map.values().chain(store_b.disk_map.values()).flatten().flatten() {
disk.close().await.expect("close real fixture disk before assertions and directory cleanup");
}
assert_eq!(
a_after.data,
Some(new_body),
"RenameData must commit to captured A, even when global B owns the same UUID; B body={:?}, generations={generation_before:?}->{generation_after:?}, pending={pending_after:?}",
b_after.data
);
assert_ne!(a_bytes_after, a_before, "A metadata must actually be replaced");
assert_eq!(b_after.data, Some(Bytes::from_static(b"old-body-B")), "B body must remain unchanged");
assert_eq!(b_bytes_after, b_before, "B metadata must remain byte-for-byte unchanged");
assert_eq!(b_staging_after, Some(b_staging_before), "B staging must not be consumed");
assert_eq!(pending_after, (false, false), "both stores must reach a stable terminal state");
})
.await
.expect("two-instance handler fixture must finish within ninety seconds");
}
#[tokio::test]
async fn test_make_volumes_invalid_disk() {
let service = create_test_node_service();