The regression test `docs/plan/jobs-handling-recoverable-error.md`
§Testing asks for: assert the run reaches Paused, that `error_message`
names the cause, and that it does so in bounded time rather than
hanging.
## The endpoint has to HANG, not refuse
`s3_stub` already existed and points at `127.0.0.1:9999`, where nothing
listens. That connection is REFUSED — ECONNREFUSED, immediately — and
that path was never broken. A test built on it would pass with no
timeout configured anywhere, which is worse than no test: it would read
as coverage of exactly the failure it cannot see.
So `s3_blackhole` points at `192.0.2.1`, TEST-NET-1 (RFC 5737),
reserved for documentation and guaranteed unrouted. A SYN goes
unanswered — no RST, no ICMP — which is the failure that used to hang
until the OS abandoned TCP retransmission ~15 minutes later, with the
job neither running nor failed the whole time.
Ed's suggestion, and it is the right fixture: a server that never
answers is reproducible in a way that unplugging a cable is not.
## The load-bearing assertion is `duration`
Every other assert in the file would also pass against the old hanging
behaviour, given fifteen minutes. `duration < 120000` is the only one
that fails if the bound is ever removed. The threshold is deliberately
loose — three orders of magnitude from the failure it guards, so a slow
runner cannot make it flaky.
## Why it is safe in the shared suite
The run fails at `target.initialize()`, which is BEFORE
`migration_readonly` is engaged, so this file cannot leave the server
read-only for whatever runs next. A mid-copy failure would have held
the freeze — that is why this shape was chosen.
Teardown is mandatory rather than tidy: `open_or_start` picks up the
latest non-terminal row, so a Paused row left behind would be RESUMED
by the next `backend_migration` trigger in the suite, silently
retargeting an unrelated test at the black hole. The file cancels its
own run and asserts the row reached Cancelled.
Placed second-to-last. It is the slowest file in the suite by design —
it waits out an unreachable endpoint to prove the wait is bounded — so
that cost lands after everything else has reported. Azurite stays last
for the reason its own comment gives.
Not yet executed: the suite tears down containers and Ed usually has a
run in flight.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
Adds an Azurite service and a scenario that audits the Azure backend
through `?storage=azurite`. It is the only coverage of that code path in
the tree: `AzureBlobBackend` has unit tests for its name parser and
ordering, but nothing else speaks the protocol, and a paid account is
not an option for CI. Azurite implements the real Blob REST API, so this
exercises SharedKey signing, prefix/marker paging, and the 256-way shard
walk with its termination.
## Harness
`docker-compose.test.yml` gains an azurite service on 10000 (tmpfs, so
it dies with the stack). `spawn-db.sh` provisions the container itself,
because `AzureBlobBackend::initialize` verifies rather than creates —
signed by hand with curl + openssl rather than pulling a ~700 MB `az`
image for one PUT. Two traps are commented there: the account key is
base64 but HMAC wants raw bytes, and the canonicalized resource repeats
the account name (`/{acc}/{acc}/{container}`) because the emulator puts
in the path what real Azure puts in the host. Getting that wrong yields
403, not a hint.
The `azurite` entry is declared in `server.env` but never activated, so
the suite's active backend stays local and only this file reaches Azure.
## What it asserts, and what it cannot
A failure surfaces as `ok: false`, because an enumeration error now
fails the run rather than degrading to a per-row probe.
It deliberately asserts no finding count. The container starts empty and
the job's grace window is an hour, so a freshly-uploaded blob is skipped
in both directions by design — an audit here can only report zero, and
"zero findings" would pass whether enumeration worked or returned
nothing. The one positive assert, `scanned_count != 0`, therefore sits
on the local control, which does hold blobs; `scanned_count` accumulates
via `checkpoint`, which the empty-page early return skips.
## No cutover, deliberately
Putting real bytes in the container means `backend_migration
?storage=azurite`, which hangs on the first blob: `head_check` issues a
~40-byte ranged GET, `azure_core` 0.21 attaches
`x-ms-range-get-content-crc64` to anything under 4 MiB, Azurite 500s,
and the deterministic error is retried forever while
`migration_readonly` refuses writes app-wide. The full chain and the
rejected workaround are in the file header. The scenario is still
ordered last in `run.sh` — it is the only one needing a second service,
and the cutover comes back there once the official SDK lands.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
Covers the job's surface: that it is registered, declares the metadata
the admin panel switches on (`mutates: always`, recoverable, a repair
description), and that a run against a drained tree completes cleanly
with zeroed counters.
It deliberately does NOT cover the re-keying, which is the part that
matters most. That needs `.transcoded/webp/` entries on disk before the
run, and nothing reachable over HTTP can create them — since the write
path moved to the derived tier, only hash-less callers still write
there, and hurl cannot place files in the server's storage directory.
The migration is validated by a snapshot restore instead, the way the
thumbnail one was; the file says so rather than implying coverage it
does not have.
The empty-tree assertions still earn their place. A drained tree is
what every run after the first sees, so it is the overwhelming
majority of this job's lifetime, and "does nothing, quietly" is a real
property: the thumbnail teardown warned `could not be removed / No
such file or directory` on every boot after its migration finished —
warning about success forever — and that was caught by eye, not by a
test. Counters are asserted as exact zeros, since finding work in a
directory the API cannot populate is the shape a re-keying bug would
take.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
Adds `GET /api/admin/transcode/stats` and a hurl scenario that uses it
to assert both halves of the caching contract.
The endpoint exists because the property was previously unobservable.
`derived_blob_copy.hurl` records the same limitation for thumbnails:
stored blob, RAM cache and a fresh re-render return identical bytes
with identical status, so no HTTP-level assertion can tell them apart.
Counters can. `transcodes` is work done; `cache_hits` and `disk_hits`
are work avoided, and a rising `transcodes` against a flat `disk_hits`
is exactly what a broken derived tier looks like from outside.
Each case uploads the same bytes as TWO distinct files. Re-fetching one
file would only prove moka works — that cache is keyed `{file_id}:{ext}`.
A second file with identical content is a guaranteed memory miss but the
same content hash, so avoiding a transcode there can only be the
content-keyed tier answering. That is the whole point of keying
derivations by content rather than by file, and this is the first test
that can see it.
The negative half is the one the row exists for: without it the server
re-runs a full decode + encode of a half-megabyte screenshot for every
file sharing that content, on every request, to discard the result each
time.
Assertions capture-then-compare rather than computing deltas — hurl has
no arithmetic in predicates, and pinning the exact prior value is
stricter anyway, since a transcode triggered from anywhere shows up.
Absolute values are never asserted: other scenarios in the same run
transcode too.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
Nothing exercised these jobs. Their unit tests cover the directory walk
— which files each claims — but neither had ever executed a run.
The test environment always starts fresh, so there is no pre-migration
data to import. This creates it, and the reconstruction is EXACT rather
than an imitation: the on-disk layout did not change in this work. A
rendered thumbnail has always been written to {size}/{hash}.webp and an
uploaded preview to {size}/ext-{id}.jpg; the only new thing is the row.
So upload through the real API, then delete the row, and what remains on
disk is byte-for-byte what a pre-migration install has.
Deleting the row must also release the reference it held, or the
manufactured state would carry a reference no legacy install ever had
and storage_cleanup_check.sh would report a leak this script caused.
file_attached_blobs has an ON DELETE trigger for that;
content_derived_blobs does not — its Rust purge path releases explicitly
— so the strip decrements it directly.
Three assertions, in increasing order of what they catch:
1. Both rows come back, and the imported attached row carries the nil
uploader sentinel rather than a fabricated one.
2. A COPY inherits the imported preview. This is the user-visible
point and was impossible before the row existed: the ext- sidecar
is keyed by file_id, no copy path duplicates it, so the copy
silently fell back to a render.
3. Re-running imports nothing and changes no refcount. The likeliest
silent defect — store_attached_blob is ON CONFLICT DO UPDATE, so an
import that skipped its existence check would release and retake a
reference every run, invisible except as drift.
psql runs inside the compose container rather than depending on a host
binary, matching how spawn-db.sh probes readiness. Ordered before
storage_cleanup_check.sh, which deletes everything it needs.
Completes step 9. The PUT wrote `ext-{file_id}.jpg` and nothing else —
keyed by file id, on local disk. No copy path duplicates it and no other
instance can see it, so a copied file lost the preview its owner
uploaded. Silently: the server falls back to rendering one from the
source, or to 204 for a PDF, which has no render path at all. A
user-supplied preview is not derivable from the content, so once lost it
is gone.
The PUT now also records a storage.file_attached_blobs row, which
copy_file_satellites already duplicates, so both copy paths carry it.
Best-effort: the sidecar has already succeeded by then and the user can
see their thumbnail, so failing the request would report an error for an
operation that visibly worked.
Read path consults attachments ahead of every content-derived tier: an
uploaded preview is an explicit choice about THIS file and must beat
anything rendered from its content. Cached under the per-file key — a
content key would leak those bytes to every other file sharing the
content, which is the poisoning the file-keyed table exists to prevent.
store_attached_blob is ON CONFLICT DO UPDATE, unlike its derived twin:
re-uploading a preview is a deliberate replacement, where a re-derived
thumbnail is the same bytes again. The superseded blob's reference is
released, or it would be pinned forever with nothing pointing at it.
Deletion goes through a trigger, not a hook. file_id is ON DELETE
CASCADE, and on_file_deleted fires AFTER delete_file — by then the
cascade has run and there is nothing left to enumerate. This matters
most for folder deletion, where PG cascades folders to files to
attachments and Rust never sees the rows at all. storage.decrement_blob_ref
keys off OLD.blob_hash and is otherwise table-agnostic, so it is reused
verbatim rather than transcribed into a second trigger that can drift.
DELETE only: a replacement updates in place and is handled in Rust, so
adding UPDATE would double-decrement.
Extracted read_blob_to_bytes, shared by the attached and derived tiers —
the only difference between them is which table produced the hash.
tests/api/attached_thumbnail_copy.hurl guards it. The file is red and
the uploaded thumbnail is green, so a render could never produce the
uploaded bytes; the pre-upload render is captured first and required to
change, which stops three identical renders from satisfying the
byte-equality. Then both copy paths must serve the upload, and after the
original is purged and GC runs, both copies must still serve it — each
holds its own reference, because the rows are duplicated rather than
shared.
The thumbnail ETag was "thumb-{file_id}-{size}-{format}", sent with
Cache-Control: public, max-age=31536000, immutable. Replacing a file's
content preserves its id — file_upload_service rebuilds the entity with
parts.id and a new hash, then fires on_file_updated, which deletes and
regenerates the thumbnails — so the server produced a new thumbnail while
still advertising the old ETag. Because `immutable` tells a conforming
browser not to revalidate at all inside the freshness window, clients kept
rendering the previous image for up to a year, unfixably.
Keyed on the content hash the directive becomes honest: a thumbnail is a
pure function of (source bytes, size, format), so that triple identifies
the response. New content yields a new ETag.
The same change fixes the opposite direction. A copy, or any dedup twin,
had a different id and therefore a different ETag, so clients refetched
bytes they already held even though both are served from the same derived
blob. Now identical content agrees on an ETag and revalidates to 304
across files, users and copies.
Both thumbnail endpoints were affected: the REST handler and the
NextCloud preview handler.
Cost is one PK lookup ahead of the 304 decision, where the id-keyed
version needed none — paid for by no longer serving stale images. It is
partly recovered: both handlers already resolved the same hash further
down for the render path, and that second lookup is now gone, so the
cache-miss path is unchanged and only the 304 path pays. The resolved
hash is also handed to get_cached_thumbnail instead of None, saving the
service its own lookup.
No new disclosure: content_hash is already on FileDto and returned by
GET /api/files/{id}.
Tests: thumbnail_etag_content_keyed.hurl covers invalidation — overwrite
in place via WebDAV PUT, assert the ETag changed, assert a client holding
the stale one gets 200 rather than 304. derived_blob_copy.hurl gains the
sharing direction: a copy answers with the SAME ETag and revalidates to
304, which is the one externally observable consequence of content-keying
and was not previously testable.
Step 8 of docs/plan/derived-blobs.md. "What follows a file on copy" was
written twice — the copy_file CTE and storage.copy_folder_tree — and had
already drifted: the tree path bumped storage.blobs only, missing
manifests, which was silent data loss on any multi-chunk file. Fixing it
meant writing the same logic a second time. Step 9 adds a file-keyed
satellite table, which would mean a third and fourth.
Two SQL functions:
storage.add_blob_references(TEXT[]) — the manifest-first reference
contract for SQL callers, returning hashes that matched no registry
row. Set-based so the tree path keeps its single-statement cost; a
per-row helper would have made a 10k-file copy 10k calls.
storage.copy_file_satellites(UUID[], UUID[]) — dead properties plus
the blob reference. The body is the copy-semantics declaration: what
is absent (comments, favorites, content-keyed derived rows) is listed
with its reason, so the taxonomy is executable rather than documented
elsewhere and drifting.
Both copy paths now call it. The single-file path becomes a real
transaction, which also fixes the reference being best-effort: a failed
add_reference used to log a warning and leave a copy holding no
reference at all — the exact shape that gets its content reaped. It
cannot be a CTE arm, because data-modifying CTEs share one snapshot and
the function must read the row the INSERT just wrote.
Verified against a scratch PG with all migrations applied: multi-chunk
manifest 1→2, single-chunk alias bumped at manifest level only (the
NOT EXISTS guard), chunks behind a manifest untouched, dead properties
duplicated, length mismatch rejected, repeats counted.
tests/api/derived_blob_copy.hurl covers it end-to-end and answers the
question the copy raises: content_derived_blobs is NOT copied. A copy
carries the same blob_hash, so it resolves the same derived row — the
test asserts byte-identical thumbnails from both copy paths, then
deletes the original, runs GC, and requires both copies to still serve.
That last step only passes if the references are real.
OPAQUE (RFC 9807) implementation (using `opaque-ke` crate)
with opaque authentfication, server will never receive the password (in the auth=password mode)
this is a must have to create trust with users to permit end to end encryption in the future
(we cannot know if user use the same password/passphrase for his asymetric key or his oxicloud auth,
this is why server must never have the password)
pass1: prepare server
add /api/folders/{id}/ancestors
this API to iterate parent up to the drive root or the shared folder
this will help UI to build the breadcrumb in 1 API call
and to identify the root element (is it a drive users has access to or
a shared folder ?)
ui: now only 1 API call is now required to build the breadcrumb
Close the two coverage gaps in the external-mounts feature — the admin
REST surface and the admin UI tab both previously had no automated tests.
Backend (hurl):
- tests/api/external_mounts.hurl — black-box coverage of the admin mount
endpoints (list / create / delete): input validation (empty name,
non-existent host path → 400), create → 201 with the full view, the
mount appears in the list, delete → 204 then 404, and the /api/admin
middleware denies a non-admin on every verb → 403.
- server.env: enable OXICLOUD_ENABLE_EXTERNAL_MOUNTS for the test server;
run.sh: register the new scenario.
Frontend (vitest):
- admin/page.test.ts — opening the mounts tab loads + lists mounts,
the create form calls createExternalMount, and delete goes through the
confirm modal to deleteExternalMount.
Tooling:
- devenv.nix: add b3sum (used by tests/api/run.sh's storage-integrity check).
webdav_patch.hurl and nc_webdav_patch.hurl existed with real coverage
since the original PATCH commits but were never added to
tests/api/run.sh, so just api-test/CI silently skipped them. Wire both
in, fix nc_webdav_patch.hurl's header-after-[BasicAuth] ordering bug
that meant it had never actually passed, and add two new
consistency-focused files chaining PATCH operations with
cross-protocol/cross-surface verification:
- webdav_patch_consistency.hurl: chained overwrites with ETag-change
checks, GET/HEAD/PROPFIND cross-protocol agreement, quota-507
leaving the file byte-for-byte unchanged, direct_put_max_bytes
prefix/suffix regression coverage.
- nc_webdav_patch_consistency.hurl: Editor/Viewer/Outsider permission
matrix, cross-surface lock interop, quota-507 via the NC surface.
Running these surfaced two real bugs in the NC PATCH handler, both
fixed here:
- The write step mapped every error (including a legitimate anti-enum
permission denial) to a raw 500 instead of AppError::from(e), unlike
the plain surface. A Viewer without Update permission got a 500
leak instead of the expected 404.
- nc_to_internal_path() didn't strip the leading '/' that chroot.path
carries from StoragePath::to_string(), so a LOCK taken via /webdav/
silently failed to block PATCH via /remote.php/dav/ on the same
file — the exact-string lock-store lookup never matched. Added a
regression unit test.
automatically create default Calendar and default addressbook per user
(no creation if user already have a such resource)
default name are "Personal"
this is using the user's life cycle like does the drives
answers to issue #545
- add resource kind filter (file, folder, drive) in shared section (localStorage stored)
- add user preferences serverside store
- add client side dotfile filter (show/hide dotfiles) (user perf stored, default: dotfiles are shown)
for security trashed dotfile are always displayed
protection added: if a folder has only hidden items, a notification invite user to display it
if a user rename or create a hidden item, a notification tells it to user
ensure OIDC is supported during nextcloud login
flow is:
1. nextcloud
2. oxicloud login ( direct pass or OIDC according config)
3. drive picker (if user has multiple drive)
4. success page + backchannel login to nextcloud
resolve_quota only ever reported the caller's personal envelope,
ignoring the drive_id already resolved at every PROPFIND call site —
shared drives with their own quota showed the wrong numbers. Adds
AppState::resolve_webdav_quota, shared by both WebDAV surfaces:
nil drive_id or personal drive -> account envelope, shared drive ->
its own storage.drives quota/used_bytes.
Also adds quota-used-bytes/quota-available-bytes to the NextCloud-
compatible surface, which previously had no RFC 4331 support at all.
Registers webdav_quota_properties.hurl and the new
nc_webdav_quota_properties.hurl in tests/api/run.sh — neither was
wired into the suite before this change.
Edouard Vanbelle