CI ran `cargo test --workspace` with no `--include-ignored`, so it executed 927
tests and skipped 237 — every DB-backed integration test is
`#[ignore = "needs DATABASE_URL..."]`, which covers ALL of api.rs, ALL of
authz.rs, and the entire CLI journey suite. The isolation and RBAC tests existed
but never ran (AUDIT.md F-Q-014, logged and never remediated). CI provides
Postgres, so it can run them.
Three things had to be right for that to go green:
- **`--all-targets`, not a bare workspace run.** `-- --include-ignored` un-ignores
not just `#[ignore]` tests but also ` ```ignore ` DOCTESTS, which are
illustrative pseudocode that does not compile. `--all-targets` runs lib/bins/
integration tests but excludes doctests (the same reason clippy uses it); a
separate `--doc` step runs the doctests without the flag. Structural, so a
future pseudocode doctest can't silently break CI either.
- **The CLI journeys are their own step.** They spawn a real picloud whose
dispatcher/orchestrator claim loops are global by design; run concurrently with
the manager-core suites on the shared database they would claim those suites'
outbox and workflow rows. Sequential steps keep the live server off the DB
while the other suites use it. The step also rebuilds `-p picloud` first (the
harness execs the prebuilt binary) and sets the dev-mode env the server needs.
- **A higher `max_connections`.** `#[sqlx::test]` pools are lazy, but mass-parallel
test startup briefly opens many at once (each test creates its own throwaway
database); on a many-core box that transient spike exceeded the default 100 and
Postgres answered "sorry, too many clients already". Steady-state peak is only
~26; 500 absorbs the spike with room to spare. Serving the app needs nothing
like this many. (This is the local compose ceiling; a small CI runner's default
100 has ample headroom for its lower parallelism.)
Also fixes the test the CI gap had let rot: api.rs asserted `v["schema"] == 66`
with a hand-bump comment, and since nothing ran it, it sat broken from migration
0066 to 0073. It now asserts `/version` surfaces the live constants
(`migrations::latest_version()`, `SDK_VERSION`) — the wiring — while value drift
stays caught by schema_snapshot + check-versioning. A constant hand-synced to
another constant is a chore, not a test.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
`dispatcher_e2e` failed about one run in three, on a different test each time,
and never under `--test-threads=1`. Root cause, not timing:
Each test calls `build_app`, which spawns a REAL dispatcher, and they all shared
one database — so they shared one `outbox`. `OutboxRepo::claim_due` is
deliberately not app-scoped (in production one dispatcher serves the whole
instance, so claiming any due row is correct). Test A's dispatcher would
therefore claim test B's row, test A would finish, its server would be dropped
mid-dispatch, and the claim was stranded. Test B polled for its handler's side
effect until it timed out.
The harness was modelling something production never does: N independent
instances sharing one database. So the fix belongs in the harness. Weakening the
dispatcher (app-scoping `claim_due`) would be wrong, and shortening
`PICLOUD_OUTBOX_CLAIM_TIMEOUT_SEC` to fit a 10s test window would make production
abandon the live claims of scripts that may legitimately run 300s.
`tests/common` now hands each test its own database. Replaying 73 migrations per
test is too slow, so the first caller builds a migrated TEMPLATE database once
and every test clones it (`CREATE DATABASE ... TEMPLATE` is a file copy), guarded
by a cluster-wide advisory lock because Postgres will not clone a template that
has an open connection. Names are derived from (suite, test), so a test reclaims
its own database on entry: a crashed run leaves nothing to clean up.
Only the five local `pool_or_skip` wrappers change — all 33 call sites are
untouched, and the skip-when-`DATABASE_URL`-is-unset contract is preserved.
(`#[sqlx::test]` already does this and is what `api.rs`/`authz.rs` use, but it
requires `DATABASE_URL` and would force `#[ignore]`, silently dropping these
tests from the default `cargo test --workspace` gate.)
This also stops the e2e tests leaving stranded claims behind in the shared dev
database, which is the likely source of the occasional lone journey failure.
Before: dispatcher_e2e red ~1 run in 3. After: workspace green twice over,
journeys 157/157.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
An app's OWN store had no ceiling of any kind — only the group-SHARED
collections did, which is the inversion of what you'd expect. And
`authz::script_gate` returns `Ok(())` when there is no principal, so a
PUBLIC UNAUTHENTICATED route could reach `files::collection(..).create(..)`
and write blobs in a loop until the disk filled. `PICLOUD_FILES_MAX_FILE_SIZE_BYTES`
caps ONE file at 100 MB; nothing capped the count. Same for KV keys and docs
against Postgres.
Ceilings: `PICLOUD_APP_KV_MAX_ROWS` / `PICLOUD_APP_DOCS_MAX_ROWS` (100k) and
`PICLOUD_APP_FILES_MAX_TOTAL_BYTES` (10 GiB).
They are enforced DIFFERENTLY from the group ones, on purpose — porting the
group design as-is would have been a serious regression:
* KV/docs check a ROW count, on INSERT only, with NO lock. `kv::set` is the
hottest write path in the system; taking a per-app advisory lock on every
set would serialize an app's entire data plane, and a `SUM(...)` scan would
make write cost grow with the app's stored size. What the lock buys is
small — unlocked overshoot is bounded by write concurrency (32) against a
ceiling of 100k, ~0.03%. These are anti-DoS rails, not billing. An update
adds no row and is bounded by the per-value cap, so it pays nothing at all.
* No per-app BYTE ceiling for KV/docs: every value is already capped at
`PICLOUD_KV_MAX_VALUE_BYTES`, so `max_rows x max_value_bytes` is ALREADY a
finite bound. A second scan would buy nothing.
* FILES are the exception and DO lock + sum: one blob may be 100 MB, so 32
racing uploads could overshoot by gigabytes of real disk, and a file write
is heavy enough that the lock and the SUM are lost in the noise. Checked on
create AND update — an update that skipped the ceiling would be a free
bypass (the same bug just fixed for group files: grow a 1-byte file to
100 MB, repeat).
`group_quota` is renamed `quota`: it now serves both owners, and the module
doc is where the two enforcement strategies are contrasted.
Pinned by tests/atomic_write.rs: the key ceiling refuses a new key while
still allowing an update at the ceiling (rejecting updates would brick an app
the moment it filled up — worse than the DoS the rail exists to stop), and 10
concurrent uploads cannot exceed the disk ceiling, nor can an update grow past it.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Audit #6 and #8 for the last of the three stores, plus a bypass found on
the way.
**#6.** create/update/delete wrote the metadata row, then emitted
best-effort, so an outbox failure left a committed file whose trigger never
fired. `atomic_write::FilesWriter` commits the metadata row and the fan-out
together.
Files are the one store where the ordering is subtle, because the BYTES live
on disk and cannot join a transaction:
* create/update — blob first, then commit metadata + fan-out. A rollback
unlinks the blob. (A crash at that exact point still orphans it; that
hazard predates this change — the repo already wrote the blob and then
inserted the row in a separate, failable statement — and the orphan is
inert, referenced by nothing.)
* delete — commit the metadata removal + fan-out FIRST, then unlink. The
reverse order would destroy the bytes of a row that a rollback keeps,
leaving a file that can never be read.
**#8.** `GroupFilesService::create` read `total_bytes` on one connection and
wrote on another, so concurrent uploads each saw the same pre-write total and
together overshot the ceiling. This is the worst instance of the race in the
codebase: the ceiling is DISK (10 GiB by default) and one file may be 100 MB,
so a racing fleet overshoots by gigabytes. `PostgresGroupFilesWriter` takes
the per-group advisory lock (on its own `files` key) across the check and the
write.
**The bypass.** `GroupFilesService::update` checked NO quota at all — so a
1-byte file could be updated to a 100 MB one without the ceiling ever being
consulted, repeatedly, for unbounded disk. It now checks the projected total
(the replaced file's bytes subtracted in SQL, so a same-size-or-smaller
update near the cap still goes through).
Also drive-by: `queue_e2e` asserted the ack the instant the marker appeared,
but the marker is written DURING the handler and the ack happens after it
returns — a zero-tolerance race. It polls now. (This does not fix the
suite's flakiness, which reproduces on the pre-pass commit too.)
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Audit #6 and #8, applied to the docs store — the same two bugs KV had, in
the same two places.
Per-app docs (#6): create/update/delete wrote the row, then emitted
best-effort. An outbox failure left a committed doc whose trigger never
fired. They now go through `atomic_write::DocsWriter`, whose Postgres impl
writes and fans out on one connection in one transaction.
Group docs (#8): the service read `count_rows`/`projected_total_bytes` on
pooled connections and wrote on another, so concurrent creators each saw the
same pre-write count and together overshot the ceiling.
`PostgresGroupDocsWriter` takes a per-group advisory lock — on its OWN
`docs`-namespaced key, so it serializes against other docs writers to that
group but not against KV writers, which draw on a separate ceiling.
The bespoke `check_total_bytes` (with its own copy of the upper-bound fast
path) is gone; group docs now shares `group_quota::check_group_write` with
group KV, so the row ceiling, the projected-bytes ceiling, and the fast path
that skips the O(n) SUM scan have exactly one implementation between them.
tests/atomic_write.rs gains the docs row-quota race (16 concurrent creators
against a ceiling of 4).
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Audit #8. `GroupKvServiceImpl` read the group's usage (`count_rows` /
`projected_total_bytes`) on one pooled connection and wrote on another. N
concurrent writers therefore each observed the same pre-write total, each
concluded it had room, and together sailed past the ceiling. The code
called this out as "best-effort ... quotas are safety rails, not exact
accounting" — but the overshoot is not small. With a ceiling of 5 and 20
concurrent writers, 19 rows land.
Route group-KV mutations through `atomic_write::GroupKvWriter`, whose
Postgres impl runs the quota reads, the row write, and the shared-trigger
fan-out on ONE connection in ONE transaction — and, crucially, takes a
per-group `pg_advisory_xact_lock` first.
The lock is the fix, not the transaction. Putting the check inside the
writing tx is necessary but NOT sufficient: under READ COMMITTED each
transaction's `COUNT(*)`/`SUM(...)` still sees a snapshot without the other
writers' uncommitted rows, so they all still pass. Serializing the
check-then-write per group is what makes a writer see its predecessor's row.
The lock key is namespaced per kind (kv/docs/…) so writes drawing on
different ceilings don't contend. A delete takes no lock — it only frees
space.
The quota POLICY (row ceiling, projected-bytes ceiling, and the
upper-bound fast path that skips the O(n) SUM scan for a group nowhere near
its cap) moves to one place, `group_quota::check_group_write`, over a small
`GroupUsage` trait. Both backends — the transactional one reading through
`&mut *tx`, and the in-memory one the unit tests use — share it, so there is
exactly one copy of the decision.
`set_if` gains a correctness nicety on the way: the row ceiling now keys on
whether the write ADDS a row, so a compare-and-swap against an absent key
with a `Some` precondition (which cannot swap, and so consumes nothing) is
no longer charged for one.
tests/atomic_write.rs pins both ceilings against 20/16 concurrent writers.
Both tests fail without the lock (19 rows stored against a ceiling of 5).
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Audit #6. `KvServiceImpl` wrote the row, waited for it to commit, then
asked the emitter to resolve matching triggers and insert outbox rows —
a second transaction on a second connection. If that second step failed,
the row was permanently in the store with its trigger having never
fired: invisible to the caller (the write "succeeded"), unrecoverable by
any retry, and only ever logged. The code said as much:
// Audit finding (Medium): this is non-transactional with the data
// write — the row above has already committed by the time emit()
// runs, so an emit failure means triggers silently don't fire.
Introduce `atomic_write::KvWriter` — the mutating half of the service (the
write AND the fan-out it produces), so the two can share a transaction:
* `PostgresKvWriter` opens a tx, writes via `kv_repo::*_on(&mut *tx, …)`,
runs the fan-out on the SAME connection via `emit_on(&mut *tx, …)`, and
commits. An emit failure now rolls the write back and surfaces to the
script, which is the honest outcome — the caller learns the write did
not happen instead of silently getting a store that disagrees with its
triggers.
* `BestEffortKvWriter` keeps the old write-then-log-on-emit-failure
semantics for the in-memory unit tests (no Postgres).
Both sit behind one trait, so the service body has a single code path and
the choice is a constructor detail (`with_atomic_writes(pool)` in the host).
Pool-deadlock rule, documented on the module: everything inside the tx runs
on the tx's connection. A writer that held a tx and then reached for a
second pooled connection could starve — the pool is sized to the execution
concurrency cap, so N executions each wanting 2 connections deadlock. The
fan-out takes `&mut *tx` and never touches a repo.
`tests/atomic_write.rs` pins it by injecting an outbox failure (a Postgres
BEFORE-INSERT trigger scoped to the test's own app_id, so parallel tests are
unaffected): the set errors and the key is NOT in the store; likewise a
delete rolls back rather than dropping a key nothing downstream hears about.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
`OutboxEventEmitter` resolved matching triggers and inserted outbox rows
through `Arc<dyn TriggerRepo>` / `Arc<dyn OutboxRepo>`, i.e. against the
pool — each query on whatever connection it happened to get. That makes a
transactional outbox impossible: the data write and the outbox rows can
never share a transaction, so a crash (or an outbox error) between them
silently loses the trigger event.
Take the emitter down to a connection instead of a pool:
* `outbox_repo::insert_on(exec, row)` and `trigger_repo::list_matching_on`
/ `list_matching_shared_on(exec, ...)` are generic over `PgExecutor`, so
the same SQL serves a pooled connection or a `&mut *tx`. The repo trait
methods delegate to them — the SQL keeps exactly one home.
* `emit_on` / `emit_shared_on` take a `&mut PgConnection` and run the whole
fan-out on it. The `ServiceEventEmitter` impl acquires one pooled
connection and calls them, so behaviour is unchanged today; a caller
holding a transaction can now pass `&mut *tx` and have the outbox rows
commit with the write.
* `OutboxEventEmitter::new` takes the `PgPool` directly (it was only ever
constructed once, in the host wiring).
Also collapses the three copy-pasted per-app match queries (kv/docs/files
differ only in the `kind` discriminator and detail table) and the three
`emit_*` bodies into one `plan()` + one match fn, so the suppression
anti-join, the chain walk, and the empty-ops-means-any-op semantic each
exist once rather than three times.
No behaviour change — pure refactor. It is the seam the transactional
write lands on next.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Smallest honest vertical slice of §9.4: a `[[interceptors]]` block (app OR
group) binds a script to run BEFORE `kv::set`/`delete`; it reads the operation
context (`ctx.request.body`: service, action, collection, key, value, caller
ids) and returns `#{ allowed, reason }` — `allowed == false` denies the op (the
write never runs, the caller gets a runtime error).
Reuses two existing mechanisms rather than inventing new ones:
- Registration mirrors extension points (§5.5): a marker table
`0073_interceptors.sql` (owner-polymorphic app_id/group_id XOR, keyed
(service, op) → script), `interceptor_repo` (insert/delete/list + the
nearest-owner-wins `resolve_before` chain walk), reconciled through the
declarative apply exactly like `vars` (create/update/delete, prunable).
- Execution reuses the `invoke()` re-entry path: the new `InterceptorService`
(shared trait + Postgres-backed impl) only RESOLVES the script name (keeping
executor-core Postgres-free); the executor's `sdk::interceptor::run_before`
resolves that name and runs it via `run_resolved_blocking` (extracted from
`invoke_blocking` — shared depth bound + AST cache). An un-hooked write pays
one indexed `Ok(None)` resolve; no interceptor ⇒ zero overhead.
Nearest-owner-wins so an app overrides a group's interceptor, and a group
interceptor is inherited by every descendant app — the chain walk is the
isolation boundary (a sibling subtree never matches). `validate_bundle_for`
restricts the MVP to `service = "kv"`, `op ∈ {set, delete}`, one marker per
(service, op).
Deferred (documented in §9.4): the `data` transform return, services other
than kv, `after_*` hooks, chaining + circular-dependency guard, the timeout
policy, and a `pic interceptors ls` read surface (needs a server route).
Pinned by `tests/interceptors.rs` (deny blocks the write; allow passes;
group→app inheritance), schema snapshot re-blessed. 154/154 journeys pass.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
The user-facing surface for the durable DAG engine. A workflow run can now be
started three ways, all resolving the workflow by name in the caller's app
(`cx.app_id` / the resolved app — never a passed-in arg, the isolation
boundary), seeding a run the orchestrator advances.
SDK seam (shared):
- `WorkflowService` trait + `NoopWorkflowService` + `WorkflowError` in
`shared::workflow` (mirrors `InvokeService`); added to `Services` as a
noop-defaulted `with_workflow` builder (all `Services::new` call sites
unchanged).
- `WorkflowServiceImpl` (manager-core): resolves + seeds a run; authenticated
callers gated on `AppInvoke` (anonymous skips, script-as-gate), the same gate
`invoke()` uses.
- `executor-core::sdk::workflow` — the Rhai bridge `workflow::start(name, input)`
/ `workflow::start(name)`, registered in `register_all`. Returns the run id.
Admin API (manager-core `workflows_api`, mounted in the binary):
- `GET /apps/{app}/workflows` — definitions (AppRead)
- `POST /apps/{app}/workflows/{name}/runs` — start a run (AppInvoke)
- `GET /apps/{app}/workflows/{name}/runs` — run history (AppRead)
- `GET /apps/{app}/workflow-runs/{run_id}` — one run + its steps (AppRead)
`app_id` scopes every query; a foreign run 404s.
CLI (`pic workflows`): `ls` · `run <name> [--input JSON]` · `runs <name>` ·
`run-status <run_id>` — all `--app`-scoped; run definitions stay declarative
(`[[workflows]]` → `pic apply`).
Also: `list_runs_for_workflow` repo reader.
Tests: `workflow_service_start_seeds_a_run` (DB-gated — the SDK/API-shared
entry) + `workflow_run_executes_end_to_end` CLI journey (apply → `pic workflows
run` → poll `run-status` → succeeded, through the real binary + orchestrator).
fmt + clippy -D warnings clean, 449 manager-core lib tests, 14 orchestrator DB
tests, 18 executor-core lib tests, 3 workflow CLI journeys green.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
The v1.2 Workflows durable DAG engine gains its runtime. A dedicated
background worker (`workflow_orchestrator.rs`, mirroring `cron_scheduler`,
NOT folded into the dispatcher) advances every in-flight run step-by-step,
durably, surviving restarts.
Per tick, two phases:
A. Claim + execute — up to a small batch of `ready`, due steps are claimed
with the same `FOR UPDATE SKIP LOCKED` competing-consumer lease the queue
uses (`claim_ready_step`), one execution-gate permit per step acquired
BEFORE the claim so the shared gate bounds real parallelism. Each step
resolves its function by name in the run's app scope (never a
script-passed arg — the isolation boundary), builds an `ExecRequest`, and
runs through the injected `ExecutorClient`. Claimed steps run concurrently.
B. Advance — the outcome is written and the DAG advanced in one token-gated
transaction (`complete_step_and_advance`): pending steps whose deps are
satisfied flip to `ready`, and the run's terminal status is recomputed.
Fan-in falls out (a join waits until its last dep flips it); a stale worker
matches zero rows and writes nothing.
The graph-advance decision is a pure, DB-free function (`compute_advance`) —
promotions + terminal run status, folding `on_error` fail-vs-continue and
skipped/failed dependency satisfaction — so it is unit-tested in isolation.
Retry uses the step's own policy via `compute_backoff`; a second, slower
cadence reclaims steps leased by a crashed worker (`reclaim_stale_steps`) — the
durability safety net. Steps run with no principal (like invoke_async), and log
under the new `ExecutionSource::Workflow` so `pic logs` surfaces them.
M2 executes function steps only; `when` + input templating land in M3, nested
sub-workflows in M4. Seams present (`StepTarget`, `run_input`, `workflow_depth`).
- migration 0072: widen the `execution_logs.source` CHECK with `workflow`
- shared: `ExecutionSource::Workflow`, `StepStatus::is_terminal`
- workflow_repo: run/step state — `start_run`, `claim_ready_step`,
`complete_step_and_advance`, `reclaim_stale_steps`, `get_run`,
`list_run_steps`, `compute_advance` (+ 7 pure unit tests)
- workflow_orchestrator: the worker + config (`PICLOUD_WORKFLOW_*` knobs),
spawned in `picloud/src/lib.rs` beside the dispatcher/cron scheduler
- tests: 8 DB-gated integration tests (linear, parallel fan-out/fan-in, retry,
on_error fail/continue, double-complete idempotency, stale-lease reclaim,
end-to-end tick with a fake executor)
Verified: cargo fmt, clippy -D warnings clean, 448 manager-core lib tests,
8 workflow_orchestrator DB tests, schema snapshot reblessed, M1 workflow CLI
journeys still pass (binary boots with the orchestrator wired in).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Remediate the HIGH and security-relevant findings from the 2026-07-11 audit.
H1 — the per-env approval gate is now server-authoritative. The governing
project is resolved from the target node's nearest-claimed ancestor
(`governing_env_policy`/`_tree` + `governing_project_id` +
`ProjectRepository::get_environments_by_id`), independent of the client-supplied
`[project]`. Omitting or spoofing the project block can no longer skip a gate the
owning project established; a to-create group resolves its declared parent's
chain so a fresh subtree node inherits the gate. Fails closed on any read error.
H2 — the API-key prefix slice (`&rest[..8]`) is now the boundary-safe
`rest.get(..8)`, so an attacker-supplied multibyte bearer can't panic the request
task (unauthenticated per-request DoS). Regression test added.
C1 — admin sessions gain an absolute lifetime cap (migration 0070,
`PICLOUD_SESSION_ABSOLUTE_TTL_HOURS`, default 30d): `lookup` filters it, `touch`
clamps the sliding bump to it, so a continuously-used or stolen-but-warm token
self-expires. Mirrors the data-plane app-user cap.
C2 — `Cache-Control: no-store` on the login and API-key-mint responses (the two
that return a raw credential), so a proxy/CDN/browser cache can't retain it.
B8 — file downloads are header-safe: `sanitize_stored_filename` guarantees a
valid `HeaderValue` (no panic on a control-char name) and BOTH the per-app and
group download paths now set attachment + `X-Content-Type-Options: nosniff` +
a restrictive CSP, closing a group-path stored-XSS gap.
Also folds in the server-side plan-warning plumbing (`plan_warnings`,
`PlanResult::warnings`) and the `app_only_reject` message helper that the CLI
plan-preview change builds on, plus operator security notes (reads-open shared-
topic SSE; the `--env` label is advisory, not a boundary).
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Shared TOPICS fanned out only to in-cluster trigger handlers; external clients
could not subscribe (per-app topics already can). Add SSE for shared topics.
- RealtimeBroadcaster gains a parallel (group_id, topic) channel map:
subscribe_group / publish_group / drop_group_topic (default no-ops so
NoopRealtimeBroadcaster + test doubles are untouched). InProcessBroadcaster
implements them with a second map; GC + channel_count span both.
- Route GET /realtime/shared/topics/{topic}: Host->app dispatch (as the per-app
route), then RealtimeAuthority::authorize_subscribe_shared resolves the OWNING
GROUP from the app's chain (kind=topic, root segment). Reads-open model — the
resolution IS the authorization, consistent with in-script shared reads; a
foreign-subtree app never resolves (404, the isolation boundary). No principal
machinery needed.
- GroupPubsubServiceImpl::with_realtime bridges a shared-topic publish to the
owning-group channel (best-effort) after the durable trigger fan-out.
- Host wires the broadcaster into the group pubsub service + the collection
resolver into the authority.
Auth-model note: chose reads-open (subtree app's Host is the grant) over
"authenticated principal + GroupKvRead" — it's both simpler and faithful to how
shared-collection reads already work. Pinned by realtime broadcaster group-map
tests, realtime_api shared-route tests (404 + stream), and
group_pubsub_service::publish_bridges_to_the_group_broadcaster. No migration.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
An exhausted SHARED durable-queue message was `drop_exhausted()`-ed with a
warning — silent data loss. Per-app queues persist to `dead_letters` (0010);
add the symmetric group store so an exhausted shared-queue message is preserved
and operator-visible.
- Migration 0068: `group_dead_letters`, keyed by (group_id, collection),
CASCADE on the group (an app delete leaves the data — it belongs to the
group, not the consuming app).
- `GroupQueueRepo::dead_letter` (replaces `drop_exhausted`): one tx that INSERTs
the dead-letter + DELETEs the live message, filtered by claim_token so a lost
lease can't dead-letter a re-claimed message (mirrors queue_repo::dead_letter).
- Dispatcher `q_terminal` shared arm now dead-letters instead of dropping. It
returns None (not the dl id) so the per-app `fan_out_dead_letter` is SKIPPED —
firing the consuming app's per-app handlers on a shared message (competing
consumers → nondeterministic app) would be wrong. Fan-out to a *shared*
dead_letter trigger is deferred (needs a new trigger kind).
- Read side: `GroupDeadLetterRepo::list_for_group` backs a new read-only
operator endpoint GET /api/v1/admin/groups/{id}/dead-letters (GroupKvRead,
mirrors the M4 group-blobs surface). `pic dead-letters ls --group` deferred
(optional; the HTTP endpoint is the operator surface).
Pinned by group_queue::dead_letter_moves_an_exhausted_message_to_the_group_store
(store move + claim-token-mismatch guard + operator read). Schema golden
reblessed.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Read side of §7 ownership, ahead of the claim logic.
- project_repo: `ProjectRepository` trait + `PostgresProjectRepository`
(list / get_by_id / get_by_slug). Writes are NOT here — a claim registers
its project via an in-tx upsert (next commit).
- group_repo: `list_with_owner()` LEFT-JOINs projects for each group's owner
slug (backs `pic groups ls`); columns qualified since id/slug/name exist on
both tables.
- ApplyService gains a `projects` handle; constructed in the picloud binary.
- tests/projects_repo: round-trip pinning list_with_owner (claimed→slug,
unclaimed→None) and that ancestors() surfaces owner_project nearest-first —
the fold input the claim path walks.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
First commit of §7 multi-repo ownership. A 'project' is a repo-root that
declaratively manages a slice of the shared group tree; each group node is
owned by exactly one project (single-owner-per-node). This lands the registry
+ shared types and wires the inert 0047 `owner_project` seam — no behavior
change yet (claim logic is the next commit).
- migration 0066: `projects` table (UUID pk, unique slug, name, created_by →
admin_users ON DELETE SET NULL); `groups.owner_project` gains its FK →
projects(id) ON DELETE SET NULL (un-claim, never cascade-destroy a tree) +
an index.
- shared: `ProjectId` (id_type! macro) + `Project` struct; `Group` gains
`owner_project: Option<ProjectId>`.
- group_repo: GROUP_COLS + the ancestors recursive-CTE term now carry
`owner_project`, so `ancestors()` surfaces ownership for the nearest-claimed
fold; GroupRow + From updated.
- schema snapshot re-blessed; /version schema assertion 65 → 66.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
The consumption side of shared durable queues:
- Thread `shared` through BundleTrigger::Queue + QueueTriggerSpec + the
trigger identity; validate_bundle_for requires a shared queue on a group
to name a declared kind='queue' collection (a shared queue on an app is
rejected by the existing app-owner shared guard).
- materialize: a shared queue template materializes a consumer per
descendant (the M5 one-consumer-slot skip is bypassed for shared —
competing consumers are intended; each descendant gets one copy).
- dispatcher: ActiveQueueConsumer gains shared_group (from the materialized
copy's source template via LEFT JOIN); dispatch_one_queue +
handle_queue_failure route claim/ack/nack/terminal to the group store
when shared_group is Some, via q_claim/q_ack/q_nack/q_terminal helpers. A
group claim is normalized to a ClaimedMessage under the consuming app so
the handler path is unchanged; the reclaim task also drains the group
store. Exhausted shared messages are dropped (no group dead-letter store
yet — documented deferral).
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
The runtime for shared topics:
- pubsub_repo: fan_out_publish gains `AND t.shared = FALSE` (a shared
trigger never fires on a per-app publish); new fan_out_shared_publish
matches `shared = true` pubsub triggers on the resolved owning group,
each delivery stamped with the writer app_id (M2 model).
- GroupPubsubService trait (shared) + GroupPubsubServiceImpl: resolve the
owning group (kind='topic') from cx.app_id's chain, require editor+
(GroupPubsubPublish, fails closed for anon), size-cap, fan out.
- SDK: `pubsub::shared_topic("name")` -> GroupTopicHandle with
`.publish(subtopic, msg)` / `.publish(msg)`; wired through Services +
the picloud binary (reuses the one PubsubRepo).
- authz: Capability::GroupPubsubPublish(GroupId), editor+ / script:write.
The owning-group chain walk is the isolation boundary; a sibling-subtree
app never resolves the topic.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
The #[ignore]-gated version_includes_public_base_url pinned schema=42 but
migrations accreted to 63 across the v1.2 template track (…0060–0063), so
it failed under `--include-ignored`. Re-pin to current reality per the
test's own intent.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
materialize::rematerialize_stateful_templates reconciles a group cron/queue
template into one app-owned copy per descendant (materialized_from = template),
via the all-apps app_chain CTE ⋈ group-owned stateful templates. A precise
create/delete diff preserves cron last_fired_at on unchanged copies; a queue
copy is skipped-with-warning when the app already fills that queue's consumer
slot (the one-consumer invariant). Called full-live at the route-rebuild
chokepoints: apply (single + tree), app create/delete (apps_api), group
reparent (groups_api) — AppsState/GroupsState gain a pool. Pinned by
tests/stateful_templates.rs (per-app copy, idempotent, new-app materializes,
reparent de-materializes).
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
group_blobs_api mirrors the per-app kv_api/files_api for groups: GET
/groups/{id}/kv[/{c}/{k}], /docs[/{c}/{id}], /files[/{c}/{id}] — list +
fetch/download a group's §11.6 shared KV/docs/files. Authz GroupKvRead/
GroupDocsRead/GroupFilesRead (viewer tier, reads-open trust model). Read-only
by design (writes stay script-only). The host hoists the three group repos so
the SDK services and this router share one instance.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
ServiceEventEmitter gains emit_shared(cx, owning_group, event) (default no-op);
OutboxEventEmitter implements it — matches shared triggers on the owning group
and writes outbox rows stamped with the WRITER app_id (dispatch runs under the
writer). GroupKv/Docs/FilesServiceImpl gain an events field (Noop default +
with_events builder) and emit on set/create/update/delete; the host wires the
outbox emitter via with_events. Closes the "group trigger has no app to watch"
gap. Authoring + validation land in M2.4.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
The runtime half. Group route TEMPLATES now expand into every descendant
app's in-memory match slice, live, with no per-app materialization.
- `compile_effective_routes` consumes the `list_effective` expansion and
applies NEAREST-OWNER-WINS shadowing: for one app, identical binding
tuples (method+host+path) owned at multiple chain levels collapse to the
nearest (an app's own route shadows an ancestor-group template); a nearer
group beats a farther one. Non-identical bindings coexist and the
existing matcher precedence resolves each request. `compile_route` now
takes the effective app_id, so the matcher + dispatch are unchanged.
- `rebuild_route_table` is the single refresh chokepoint (list_effective →
compile_effective_routes → replace_all). Route CRUD, the apply reconcile,
and startup all route through it; the apply guards drop the "a group node
touches no routes" assumption (a group apply may now create templates).
- FULL-LIVE INVALIDATION: app create/delete (apps_api) and group reparent
(groups_api) rebuild the snapshot, so inherited routes take effect the
instant the tree changes — matching the live model of triggers/vars.
Best-effort, mirroring apply: a failed rebuild self-heals on the next
write or restart, never failing the committed mutation.
The isolation boundary is the chain expansion: a template lands only in the
slices of apps whose ancestor chain contains the owning group. Pinned by a
deterministic live-DB integration test (descendant inherits, sibling
subtree does not, app shadows by identical binding, non-identical coexists).
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
The runtime for shared group collections. A script reaches a shared store via
the explicit kv::shared("name") handle (distinct GroupKvHandle Rhai type, so
private-vs-shared scope is a deliberate choice). The service resolves the
owning group from cx.app_id's ancestor chain — the script never names a group,
and that walk is the isolation boundary (a foreign app's chain never contains
the owning group → CollectionNotShared).
- shared: GroupKvService trait + GroupKvError + NoopGroupKvService; threaded
into the Services bundle as a field defaulted to noop, opted into via a new
with_group_kv() (keeps the ~14 Services::new call sites unchanged).
- manager-core: GroupKvServiceImpl with the reads-open/writes-authed split —
reads use script_gate (anonymous public scripts skip), writes use the new
script_gate_require_principal (anonymous fails closed). Owner resolution
behind a GroupCollectionResolver trait (Postgres impl + injectable fake);
unit tests cover off-chain CollectionNotShared, anonymous-read-OK/
anonymous-write-Forbidden, authed-no-role-Forbidden.
- executor-core: GroupKvHandle + kv::shared constructor + get/set/has/delete/
list (Rhai dispatches by receiver type, reusing the block_on bridge).
- picloud: wire PostgresGroupKvRepo + resolver + GroupKvServiceImpl.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Lift the Phase-4-lite restrictions now that import resolution is lexical:
- `create_group_script` (group_scripts_api): allow `kind = module` and
group scripts with `import`s; record the import edges. Module-shape and
sandbox-ceiling validation stay.
- The declarative apply path already reconciles group modules generically
(`BundleScript.kind` + `owner.script_owner()` flow through
`reconcile_node_tx`); no change needed beyond stale-comment fixes.
Adds the §5.5 dangling-import plan check (single-node plan/apply):
`check_imports_resolve` rejects an `import "<m>"` that resolves to neither a
bundle-local module nor a module reachable lexically up the node's chain —
caught at plan time instead of as a runtime 404. Roots resolution at the
node's owner (an app node reaches ancestor group modules; a group node walks
its own ancestry). ApplyService gains an injected `ModuleSource`. The tree
path opts out (a node may import a module created by another node in the same
uncommitted tx); the runtime check is the backstop there.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Phase 5 C1. Generalize the reconcile engine from app-only to an `ApplyOwner
{ App | Group }`, so a GROUP's own config + scripts can be declaratively
reconciled — the foundation for the tree-spanning project tool.
A group node is a subset of an app node (scripts + vars only; no routes /
triggers / secrets-values), so the diff, script/route/trigger/var CRUD, prune,
idempotency, and the Phase-4 inherited-target resolution are all reused
unchanged. Only the owner-varying bits switch on `ApplyOwner`:
* `load_current` — `list_for_group` + `VarOwner::Group` for a group (empty
routes/triggers/secrets); `list_for_app` for an app, exactly as before.
* script create owner (`NewScript{app_id|group_id}`), var writes (new
`set_group_var_tx`/`delete_group_var_tx` mirroring the app variants at
scope `*`), and the advisory lock (owner-tagged).
* `validate_bundle_for` rejects routes/triggers on a group bundle (422);
route-host validation, inherited-target resolution, the post-commit route
refresh, and the unreachable-endpoint warning are app-only.
`apply`/`plan` are unchanged thin wrappers over the new `apply_owner`/
`plan_owner`. New endpoints `POST /groups/{id}/{plan,apply}` gated by
`GroupScripts{Read,Write}` / `GroupVarsWrite`. `ApplyService` gains a `groups`
repo (the tree apply in C3 needs it too).
Live-validated: group plan → apply (group-owned script + var) → idempotent
re-plan noop → routes rejected 422 → DB confirms group ownership. App apply
unchanged: 391 manager-core unit tests + the apply/prune/staleness/overlay
journeys all green.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Phase 4-lite C2. Lets a group own scripts (templates inherited by descendant
apps), with the create/list/manage surface — but not yet the inherited
resolution (binding + runtime), which is C3.
Capabilities: add `GroupScriptsRead` (viewer+ on the group → script:read) and
`GroupScriptsWrite` (editor+ → script:write), mirroring the group-vars tier and
resolved through the same group-ancestor walk.
API:
* New `group_scripts_api`: `POST/GET /groups/{id}/scripts` — create a
group-owned endpoint script and list a group's own (non-inherited) rows.
Phase 4-lite is endpoint-only and self-contained: `kind=module` and any
`import` are rejected (group modules + the lexical resolver are Phase 4b).
Owner resolved first (slug-or-uuid); capability bound to the resolved id.
* The by-id `/scripts/{id}` get/update/delete/logs handlers are now
owner-polymorphic via a `script_cap` helper: app-owned scripts gate on
`App*` exactly as before; group-owned on `GroupScripts*`. This is what
makes `deploy --group` idempotent (update reuses the by-id PUT) and lets a
group script be deleted by id. (C1 had these fail closed for groups.)
Repo: `list_for_group(group_id)` (the group's own rows).
CLI: `pic scripts ls --group <g>`, `pic scripts deploy --group <g>` (create or
update by name; `--app`/`--group` are mutually exclusive, exactly one
required). `pic scripts delete <id>` already works for group scripts via the
owner-polymorphic by-id route.
Live-validated against the dev DB: create → update (v2 via the by-id PUT) →
list → delete, plus module rejection and the polymorphic row shape
(`app_id NULL`, `group_id` set). Group scripts still can't be routed/triggered
or invoked — that lands in C3.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Extends the Phase-1 apply engine to manage app `vars` declaratively,
alongside scripts/routes/triggers/secrets. The `Bundle` gains a `vars`
map (key → JSON value; values are non-secret, so they live inline, unlike
secret names). `diff_vars` is value-sensitive: a changed value is an
Update, a live var the manifest dropped is a Delete (applied only under
`--prune` — vars are prunable config, unlike never-pruned secrets).
Writes go through `set_app_var_tx`/`delete_app_var_tx` inside the apply
transaction (mirroring `PostgresVarsRepo::set` for `VarOwner::App`, scope
`*`), so they commit atomically with the rest of the apply and roll back
together on failure. `CurrentState` loads the app's OWN scope-`*`,
non-tombstone vars (inherited group vars and tombstones are out of scope
for the manifest); `state_token` folds them in so the bound-plan check
catches an out-of-band `pic vars set` between plan and apply. Keys are
validated against the same kebab rule as the vars admin API, and the
apply handler now requires `AppVarsWrite` when vars are touched or
`--prune` is set.
Scope: app-owned vars at scope `*` (an app *is* an environment). Group
vars via manifest and tombstone-via-manifest wait for the nested-manifest
model. Unit tests cover the create/update/noop/delete diff and the
state-token value sensitivity.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Adds the Phase-3 admin surface on top of the group-secrets storage:
* `secrets_api` gains group routes under `/groups/{id}/secrets`
(set/list/delete, env-scoped) gated `GroupSecretsWrite` (editor+), plus
the ONE plaintext endpoint `GET /groups/{id}/secrets/{name}/value` gated
`GroupSecretsRead` (group_admin only). That is the masked-secret
boundary: a descendant app's dev sees a group secret EXISTS and consumes
it at runtime via `secrets::get`, but only a reader at the OWNING group
gets the value. App secrets stay env-agnostic (a stray `env` is rejected).
The owner is resolved first, then the capability binds to the resolved
id — never a path param.
* `config_api`: `GET /apps/{id}/config/effective` (gated `AppVarsRead`)
returns the resolved view a dev would get — every inherited var with its
value + provenance, and every inherited secret MASKED (name/owner/scope,
never the value). Backed by a new `fetch_effective_secret_meta`
(DISTINCT-ON nearest-wins, same ordering as the per-name resolver).
* authz: `GroupSecretsWrite` moves from `app:admin` to `script:write`
scope so its API-key scope matches its editor role tier (closing the
latent scope/role mismatch the checkpoint review flagged); the value
read `GroupSecretsRead` stays at `app:admin`.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Completes the vars half of Phase 3 end-to-end:
- vars_repo: VarOwner{Group|App} upsert/delete/list (owner-kind-specific
SQL; ON CONFLICT restates the partial-index predicate).
- vars_api: GET/PUT/DELETE under /apps/{id}/vars and /groups/{id}/vars,
resolve-then-require gated on App/GroupVars{Read,Write}, secrets-style
error mapping + key/env-scope validation.
- pic vars ls/set/rm (--group|--app, --env, --json, --tombstone).
- journey test: a group var is inherited by a descendant app's
vars::get(), and an app-level value overrides it (proximity) — green.
386 manager-core lib tests + the vars journey pass; clippy clean.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Scripts can now read group-inherited config via vars::get(key) / vars::all().
- shared: VarsService trait (read-only get/all) + NoopVarsService; added as
the 14th field on the Services bundle.
- manager-core: VarsServiceImpl resolves the calling app's config via
config_resolver (derives app_id from cx.app_id; AppVarsRead-gated for
authed principals, script-as-gate for anon).
- executor-core: vars:: Rhai bridge (get/all), registered in the SDK.
- authz: AppVarsRead/Write, GroupVarsRead/Write, GroupSecretsRead/Write
capabilities (group caps resolve via the Phase-2 ancestor walk; the
GroupSecretsRead human-read gate is group_admin-only, distinct from an
app's runtime injection).
- wired VarsServiceImpl into the picloud binary; updated the executor-core
test Services::new call sites.
386 manager-core lib tests green; clippy clean.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Server-side foundation for Phase-2 groups (no group-owned resources yet):
Shared types:
- GroupId, Group; App gains group_id; AppRole::{precedence,max} for
folding the highest effective role across the membership chain.
Repos:
- group_repo: tree CRUD with reparent (ancestor-walk cycle guard under a
coarse instance-wide structural advisory lock; slug frozen; bumps
structure_version) and delete=RESTRICT (refuses non-empty groups).
- group_members_repo: per-(user, group) role grants, mirroring app_members.
Hierarchy-aware authz (§5.3):
- AuthzRepo gains effective_app_role / effective_group_role (default to
direct membership / none, so the ~18 existing test stubs are untouched);
the Postgres impl resolves each via one depth-bounded recursive CTE that
MAXes the app's own row with every ancestor group_members row.
- can(): the Member path now folds inherited group roles, so a group_admin
on any ancestor is implicitly app_admin beneath it. New Capability
variants InstanceCreateGroup / Group{Read,Write,Admin}; group caps carry
no app_id (bound API keys can't manage groups). 8 new unit tests.
Admin API:
- groups_api: group CRUD + reparent (admin at both source and destination
parent, §5.6) + per-group members, all capability-gated.
- apps: POST /apps takes an optional parent group (default root); app
responses carry group_id; my_role now reflects the effective role.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Add a server-side, atomic, declarative reconcile loop for a single app —
the foundation of the project-tool design. Developers describe an app's
scripts, routes, triggers, and secret-names in `picloud.toml`, then
`pic pull / plan / apply [--prune]` to converge live state to the manifest.
Server (manager-core):
- apply_service: a pure diff engine (compute_diff) shared by plan and
apply, plus an ApplyService that composes the existing per-repo writes
into ONE Postgres transaction. Identity keys mirror the DB UNIQUE
constraints (script=lower(name); route=(method,host_kind,host,
path_kind,path); trigger=per-kind semantic tuple; secret=name).
Apply takes a per-app advisory lock, recomputes the diff in-tx, applies
scripts -> routes -> triggers, prunes dependents-first, commits, then
refreshes the route table once post-commit.
- apply_api: POST /apps/{id}/plan (AppRead) and /apps/{id}/apply.
Apply requires the per-kind write caps the bundle exercises (all three
when --prune), plus AppSecretsRead when it binds an email trigger.
- tx-accepting repo siblings (insert/update/delete *_tx) so the existing
create/update/delete delegate to one SQL definition each.
- email triggers reference an inbound secret by NAME; the value is
resolved, decrypted (AAD-bound), and re-sealed server-side at apply —
it never travels in the manifest.
CLI (picloud-cli):
- manifest.rs (picloud.toml model), client plan/apply, and the pull/plan/
apply commands. pull rejects filesystem-unsafe script names up front.
Safety properties enforced and tested:
- idempotent: a freshly-pulled manifest re-applies as all-NoOp.
- atomic: a mid-bundle failure rolls back with nothing written.
- routes delete-before-insert so a freed binding is reusable in one apply.
- queue one-consumer invariant held inside the shared tx.
- email triggers are never pruned, and a script that still owns an
email/dead-letter trigger can't be pruned (the FK cascade would destroy
the sealed secret) — refused with a pointer to `pic triggers rm`.
- plan and apply agree on unset email-secret references.
No migration: the existing schema's UNIQUE constraints serve as identity
keys. Groups, env-scoping, and the `enabled` toggle are later milestones.
Tested: manager-core lib (360) + CLI bins (27) + 8 project-tool journeys
(pull/plan/apply/prune/email+queue), all green; clippy -D warnings clean.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Closes the gaps and the one security finding from the second end-to-end
CLI test (E2E_STASH_REPORT.md), plus the H1 boot-regression found while
re-reviewing those fixes.
Security
- S6: reserved-path validation (`check_reserved`) now case-folds before
comparing, so `/API/v2/x`, `/HEALTHZ`, `/Admin/x` are rejected like
their lowercase forms. Request-time matching stays case-sensitive.
- S10: "public route != public data" callout in sdk-shape.md (script_gate
skips authz when the principal is anonymous).
Observability / features
- G1: trigger executions now write `execution_logs`. Migration 0043 adds
a `source` column (CHECK mirrors ExecutionSource/OutboxSourceKind,
DEFAULT 'http' backfills history); a shared `build_execution_log` helper
in executor-core; dispatcher logging for outbox triggers + queue
consumers (skips sync-HTTP rows the orchestrator already logs). `pic
logs` gains a source column + `--source` filter.
- G5: dev-only in-memory email capture under PICLOUD_DEV_MODE with no SMTP
(email::send succeeds locally), readable at GET /api/v1/admin/dev/emails
(Owner/Admin only; route mounted only in capture mode).
- G6: generalized the Rhai in-place-mutation footgun note (trim/replace/
make_upper/make_lower/crop/truncate/pad return ()).
- G2/G3/G4 (CLI): `pic members`, `pic files`, `pic queues`, read-only
`pic kv` (+ new kv_api.rs); `pic deploy --timeout/--memory/--kind/
--sandbox`; first-class `pic triggers create-{docs,files,pubsub,queue,
email}` wrappers. All new client path segments percent-encoded via seg().
H1 regression fix (found in re-review)
- The S6 change also runs in `compile_routes`, which compiles every stored
route at boot and on each route CRUD. A single stored route the new
validation rejects (creatable while the S6 gap existed) made the whole
compile Err and aborted startup. `compile_routes` is now lenient: it
skips an un-compilable row with a warning instead of bricking boot
(route creation still validates separately). Migration 0044 sweeps
pre-existing reserved-path routes on upgrade (WHERE mirrors
check_reserved exactly). Added regression tests for both.
Verified: cargo fmt, clippy --all-targets --all-features -D warnings, the
schema_snapshot test, and the new S6/lenient-compile unit tests all pass;
boot-resilience and G1/G5 confirmed live.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
ExecError::Runtime strings (filesystem paths, "blocked by SSRF policy:
link-local" cloud-metadata reconnaissance, pool-exhaustion timing,
panic fragments, and attacker-thrown strings) were returned verbatim in
the public /api/v1/execute + user-route 502 bodies. This handler only
serves anonymous data-plane callers (the authenticated script-test path
is in manager-core and keeps verbose errors), so log the full text
server-side under a correlation id and return a stable generic message
plus the id for operator grep.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
The PrincipalCache (token-hash -> resolved Principal, 60s TTL) had no
eviction hook, so deactivation / password change / API-key revocation
flipped the DB rows but the cache kept serving the stale principal for
up to the TTL window. Closes the audit's PrincipalCache revocation-lag
Medium and greens authz::deactivating_user_revokes_their_api_keys.
- PrincipalCache::evict_user(user_id) + evict_token(hash).
- One shared cache Arc threaded into AuthState / AdminsState /
ApiKeysState (a per-state cache would let the middleware's own copy
keep authenticating a revoked principal).
- Evict on: deactivation, password change (both evict_user), logout
(evict_token, precise), single API-key delete (evict_user).
- H-E1 note: DB-write invalidation stays best-effort by design (a blip
must not undo the rotation); the cache evict is what makes it take
effect on the next request.
- Renamed bearer_and_cookie_produce_same_principal ->
session_token_and_api_key_produce_same_principal (cookie auth was
removed in C-1; the test never tested cookies).
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Postgres-backed integration tests surfaced two assertion fixes while
verifying the audit branch:
* email_inbound::create_without_inbound_secret_is_rejected (added in the
H-B2 commit) asserted 400; TriggersApiError::Invalid maps to 422
(UNPROCESSABLE_ENTITY). Corrected.
* api::version_includes_public_base_url had two rotted assertions —
`schema` pinned at 6 (it's migrations::latest_version(), which had
climbed to 41 and is now 42 after 0042_secrets_envelope_version.sql)
and `sdk` pinned at "1.1" (the crate is at "1.10"). The test is
#[ignore]-gated so the rot went unnoticed in normal runs. Both pinned
to current reality. These were pre-existing failures, not caused by
the security changes.
Verified against a throwaway Postgres: schema_snapshot, api (53),
authz (28 of 29 — see below), dispatcher_e2e, email_inbound, invoke_e2e,
queue_e2e all green.
Known pre-existing failure (NOT fixed here, out of Tier 1+2 scope):
authz::deactivating_user_revokes_their_api_keys fails identically on the
pre-branch merge-base. It's the PrincipalCache revocation-lag Medium the
audit flagged as unfixed (resolve_principal caches by token-hash with no
eviction on deactivation; lag bounded by the 60s TTL). Deferred to a
Tier 3/4 pass.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Two gaps:
1. /api/v1/admin/apps/{id}/triggers/email accepted `inbound_secret: null`
and treated it as "this trigger is unsigned". The runtime then
skipped HMAC verification entirely. URL discovery (logs, ops
dashboards, bruteforce on the 122-bit TriggerId space) then fan-out-
amplified into the outbox for free — anonymous DoS via the
dispatcher.
2. Even signed triggers had no per-trigger rate limit on signature-
verify failures, so an attacker who knew the URL could pump unsigned
POSTs to force Argon2-equivalent work (HMAC verify + nonce-dedup +
stored-secret decrypt) at line rate.
Fix:
* triggers_api::create_email_trigger now requires a non-empty
inbound_secret. 400 on missing / empty / whitespace-only.
* email_inbound_api::receive_inbound_email returns 401 immediately when
the resolved target has no inbound_secret_encrypted column (pre-fix
rows). The previous `if let Some(ct), Some(nonce)` branch is gone.
* New `BadSignatureLimiter`: per-`(app_id, trigger_id)` sliding-window
bucket (10 fails / 60 s). On lockout the receiver returns 429 with
Retry-After instead of 401. record_failure runs on both the
"no-secret" 401 path and any verify_signature failure.
Test fallout:
* email_inbound integration tests that relied on None secret: removed
the now-impossible `unsigned_trigger_accepts_without_signature` test,
replaced with `create_without_inbound_secret_is_rejected` covering
null / "" / " "; updated `malformed_body_is_422` and
`cross_app_path_is_404` to pass + sign with a secret.
* Two new unit tests pin the limiter behavior (burst lockout + per-
trigger independence).
Audit refs: security_audit/08_dos_resource.md#h-3,
security_audit/09_external_integrations.md#f-ext-m-001.
Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com>
The login handler had no admission control before
`spawn_blocking(verify_password)`. On Pi-class hardware Argon2id is ~50-
100 ms per attempt, so a few dozen concurrent anonymous POSTs to
/auth/login park every blocking worker, wedging the entire admin API
and any other path that uses `spawn_blocking`.
Adds two cheap, in-process guards modeled on EmailRateLimiter:
* `LoginRateLimiter` — two sliding-window token buckets, one per
`(remote_ip, username)` (burst 5/60s) and one per `username`
(burst 10/15min). Per-(ip, user) defeats a single attacker pounding
one account; per-user defeats credential-stuffing distributed across
many IPs. Username is case-folded so case variants share a bucket.
Maps GC lazily when they cross a soft size cap.
* Per-process `tokio::sync::Semaphore` — caps concurrent Argon2 verifies
during login. Default 2 permits (Pi-class), overridable via
`PICLOUD_LOGIN_ARGON2_PARALLELISM`. Acquired AFTER the bucket check so
attackers can't queue.
Limit check fires before the DB credentials lookup, so even an unknown
username doesn't cost a query. Denied attempts return 429 + Retry-After.
Real client IP comes from the first X-Forwarded-For entry (Caddy is the
trusted single hop); falls back to "unknown" so the per-user bucket
still gates.
4 unit tests cover bucket burst exhaustion, per-user crossing IPs, case
folding, and per-user independence.
Audit ref: security_audit/08_dos_resource.md (H-2 / H-B1).
Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com>
Closes 4 dashboard hardening findings and 5 of the Lows from the audit.
Dashboard hardening:
- Subtabs no longer re-fetch the app via api.apps.get on every page
load. users/files/dead-letters drop the fetch outright (the variable
was set but never read); queues + queues/[name] now consume the
layout's AppContext via getContext for the page title. The layout's
reloadApp() owns the historical-slug redirect — subtab-local redirect
blocks are removed so there's no race.
- The global :global(details > summary::before) chevron is now scoped
to details.chevron. The script editor's "Advanced sandbox" details
and the inbound-email-shape help-text both opt in; the script
exec-list logs no longer inherit a spurious chevron.
- deriveTab now matches the path segment by anchored ===, so a future
/apps/<slug>/queues-archived route wouldn't activate the queues tab.
Lows cherry-pick:
- ExecError gains Serialize/Deserialize derives + a snake_case tag so
RemoteExecutorClient (cluster mode v1.3+) can round-trip the variant.
- triggers_api rejects queue triggers whose visibility_timeout_secs is
below the dispatcher's per-message executor budget; with no minimum
the reclaim task races the handler and the queue silently
double-delivers. Existing test using 5s updated to 30s.
- New migration 0040: execution_logs.script_id cascade switched from
ON DELETE CASCADE to ON DELETE SET NULL so deleting a script no
longer wipes the forensic history that motivated the delete.
- New migration 0041: dead_letters composite index on
(app_id, created_at DESC) so the "list all" dashboard view stops
falling back to seqscan + sort when unresolved=false.
- Schema snapshot re-blessed.
Deferred to v1.2: the ExecRequest principal serde(skip) marker
(documented in-place; the cluster-mode PR will introduce the wire-safe
snapshot at that point) and the `pic --help` mention of
`picloud admin reset-password` (one-line follow-up).
Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com>
Closes the queue DL fan-out gap (audit Medium) and surfaces the
KV/docs/files non-transactional emit gap to operators.
- handle_queue_failure previously called queue.dead_letter to write the
DL row but never invoked fan_out_dead_letter. The comment claimed
"the outbox arm fires registered dead_letter handlers off the new row"
— but queue DL rows are written via a separate path that bypasses the
outbox entirely, so handlers filtered on source="queue" sat idle
forever. Refactor fan_out_dead_letter to take a DeadLetterFanOutCtx
struct so both the outbox arm and the queue arm can call it; the
queue arm constructs a TriggerEvent::Queue from the claimed message
and passes it through.
- New integration test queue_dead_letter_fans_out_to_dead_letter_handler
registers a dead_letter trigger filtered on "queue", forces queue
exhaustion, asserts the handler fires with the correctly-shaped event.
- KV/docs/files services committed the data write then ran events.emit
as a separate operation, logging-and-swallowing on failure. Bump the
six call sites from tracing::warn to tracing::error with an
event_emit_failure=true marker so operators can grep them. The full
single-tx repo refactor (extending ServiceEventEmitter with
emit_in_tx + tx-aware *_repo methods) is documented in kv_service.rs
as a v1.2 follow-up — it's a meaningful redesign that deserves its
own pass (pubsub_service::fan_out_publish is the reference shape).
Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com>
Closes 4 High-severity audit findings:
- describe_event broken for HTTP-async payloads: was reading source/op
JSON fields that HttpDispatchPayload doesn't carry, producing empty
source on DL rows. from_wire("") then fell back to Kv on replay, the
dispatcher tried to resolve a non-existent trigger, and replay no-op'd
silently. Now branches on OutboxSourceKind: HTTP rows emit
"<method> <path>" + source="http"; Invoke rows emit "invoke_async" +
source="invoke"; TriggerEvent payloads keep top-level field extraction.
- HTTP outbound Authorization leaked across cross-origin redirects.
Manual redirect loop (Policy::none) reused header_map on every hop
and only scrubbed Content-Type for POST->GET. Now compares
url::Url::origin() across hops and strips Authorization,
Proxy-Authorization, Cookie when origin changes — matching reqwest's
default policy.
- F-S-010 inbound email HMAC had no replay protection. Signature was
computed over body only with no timestamp or nonce, so captured POSTs
were replayable indefinitely. Adds X-Picloud-Timestamp header bound
into the HMAC input (signed string is ts || "." || body), 300s
tolerance window, and a process-local LRU keyed on
(ts, sha256(body)) with 600s TTL to catch within-window replays.
Breaking change: webhook senders must include the timestamp header.
- expected_schema.txt re-blessed for migrations 0036-0039 (the previous
snapshot stopped at 0035 so CI would have gone red on first run).
Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com>
cargo fmt regroups; three clippy fixes:
- F-S-006: hoist MAX_API_KEY_CANDIDATES to module scope to satisfy
clippy::items_after_statements.
- F-S-009: use map_or instead of map().unwrap_or() per
clippy::map_unwrap_or.
- F-P-012: replace `|c| c.encode()` closure with the method itself
per clippy::redundant_closure_for_method_calls.
No behavior change.
Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com>
invoke_service::resolve and enqueue_async performed no authz check —
no AppInvoke capability existed. Same-app isolation was preserved
(cross-app guards work), but within one app an anonymous public-HTTP
script could trigger any other script (e.g. an admin-only worker that
hits secrets/files/external HTTP). Worse: invoke_async runs the
callee with principal: None, so the callee could hold capabilities
the original public caller shouldn't.
- Add Capability::AppInvoke(AppId). app_id() / scope_for_capability
(script:write) / role_satisfies (editor+) are all updated.
- InvokeServiceImpl gains an optional `authz: Option<Arc<dyn AuthzRepo>>`
+ a `with_authz` builder. When set, resolve() runs script_gate on
AppInvoke before doing the cross-app id check.
- picloud/src/lib.rs wires it: `InvokeServiceImpl::new(...).with_authz(...)`.
- Anonymous callers (cx.principal == None) continue to skip the check
via script_gate, preserving the public-HTTP convention.
Existing 5 invoke_service unit tests still pass (the tests use the
authz-less constructor, so the gate is a no-op there).
AUDIT.md anchor: F-S-012.
Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com>
