FleetHealthMonitor now requires a failTarget BiConsumer<String,String>
collaborator (no defaulting overload) and calls it exactly once when a
member transitions into GONE or NEVER_READY, via CB-568's idempotent
target-wide abandon() operation. The reason string names the real
terminal state. failTarget invocation retries up to
MAX_FAIL_TARGET_ATTEMPTS (3) within the same transition if it throws,
and never refires on a later tick where the state is unchanged.
Bridged.java wires messages::abandon as the production failTarget.
asyncTasksByWaiter correlates an async question by the exact rendezvous
waiter, so the target-keyed set it replaced can no longer decide
anything. Keeping it meant two indexes of the same fact, one of them
ambiguous whenever a target has two accepted tickets.
The race the old test modelled by reflection is gone with it: identity
keys make 'some other task reached this target' unrepresentable, so
there is no longer a wrong task for the question to land on.
Also carries the criterion-1 doc correction, which is identical to
aac29d6 on a different parent.
An opt-in whole-fleet observer, separate from the 250ms delivery poller.
One AgentControl.list and one roster snapshot per tick, joined and fed to
the FleetHealth classifier, because a fault is a disagreement between the
two views at the same instant. Absent a health: block nothing is built
and no herdr call is made.
Adds bridge_list healthCoverage: off, detection-only, or full. Detection
is deliberately separate from notification, so a single-lead setup with
no webhook still gets detection and is told its coverage is partial
rather than being refused.
Two review fixes worth naming. tick() rescheduled itself as its last
statement with no try/catch, and a ScheduledExecutorService does not
re-run a task that threw — so the first agents.list failure would have
stopped health permanently and silently, which is exactly when the
control link is down. It now catches Throwable and reschedules in a
finally. And the snapshot fields this unit cannot supply are the named
constant NOT_YET_OBSERVED rather than bare false literals, because false
means no fault to this classifier.
Injector.drop knew the precise cause (herdr agent_not_found) but the
sender was told only 'worker unreachable or stuck', so a lead could not
tell a dead pane from a stalled model.
TurnListener.onTurnFailed gains a reason, defaulting to the old one-arg
form. CompletionResolver prefers that reason, then the pane scrape, then
the old fixed text.
drop now fires onTurnFailed unconditionally. That is the substantive
fix: the sender blocks on the rendezvous waiter, not on the delivered
future, so failing delivered() alone never woke it and a queued send sat
until its timeout.
A worker on a wait:false delegation called bridge_ask and the lead never
saw the question. Outcome.QUESTION is deliberately non-terminal, but
taskView tested r.completed() and fell into the failure branch, so the
ticket was marked FAILED and both the question text and its turnId were
discarded. The worker blocked for 55s, gave up, and had to abandon its
task. CLAUDE.md tells leads to prefer wait:false and to answer an ask with
bridge_send{turnId, content}; those two could not both be followed.
bridge_poll now returns a non-terminal ASKING phase carrying the question
and its turnId, and the ticket stays live so the worker's real reply still
lands on it. An unanswered ask returns the ticket to PENDING, because only
the question wait ended - the delegated turn continues. The 55s/115s ask
caps are unchanged: they exist because the worker's own MCP call would time
out, so widening them would only move the failure.
Two defects found reviewing the first revision, both from replacing
supplyAsync with a manually completed future:
- an exception inside the send left the future uncompleted, so the ticket
stayed PENDING for the life of the daemon. Now caught and completed
exceptionally.
- correlation was keyed by target, one entry per worker, registered before
the session lock. With two tickets outstanding on one target the second
overwrote the first, so a late reply could resolve the wrong ticket.
Correlation is now per turn, the target entry exists only while that send
owns the lock, and a reply with no live waiter still goes to the durable
inbox as before.
One file, member-charter.md, not two. Two files would have made the U5
digest non-comparable between the Claude adapter and this one, which is
the whole point of the receipt; and nobody verified how OpenCode merges
multiple instruction files, so array order was an unverified dependency.
The OPENCODE_CONFIG condition widens to include a charter. It used to be
hasMcp() || hasCustomProvider(cfg), so a profile with a role charter but
no MCP and no custom provider would have got no config file and therefore
no charter — the feature silently doing nothing for that profile.
The file stays in the per-spawn temp dir, never the worktree: the
worktree is removed on release, the parity overlay already writes into
it, and CB-525's lesson was that config the bridge copied into a worktree
made a worker operate on the wrong tree. Being outside the repo is also
what stops it being committed, which a .gitignore line does not.
Reviewing the merge I read the five-arg constructor as dead code and
removed it. That was wrong: the tests call it as BridgedConfig.Fleet,
which my grep for 'new Fleet(' did not match, and the build failed on
eight call sites. It is restored with a javadoc that says why keeping it
is safe here even though an overload that drops a new field is normally
the shape to avoid — nothing reads a charter through a constructor, and
Jackson binds the canonical one, so it cannot swallow an operator's YAML.
Also drop a redundant java.util.Arrays qualifier (the class is already
imported) and rewrap a javadoc line the change had left over-long.
The bridge cannot classify what it never emits. Fleet-health monitoring —
detect a wedged member, decide, escalate — is blocked on that, so this is the
foundation rather than the feature.
A survey of Injector, CompletionResolver, StatusPoller, SessionManager,
SessionReaper and MessageService found six conditions that ended a member's
usefulness while saying nothing useful:
* Injector.drop() — worker gone, queue cleared: SILENT
* CompletionResolver.fail() — "via turn-stall fallback" at DEBUG, no reason
* SessionManager.onFailed() — "session marked failed" at DEBUG, no stage
* SessionManager.reapIdle() — indistinguishable from any other release
* SessionManager.acquire() — spawn failure rethrown with no log at all
* MessageService.abandon() — failed a caller's request at DEBUG
The first two are the exact phrases that misled the CB-560 diagnosis: both name
a symptom and neither names a cause. They are now WARN and carry the reason,
the stage, and the counts.
Conditions already loud were left alone, and so were two by-design timeouts in
MessageService — an async model exists precisely for those, and promoting them
would turn healthy operation into noise.
Behaviour is unchanged: every edit is a log statement.
Merge note: the recycle test deleted by CB-565 conflicted with a test added
here. Resolved by keeping the new onTurnFailed assertion and dropping the
recycle test, which tests a method that no longer exists.
Injector.drop, CompletionResolver.fail, SessionManager.onFailed/reapIdle/
acquire spawn failures, and MessageService.abandon used to fail a member
or a caller's request with no log, a bare DEBUG, or a log that named only
the symptom ("session marked failed", "failed send via turn-stall
fallback"). Each now logs at WARN and names the real cause and the
numbers involved. Observability only — no behaviour changed.
When the injector's readiness grace expired it cleared the queue and logged
nothing. The failure then surfaced elsewhere as a turn-stall, which names the
wrong cause. Diagnosing CB-560 cost two live spawns and a wrong first
hypothesis for exactly this reason: the logs said "session marked failed" and
"failed send via turn-stall fallback", and neither says the message was never
typed into the pane at all.
The expiry now logs the target, the number of messages being failed, the grace
in polls and seconds, and the real cause in plain words.
The grace in seconds is derived, not written down twice: Bridged's own
INJECT_POLL_MILLIS is deleted and Injector.POLL_INTERVAL_MILLIS is the single
source, passed to every StatusPoller. A cadence change can no longer leave a
log line confidently stating the wrong duration.
Behaviour is unchanged. This is the first structured health event in the
daemon, and the foundation the fleet-health work will build on.
CallerResolver had 5 public constructors and 4 public factories, and only one
of them could ever produce an architect. The rest defaulted memberSlotRoles to
`_ -> null`, so every architect quietly fell through to Principal.worker().
Nothing logged, nothing threw — the role was simply off.
That is the same failure shape as CB-560, so the fix is structural rather than
a warning: withLeadsAndMembers(.., MemberRegistry) is now the only public
construction path. Two overloads with no caller at all are deleted; the rest
are package-private and marked test-only. No path remains that accepts
architect bindings without a slot-role lookup, so no runtime WARN is needed.
Also checked and closed: the suspected slot leak on shutdown drain is not
real. SessionManager.release calls memberLifecycle.released() for every
removed session, and drainAll routes every session through release,
SPAWNING included. Verified in code.
The repo carried a gitignored .secrets/ directory with four files. Two of them
(context7-token, gitea-token) were byte-identical copies of variables the login
shell already exported. One (gitea-host) is not a secret. The fourth
(worker-gitea-token) was the only copy anywhere, and nothing exported it, so
bridged read gitTokenEnv from an environment that never had it and every worker
push got an empty token.
All four values now live in the operator's single sourced secrets file, verified by
sha256 before the copies were removed. opencode.json reads them as {env:...}, which
.mcp.json already did. A second copy of a secret is the problem: the copy you forget
is the one that leaks or goes stale.
This makes worktree isolation load-bearing rather than a workaround. opencode.json is
tracked, so it lands in every worktree. It used to fail there, because {file:.secrets/}
pointed at files a worktree never receives and OpenCode refuses to start on a dangling
reference. With {env:...} the reference resolves, and a member would silently inherit
the primary's admin-scoped GITEA_ACCESS_TOKEN. GitWorktrees already neutralizes the
file; only its stated reason changes, and it is now a confidentiality boundary.
The port-to-opencode skill taught {file:.secrets/} as the preferred pattern, so it is
rewritten to teach the central store and to say why we moved. .gitignore keeps the
.secrets/ line as a backstop against habit.
Includes the wiki pointer, which also carries the CB-559 config-reload correction.
The shipped docs and javadoc said a profile's `model` and `tabLabel` take effect on
the next spawn. They do not, and ConfigRef did not detect the change either, so a
reload logged a clean "config reloaded" and silently did nothing. That is the worst
outcome a reload can produce: the operator has no reason to doubt it.
What makes a key hot is who reads it and when, not that it is config. Placement
reads weight and maxLoad through a supplier on CompositePeerLauncher, so those are
genuinely hot. HerdrPeerLauncher takes Map.copyOf(profiles) at construction and
resolves every spawn out of that copy, so model, baseUrl, argv, env and the rest
cannot move until the daemon restarts.
changedDeferredKeys now compares every launch component of an existing profile,
excluding weight and maxLoad, and names the profiles that need a restart. The
javadoc and bridged.example.yaml say the same thing. Two tests pin the pair:
weight/maxLoad reports nothing deferred, a changed model reports the profile by name.
Tuning a fleet meant restarting bridged, and a restart tears down every lead
and worker it owns. Changing one pool's weight cost the whole fleet's state,
so in practice nobody changed it.
ConfigRef holds the live BridgedConfig in an AtomicReference. Consumers read
it at the point of use, so a change reaches the next spawn with nothing
rebuilt. The launchers that used to capture config into fields now take
suppliers: the fleet tabLabel template, the profile map, the placement policy
and the fleet block.
Keys fall into three classes, and the difference is what already exists when
the reload happens:
hot fleet: (pools + tabLabel), placement:, and an existing profile's
weight / maxLoad / model / tabLabel — live on the next spawn.
deferred lifecycle:, leadHeartbeat:, guard:, worktreeRoot:, spawnReady*,
and adding/removing a profile — accepted, but the startup wiring
keeps the old value. The reload logs these by name.
cold bind:, herdrSocket:, broker:, auth: — refuses the WHOLE reload.
A cold change refuses everything rather than applying the hot half. A
half-applied reload leaves the daemon matching no file on disk, which is the
worst thing a reload can do to an operator reading that file to work out what
the daemon is doing. Refusing keeps the invariant that the live config is
always some version of the file.
A parse failure or a failed startup validator is refused the same way, and
the running config stays live: a file being saved is sometimes read
mid-write, and degrading a working daemon over a half-written file is a bad
trade. The same four validators startup runs are re-run, so a config that
could not have booted cannot slip in through a reload.
ConfigWatcher polls the modified time on a daemon thread, opt-in through
configReload.enabled (default off, so an upgraded daemon is unchanged). It
stamps the timestamp BEFORE reloading, so a refused file is not retried every
tick — the next save earns a fresh attempt. A missing file is skipped
silently, because editors unlink briefly mid-save.
MicroProfile Config was the first idea and does not fit: @ConfigMapping needs
interfaces, resolves once at bootstrap, and reload would still mean rebuild
and swap. The port would also lose the raw-YAML duplicate-key detection,
since duplicates have already collapsed once the tree is flattened to
properties.
634 tests.
`fleet.leaders.<name>.instances` was descriptive. Now the daemon reads it: a
lead that names a `profile:` is started when fewer than `instances` are running.
A lead with only a `terminal:` stays recognise-only, as before.
A lead is not a member, and LeadLauncher exists to keep it that way. Every other
spawn path goes through HerdrPeerLauncher, which does three things a lead must
never get: it appends the worker reply charter ("you are an off-subscription
worker … end every turn with bridge_reply" — the opposite of an orchestrator);
it registers the session with SessionManager, whose idle reaper would kill a
lead for being idle, which is a lead's normal state; and it can move a peer off
the subscription. So this launcher talks to AgentControl/WorkspaceControl
directly. The duplicated argv/env assembly is the cheaper half of that trade.
Not double-spawning is the safety property, so liveness needs two pieces of
evidence. A running agent in a tab labelled `lead: <name>` finds an
auto-launched lead. A running agent on a pinned `terminal:` finds one the
operator opened by hand — without it, a pinned lead whose tab carries no
matching label would be relaunched on every boot. Member workspaces are
excluded, so a member in a matching tab is never counted. If herdr cannot be
reached, nothing is started: a second orchestrator is worse than none.
Liveness deliberately requires the AGENT, not just the label. LeadTabScanner
used to promise that bridged never writes a lead label, so there was no
round-trip from the daemon's own rename back into its next decision. That is no
longer true, and its javadoc now says so. The trust direction is unaffected — a
label is a name, not a capability — but staleness becomes real: a label left by
a crashed session would otherwise read as a live lead forever and disable
auto-launch permanently.
Two new knobs. `workspace:` (default "leads") is where a launched lead's tab
goes; it must not be a member workspace, because those are excluded from the
scan and a lead placed in one would never be found again. `cwd:` defaults to
bridged's own working directory.
Also: WorkspaceControl.listTabs, and a FakeHerdr tab seeder that leaves the
canned response byte-identical when no tab is seeded.
617 tests pass (16 new), IDE-clean.
The pools were config-only until now: the launchers still received one global
effectiveDefaultProfile and placement still ranged over every configured
profile, so a reviewer could be placed on an architect-only backend.
Three parts:
SessionManager computed the role, stored it on the MemberSession, and never put
it on the SpawnRequest. So the role reached the record that describes the spawn
but not the call that performs it — every launcher saw DEV. Both spawn paths
(plain and worktree) now carry it.
CompositePeerLauncher takes the Fleet and draws its candidates from
fleet.<role> instead of from all profiles. An absent or empty pool means
unconstrained, not blocked: a config that declares pools for some roles must
keep spawning the rest, so it falls back to every profile. A null Fleet is the
pre-CB-557 wiring and behaves exactly as before.
Bridged passes cfg.fleet() to the composite and cfg.fleet().tabLabel() to both
launchers. The tab-label knob was accepted by HerdrPeerLauncher but passed by
nobody, so it was inert — the label only looked right because the fallback
happened to match the configured template. Four tests now pin the wiring
instead of the coincidence.
An EXPLICIT profile stays exempt from the pool. `bridge_spawn{profile:"opus"}`
carries no role, so it defaults to DEV; judging it against the dev pool would
refuse a spawn the operator asked for by name. maxLoad still applies to it.
Also cleared the IDE warnings in the touched files: an immediately-rethrown
catch (the comment stays, the redundant block goes), unused lambda params, a
javadoc link to a package-private class, two unused imports.
601 tests pass.
Dai Ha