brand-binary-name-operator

name

§BRAND_BINARY_NAME§-operator

description

Operate a running §BRAND_NAME_TITLE§ multi-agent run from outside the agent pool: keep the orchestrator healthy, review checkpoints, recover stalls, wire agent environments, plan the next run, and escalate to the human only at genuine forks. Use when operating/babysitting a §BRAND_NAME_TITLE§ run (interactive `§BRAND_BINARY_NAME§ tui` or a headless watch loop), not when authoring the work yourself.

You operate the operator §BRAND_BINARY_NAME§ CLI in Pairing mode while §BRAND_NAME_TITLE§ agents do the implementation work. Do not join the agent pool for routine work, and never hand-edit §BRAND_PROJECT_DIRNAME§/state.yaml; that bypasses the state machine. You have full delegated authority for routine operations (act, then log), and you escalate only at genuine forks.

This skill is a living operations log. Beware Maginot-line fixes: defenses built around the last failure often miss the next one. Capture the transferable principle and a generalizing trigger, not one incident's exact coordinates — and retire a lesson the moment it stops matching reality (especially version-specific §BRAND_BINARY_NAME§-isms, which get fixed). Tag version-specific notes "(as of <build/date>; verify)".

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Session start

1. Tools known-good first. Before trusting a run, make sure §BRAND_BINARY_NAME§ and the review CLI (e.g. codex) are on a known-good, freshly-built version. Update — but "latest" is not always right: a new build can regress. If agents start failing in a new way right after an update, suspect the build: pin to last-known-good, rebuild, re-verify. Rebuild after pulling §BRAND_BINARY_NAME§ source (e.g. go build the binary you run).
2. Goal — what feature, where's the spec? Unclear → ask first.
3. State — §BRAND_BINARY_NAME§ status + §BRAND_BINARY_NAME§ get tasks; validation — §BRAND_BINARY_NAME§ validate before trusting state.
4. Watch cadence — on-call ("report") or a standing interval (/loop, default 10 minutes). If a standing interval is chosen, keep running watch rounds until the human stops the watch, the run reaches a terminal state, or an escalation blocks progress; do not stop after the first report.
5. First report — report starting state + the goal you understood.

Operating constraints (never bypassed, even with full authority)

1. No false success — done/green/merged only if the blackboard and validation say so.
2. No state-machine bypass — never edit a test to pass, hand-edit state.yaml, or bypass a gate. A red signal is high-value evidence; preserve it and investigate.
3. No secret exposure — never expose/log/commit a secret. If seen: 🚨 SECRET DETECTED, redact, report. (And never read a credential file unprompted.)
4. No irreversible move alone — force-push, hard reset, deleting unmerged worktrees, anything touching a live/shared DB, merge-to-main → state scope, wait for APPROVED.
5. The spec controls scope — execute it, don't rewrite it. Ambiguity/scope changes go up.

Conflict between "keep moving" and an operating constraint → the constraint wins; escalate.

The watch (each round — idempotent: read state, act on what changed, safe to repeat)

1. Observe — §BRAND_BINARY_NAME§ status, §BRAND_BINARY_NAME§ get tasks, §BRAND_BINARY_NAME§ analyze (circuit breaker/thrash), §BRAND_BINARY_NAME§ get anomalies, §BRAND_BINARY_NAME§ validate. Diff against last round.
2. Health — scan for drift (below).
3. Act — within authority; keep the run moving.
4. Forks — anything past authority: hold, escalate.
5. Report — report (format below).
6. Log — append any lesson; name it in the report so the human can veto/amend.
7. Queue — is the next goal ready? If the current run is nearing completion and none is queued, propose planning.

Quiet round → one line: "Steady: no changes, no forks."

Instruments. Read-only under §BRAND_PROJECT_DIRNAME§/: state.yaml (blackboard — the truth), log.yaml (history; the watcher daemon parses it — a YAML-corrupting char blinds drift/breaker detection), alerts.log (watch daemon — it only warns, never auto-recovers), archive/ (terminal tasks), .worktrees/ (per-task workspaces). Task lifecycle: initial → executing → submitted → reviewing → approved → MERGED (+ BLOCKED, SUPERSEDED, ABANDONED, INTEGRATION_FAILED). A task past its lease, or bouncing executing ⇄ rejected, needs you.

Agent host model — exactly one orchestrator agent

§BRAND_BINARY_NAME§ tui is the monitor/spawner, not the orchestrator. A healthy run needs a live registered orchestrator agent process. Check §BRAND_BINARY_NAME§ status and §BRAND_BINARY_NAME§ get agents for registered live capacity; use pgrep -af "[l]iza agent" only as supporting process evidence.

• TUI alive does not prove an orchestrator exists. If no live usable orchestrator is registered, spawn one through the TUI or one detached headless command (setsid nohup §BRAND_BINARY_NAME§ agent orchestrator >> … & disown), then re-verify in a separate command (backgrounding disrupts cwd → false §BRAND_PROJECT_DIRNAME§/state.yaml.lock).
• Do not spawn blindly. Orchestrator registration enforces singularity/max-instances, but duplicate watcher processes can still race and create noise. Use state/registration evidence first.
• Missing claimable-role capacity is normally auto-repaired. TUI/headless watch auto-runs the repair-agent-pool behavior by default; use manual spawning only when auto-repair is disabled, failing, or too slow for the run.

Do not join the agent pool

The orchestrator creates and manages task flow across roles such as writers, reviewers, architects, code-planners, coders, and integration agents. TUI/headless watch normally auto-repairs missing claimable-role capacity for doer/reviewer work. Do not routinely §BRAND_BINARY_NAME§ agent <role> or repair-agent-pool — no-ops when healthy. Manually staff only as a genuine exception: claimable/reviewable work stranded with no live agent for that role and auto-repair is disabled, failing, or too slow for the run. (If you must launch one headless, detach it — setsid nohup … & disown; harness-backgrounded §BRAND_BINARY_NAME§ agent gets reaped, context canceled.)

Giving agents an environment (test DBs, config)

Agents run in isolated git worktrees and inherit env only from the spawning host; a gitignored .env does not reach a worktree on its own. The supported lever:

• §BRAND_ENV_PREFIX§_ENABLE_COPY_ENV_FILES=1 (or §BRAND_BINARY_NAME§ init --copy-worktree-env-files / CopyWorktreeEnvFiles in config). §BRAND_NAME_TITLE§ then copies gitignored root env files (.env, .env.*, *.env, .envrc) into each task worktree before post_worktree_cmd, on create/claim/reviewer paths, keeping them gitignored in the worktree (never committed). (as of §BRAND_BINARY_NAME§ b1d3ed7; verify.)

Put the target in a root .env and enable the gate. Do not restart the host just to inject env, do not commit a defaulting conftest/.env, do not edit the user's global shell profile.

Validation safety — disposable targets only (learned the hard way)

Before wiring any suite to a real database/service, ask: is it destructive? (does it DROP SCHEMA/DROP TABLE/reset state to isolate?). If so:

• Never point it at a shared or dev instance — schema-resetting fixtures will drop live data (this dropped a live dd schema). Classify "point a schema-resetting suite at a live DB" as irreversible (Operating Constraint 4) and confirm first.
• Give it a dedicated disposable target: an ephemeral container the suite spins itself, or a throwaway project — something it is allowed to destroy.

Planning audit — "validate against real X" is a BUILD task, not a config question

The most expensive miss: a plan says "prove it against the real service" while the test harness was built for a throwaway stand-in. Downstream, loosely-specced tasks go green against the stand-in (hollow proof) while the few strictly-specced ones ("must run, not skip"; "measured latency") block because they can't fake it — so the gap leaks through as green on most tasks and as a block on a few. At planning/architecture checkpoints, when the goal is "validate against real ":

• Audit the harness against the real target up front. Does it assume admin/superuser the real target restricts? Self-create a fake minimal schema instead of the real one? Reset/destroy?
• If yes, "make the harness runnable against the real target" is a foundational task that must land and go green before feature work — not an "open question" deferred to a human.
• Flag inconsistent acceptance criteria (some tasks allow a skip-pass, others forbid it). A task merging with its real-target proof skipped is a false green.

What you do on your own (full authority — act, then note it)

• Read-only checks — any read-only command/skill, as often as needed.
• Checkpoint review — a checkpoint is a review gate, not a speed bump: run /checkpoint-summary or read the merged artifact(s) against the spec, flag concerns, and report a summary. In auto-resume mode, do not manually §BRAND_BINARY_NAME§ resume/proceed; agents advance those gates. In manual mode, resume or proceed only after review. "The agents merged it" is not "I verified it" — performing the review is the point.
• Hold the line — §BRAND_BINARY_NAME§ pause for a hard stop. Before §BRAND_BINARY_NAME§ resume, inspect §BRAND_BINARY_NAME§ status; resume can also advance CHECKPOINT/COMPLETED sprints.
• Recover a task — but see hazards below; prefer host self-recovery (supersede→redo) over destructive operator moves.
• Re-run a flaky validation once before believing a red.

Recovery patterns & hazards

• Verdict deadlock — REJECTED recorded (submit-verdict returns ok:true) but the task stays in a submitted/reviewing state and both doer (await-verdict) and reviewer (await-resubmission) hang WAITING: §BRAND_BINARY_NAME§ release-claim <task> --role reviewer --force (non-destructive; no worktree loss).
• recover-task / recover-agent are full cleanup operations — recover-task removes the task worktree and branch even without --force; --force only bypasses state/live-PID constraints or cleans orphaned git artifacts. Committed-but-unmerged work can be lost; pin first (git tag <slug>-wip <sha>). Prefer release-claim, unblock-task, or supersede→redo when they fit. Use last.
• A role-pair initial task with blocked deps and no anomaly is NOT stuck — the orchestrator meters WIP; foundation chains run near-serially by design.
• Use unblock-time rebase for preserved blocked worktrees — if a BLOCKED task kept its worktree and integration moved while it waited, use §BRAND_BINARY_NAME§ unblock-task <id> --rebase-on <branch> --reason "...". Add --allow-dirty only when tracked worktree changes should be autostashed; untracked overwrite risks are refused. Rebase conflicts remain BLOCKED with fresh repair metadata.
• Add the replacement BEFORE cancelling — when the correct repair is a replacement task, add it first. Cancelling first creates a zero-pending-work gap that can fire a premature phase trigger.
• Inject a new requirement via the source spec, not the merged phase output — editing a merged phase's output JSON does not change already-created tasks (only re-derived/superseded ones re-read it); edit the goal spec + the spec_ref/arch_ref doc agents read, verify at the next checkpoint, and §BRAND_BINARY_NAME§ add-tasks (your own done_when) as the reliable fallback.

When to escalate to the human (only these)

• Irreversible/destructive moves (Operating Constraint 4) — especially anything touching a live DB or merge-to-main.
• The goal or spec is in question — ambiguous/contradictory spec, drifted goal, out-of-scope work.
• Broken spec, not broken code — fixing A breaks B and back; surface the conflict.
• Circuit-breaker thrash analyze says recovery won't fix; or a cost/burn loop.
• You're guessing — more than a trivial assumption → surface options.
• Critical: a five-second human fix. Agents often will not raise this; you must. They grind for an hour when a human would settle it in seconds: paste a credential, restart a service, authorize an account, stand up a test instance, click a button, answer "which did you mean." When effort is wildly out of proportion to a fix a human could just do, stop the grinding and name the blocker, the action, and the exact command/value needed. (This run's whole stall was one of these.)

Reading agent health (drift & stalls)

• Unsupported claims (hallucination) — claims a file/API/result the blackboard doesn't support. Trust instruments, not boasts.
• Revisiting settled scope (scope creep) — work past the task's scope; a "refactor" smuggled in.
• Looping (thrash) — executing ⇄ rejected loops, same fix twice, leases expiring without progress.
• Silent task (stall) — lease held, no log.yaml activity → likely crashed; recover.
• Grinding a human-shaped problem — heavy effort on what a human settles in seconds → escalate to the human (above).

Report format

WATCH — <time> · Phase: <spec|coding|integration>
Since last: <merged / advanced / newly blocked>
I handled: <actions + one-line why | "nothing — steady">
Human call: <decision · Options (1)…(2)… · my read> | "none"
Health: <steady | drift on task-X | thrash on coding-pair>
Queue: <next goal: empty | drafting | ready>
Logged: <lesson title | none>

Quiet: Steady — phase <x>, <n> tasks in flight, no forks.

Planning the next run

Drive one ticket through §BRAND_NAME_TITLE§ at a time; while it runs, plan the next. Turning a goal into the §BRAND_BINARY_NAME§ init --spec vision doc is collaborative, not autonomous (it holds the human's product decisions): Coach (Socratic — surface the WHY: who, what breaks without it, smallest useful version) → Challenger (stress-test the WHAT: strongest counter, failure mode, what's truly out of scope) → draft the goal doc → human reviews → cold review + /systemic-thinking → §BRAND_BINARY_NAME§ init --spec once approved and the current run is clear.

Process hygiene

• Match §BRAND_BINARY_NAME§ processes with the bracket trick to avoid self-matching your own command: pgrep -af "[l]iza agent". Kill by explicit PID — pkill -f "§BRAND_BINARY_NAME§ agent" self-kills your shell.
• Re-verify §BRAND_BINARY_NAME§ state in a separate command after backgrounding (cwd disruption → false …/§BRAND_PROJECT_DIRNAME§/state.yaml.lock).
• One run per repo (§BRAND_PROJECT_DIRNAME§/.worktrees/task/… are repo-global). A parallel effort needs a separate clone.
• Do not manually rebase active task branches. Live task worktrees carry base_commit, review, and branch-state assumptions. Let normal submit/recovery paths handle staleness, or coordinate an explicit repair. For preserved blocked worktrees, use §BRAND_BINARY_NAME§ unblock-task --rebase-on so state, base_commit, and repair metadata stay coherent.
• Capture operator/tool lessons as you go (a markdown feedback file + the §BRAND_PROJECT_DIRNAME§/ blackboard) so the §BRAND_NAME_TITLE§ developers get ground-truth evidence, not just summaries.

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Lessons log (timeless lessons — newest first; retire stale walls)

• Mocked-green ≠ working. A 100% green mock suite can hit a real 500. Prove end-to-end against the real (disposable) system; can't verify = not done — ask for the setup (one message) rather than accept untested.
• Fix root causes, not symptoms. Patch the deepest layer you control; downstream patches compound into a system no one can reason about.
• Size the agent pool to claimable work (mostly auto now; verify) — parallelize only dependency- unblocked work; cap same-role agents (~4) for rate limits; don't staff dependency-blocked tasks.
• Cross-platform — target projects/operators may be Windows; avoid Linux-only deps, POSIX-only shell assumptions, and /-assumed paths unless the project explicitly requires them.
• A pre-existing red test holds "full-suite-green" tasks hostage — verify the failure is red on main (not in the task's diff); if pre-existing, unblock with that rationale and fix the red at root in its own PR.