Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 460/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 10/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 381/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 479/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 710/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 709/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 295/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 411/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 933/1023)


Move disk 5: B → C

Move disk 5 from peg B to peg C. (Move 48/1023)


Move disk 4: B → A

Move disk 4 from peg B to peg A. (Move 808/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 879/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 929/1023)


Move disk 6: A → C

Move disk 6 from peg A to peg C. (Move 224/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 578/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 874/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 653/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 845/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 818/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 716/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 850/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 87/1023)


Nudge newly spawned polecats

Nudge newly spawned polecats that are ready for input.

When polecats are spawned, their Claude session takes 10-20 seconds to initialize. The spawn command returns immediately without waiting. This step finds spawned polecats that are now ready and sends them a trigger to start working.

**ZFC-Compliant Observation** (AI observes AI):

```bash
# View pending spawns with captured terminal output
gt deacon pending
```

For each pending session, analyze the captured output:
- Look for Claude's prompt indicator "> " at the start of a line
- If prompt is visible, Claude is ready for input
- Make the judgment call yourself - you're the AI observer

For each ready polecat:
```bash
# 1. Trigger the polecat
gt nudge <session> "Begin."

# 2. Clear from pending list
gt deacon pending <session>
```

This triggers the UserPromptSubmit hook, which injects mail so the polecat sees its assignment.

**Bootstrap mode** (daemon-only, no AI available):
The daemon uses `gt deacon trigger-pending` with regex detection. This ZFC violation is acceptable during cold startup when no AI agent is running yet.


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 282/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 325/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 392/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 205/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 761/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 511/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 895/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 148/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 789/1023)


Load context

Run gt prime and bd prime. Verify issue assignment.
Check inbox for any relevant messages.

Read the assigned issue (gt-8tmz.10) and understand the requirements.
Identify any blockers or missing information.


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 330/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 782/1023)


Move disk 4: B → A

Move disk 4 from peg B to peg A. (Move 616/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 659/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 157/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 629/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 109/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 6/1023)


Move disk 4: C → B

Move disk 4 from peg C to peg B. (Move 360/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 666/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 12/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 1006/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 858/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 979/1023)


Move disk 4: C → B

Move disk 4 from peg C to peg B. (Move 24/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 90/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 74/1023)


Execute registered plugins

Execute registered plugins.

Scan ~/gt/plugins/ for plugin directories. Each plugin has a plugin.md with YAML frontmatter defining its gate (when to run) and instructions (what to do).

See docs/deacon-plugins.md for full documentation.

Gate types:
- cooldown: Time since last run (e.g., 24h)
- cron: Schedule-based (e.g., "0 9 * * *")
- condition: Metric threshold (e.g., wisp count > 50)
- event: Trigger-based (e.g., startup, heartbeat)

For each plugin:
1. Read plugin.md frontmatter to check gate
2. Compare against state.json (last run, etc.)
3. If gate is open, execute the plugin

Plugins marked parallel: true can run concurrently using Task tool subagents. Sequential plugins run one at a time in directory order.

Skip this step if ~/gt/plugins/ does not exist or is empty.


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 697/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 62/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 821/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 982/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 358/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 133/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 268/1023)


mol-polecat-work

Full polecat lifecycle from assignment to decommission.

This proto enables nondeterministic idempotence for polecat work. A polecat that crashes after any step can restart, read its molecule state, and continue from the last completed step. No work is lost.

## Variables

| Variable | Required | Description |
|----------|----------|-------------|
| issue | Yes | The source issue ID being worked on |


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 482/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 475/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 601/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 333/1023)


Move disk 6: B → A

Move disk 6 from peg B to peg A. (Move 928/1023)


Move disk 5: A → B

Move disk 5 from peg A to peg B. (Move 880/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 483/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 997/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 418/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 294/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 373/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 260/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 747/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 86/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 566/1023)


Move disk 5: C → A

Move disk 5 from peg C to peg A. (Move 656/1023)


Move disk 7: B → C

Move disk 7 from peg B to peg C. (Move 192/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 242/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 397/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 367/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 906/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 870/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 257/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 474/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 786/1023)


Move disk 4: C → B

Move disk 4 from peg C to peg B. (Move 696/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 989/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 727/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 420/1023)


Move disk 4: B → A

Move disk 4 from peg B to peg A. (Move 520/1023)


Move disk 4: C → B

Move disk 4 from peg C to peg B. (Move 504/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 787/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 346/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 199/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 104/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 605/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 738/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 897/1023)


Self-review

Review your own changes. Look for:
- Bugs and edge cases
- Style issues
- Missing error handling
- Security concerns

Fix any issues found before proceeding.


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 301/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 391/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 5/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 101/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 622/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 951/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 276/1023)


Handle callbacks from agents

Handle callbacks from agents.

Check the Mayor's inbox for messages from:
- Witnesses reporting polecat status
- Refineries reporting merge results
- Polecats requesting help or escalation
- External triggers (webhooks, timers)

```bash
gt mail inbox
# For each message:
gt mail read <id>
# Handle based on message type
```

**WITNESS_PING**:
Witnesses periodically ping to verify Deacon is alive. Simply acknowledge
and archive - the fact that you're processing mail proves you're running.
Your agent bead last_activity is updated automatically during patrol.
```bash
gt mail archive <message-id>
```

**HELP / Escalation**:
Assess and handle or forward to Mayor.
Archive after handling:
```bash
gt mail archive <message-id>
```

**LIFECYCLE messages**:
Polecats reporting completion, refineries reporting merge results.
Archive after processing:
```bash
gt mail archive <message-id>
```

**DOG_DONE messages**:
Dogs report completion after infrastructure tasks (orphan-scan, session-gc, etc.).
Subject format: `DOG_DONE <hostname>`
Body contains: task name, counts, status.
```bash
# Parse the report, log metrics if needed
gt mail read <id>
# Archive after noting completion
gt mail archive <message-id>
```
Dogs return to idle automatically. The report is informational - no action needed
unless the dog reports errors that require escalation.

Callbacks may spawn new polecats, update issue state, or trigger other actions.

**Hygiene principle**: Archive messages after they're fully processed.
Keep inbox near-empty - only unprocessed items should remain.


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 948/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 245/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 833/1023)


Rotate logs and prune state

Maintain daemon logs and state files.

**Step 1: Check daemon.log size**
```bash
# Get log file size
ls -la ~/.beads/daemon*.log 2>/dev/null || ls -la ~/gt/.beads/daemon*.log 2>/dev/null
```

If daemon.log exceeds 10MB:
```bash
# Rotate with date suffix and gzip
LOGFILE="$HOME/gt/.beads/daemon.log"
if [ -f "$LOGFILE" ] && [ $(stat -f%z "$LOGFILE" 2>/dev/null || stat -c%s "$LOGFILE") -gt 10485760 ]; then
    DATE=$(date +%Y-%m-%dT%H-%M-%S)
    mv "$LOGFILE" "${LOGFILE%.log}-${DATE}.log"
    gzip "${LOGFILE%.log}-${DATE}.log"
fi
```

**Step 2: Archive old daemon logs**

Clean up daemon logs older than 7 days:
```bash
find ~/gt/.beads/ -name "daemon-*.log.gz" -mtime +7 -delete
```

**Step 3: Prune state.json of dead sessions**

The state.json tracks active sessions. Prune entries for sessions that no longer exist:
```bash
# Check for stale session entries
gt daemon status --json 2>/dev/null
```

If state.json references sessions not in tmux:
- Remove the stale entries
- The daemon's internal cleanup should handle this, but verify

**Note**: Log rotation prevents disk bloat from long-running daemons.
State pruning keeps runtime state accurate.


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 293/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 147/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 595/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 399/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 262/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 370/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 121/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 509/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 499/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 599/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 1018/1023)


Move disk 3: A → C

Move the largest disk from peg A to peg C.


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 115/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 389/1023)


Move disk 4: C → B

Move disk 4 from peg C to peg B. (Move 552/1023)


Request shutdown

Send shutdown request to Witness.
Wait for termination.

The polecat is now ready to be cleaned up.
Do not exit directly - wait for Witness to kill the session.


Move disk 5: C → A

Move disk 5 from peg C to peg A. (Move 80/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 707/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 492/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 831/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 152/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 117/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 695/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 567/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 617/1023)


Move disk 7: A → B

Move disk 7 from peg A to peg B. (Move 64/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 187/1023)


End-of-cycle inbox hygiene

Verify inbox hygiene before ending patrol cycle.

**Step 1: Check inbox state**
```bash
gt mail inbox
```

Inbox should be EMPTY or contain only just-arrived unprocessed messages.

**Step 2: Archive any remaining processed messages**

All message types should have been archived during inbox-check processing:
- WITNESS_PING → archived after acknowledging
- HELP/Escalation → archived after handling
- LIFECYCLE → archived after processing

If any were missed:
```bash
# For each stale message found:
gt mail archive <message-id>
```

**Goal**: Inbox should have ≤2 active messages at end of cycle.
Deacon mail should flow through quickly - no accumulation.


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 425/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 321/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 17/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 196/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 679/1023)


Move disk 5: B → C

Move disk 5 from peg B to peg C. (Move 912/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 772/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 957/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 18/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 127/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 386/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 185/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 405/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 27/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 522/1023)


Move disk 4: C → B

Move disk 4 from peg C to peg B. (Move 408/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 1001/1023)


Move disk 6: A → C

Move disk 6 from peg A to peg C. (Move 992/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 658/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 53/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 815/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 942/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 633/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 286/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 83/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 218/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 811/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 584/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 30/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 677/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 258/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 380/1023)


Move disk 7: C → A

Move disk 7 from peg C to peg A. (Move 704/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 385/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 745/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 369/1023)


Move disk 4: B → A

Move disk 4 from peg B to peg A. (Move 184/1023)


Move disk 4: C → B

Move disk 4 from peg C to peg B. (Move 840/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 644/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 645/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 934/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 793/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 1016/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 827/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 319/1023)


Move disk 4: B → A

Move disk 4 from peg B to peg A. (Move 856/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 791/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 372/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 444/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 557/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 201/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 89/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 194/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 571/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 702/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 1011/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 899/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 277/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 795/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 804/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 527/1023)


Move disk 1: A → C

Move disk 1 from peg A to peg C.


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 349/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 819/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 927/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 1014/1023)


Move disk 4: B → A

Move disk 4 from peg B to peg A. (Move 280/1023)


Move disk 6: A → C

Move disk 6 from peg A to peg C. (Move 800/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 682/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 518/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 131/1023)


Move disk 5: A → B

Move disk 5 from peg A to peg B. (Move 208/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 283/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 162/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 343/1023)


Request shutdown

Send shutdown request to Witness.
Wait for termination.

The polecat is now ready to be cleaned up.
Do not exit directly - wait for Witness to kill the session.


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 673/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 485/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 728/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 773/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 749/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 249/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 828/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 878/1023)


Move disk 5: B → C

Move disk 5 from peg B to peg C. (Move 432/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 455/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 271/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 813/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 113/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 918/1023)


Move disk 6: B → A

Move disk 6 from peg B to peg A. (Move 352/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 134/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 357/1023)


Move disk 5: C → A

Move disk 5 from peg C to peg A. (Move 176/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 805/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 250/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 556/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 995/1023)


Move disk 6: C → B

Move disk 6 from peg C to peg B. (Move 480/1023)


Move disk 4: B → A

Move disk 4 from peg B to peg A. (Move 328/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 155/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 790/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 619/1023)


Move disk 4: C → B

Move disk 4 from peg C to peg B. (Move 648/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 315/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 875/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 170/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 723/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 519/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 146/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 886/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 783/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 691/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 125/1023)


Fire notifications

Fire notifications for convoy and cross-rig events.

After convoy completion or cross-rig dependency resolution, notify relevant parties.

**Convoy completion notifications:**
When a convoy closes (all tracked issues done), notify the Overseer:
```bash
# Convoy gt-convoy-xxx just completed
gt mail send mayor/ -s "Convoy complete: <convoy-title>" \
  -m "Convoy <id> has completed. All tracked issues closed.
      Duration: <start to end>
      Issues: <count>

      Summary: <brief description of what was accomplished>"
```

**Cross-rig resolution notifications:**
When a cross-rig dependency resolves, notify the affected rig:
```bash
# Issue bd-xxx closed, unblocking gt-yyy
gt mail send gastown/witness -s "Dependency resolved: <bd-xxx>" \
  -m "External dependency bd-xxx has closed.
      Unblocked: gt-yyy (<title>)
      This issue may now proceed."
```

**Notification targets:**
- Convoy complete → mayor/ (for strategic visibility)
- Cross-rig dep resolved → <rig>/witness (for operational awareness)

Keep notifications brief and actionable. The recipient can run bd show for details.


towers-of-hanoi

AGENT EXECUTION PROTOCOL - Towers of Hanoi

PURPOSE: This is a durability proof, not computation. Steps are pre-computed.
Your job is to execute them mechanically, proving crash-recovery at scale.

EXECUTION LOOP:
1. Find current state: bd mol current <mol-id>
2. Find the next ready (unblocked) step
3. Close it: bd close <step-id>
4. Repeat until no ready steps remain

ON RESUME (after crash/restart/handoff):
- Same as fresh start. The molecule IS the state.
- Query `bd mol current <mol-id>`, continue from there.
- No memory of previous session needed.

DO:
- Close steps as fast as possible (they're trivial mechanical moves)
- Use `gt handoff` when context fills (proactive cycling)
- Trust the pre-computed solution - every move is already correct

DO NOT:
- Try to solve Hanoi yourself - moves are already computed
- Mark steps in_progress - just close them directly
- Ask for permission - this is GUPP territory, just execute
- Stop for human input - run autonomously until complete

MONITORING:
- Progress: Count closed children of the molecule
- For mega-molecules: Use convoy dashboard when available
- Completion: All steps closed = molecule complete

This proves Gas Town can execute arbitrarily long workflows with
nondeterministic idempotence - different sessions, same outcome.


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 49/1023)


Move disk 7: A → B

Move disk 7 from peg A to peg B. (Move 832/1023)


Move disk 5: C → A

Move disk 5 from peg C to peg A. (Move 848/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 223/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 126/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 254/1023)


towers-of-hanoi-10

AGENT EXECUTION PROTOCOL - Towers of Hanoi (10 disks, 1023 moves)

PURPOSE: This is a durability proof, not computation. Steps are pre-computed.
Your job is to execute them mechanically, proving crash-recovery at scale.

EXECUTION LOOP:
1. Find current state: bd mol current <mol-id>
2. Find the next ready (unblocked) step
3. Close it: bd close <step-id>
4. Repeat until no ready steps remain

ON RESUME (after crash/restart/handoff):
- Same as fresh start. The molecule IS the state.
- Query `bd mol current <mol-id>`, continue from there.
- No memory of previous session needed.

DO:
- Close steps as fast as possible (they're trivial mechanical moves)
- Use `gt handoff` when context fills (proactive cycling)
- Trust the pre-computed solution - every move is already correct

DO NOT:
- Try to solve Hanoi yourself - moves are already computed
- Mark steps in_progress - just close them directly
- Ask for permission - this is GUPP territory, just execute
- Stop for human input - run autonomously until complete

MONITORING:
- Progress: Count closed children of the molecule
- For mega-molecules: Use convoy dashboard when available
- Completion: All steps closed = molecule complete

This proves Gas Town can execute arbitrarily long workflows with
nondeterministic idempotence - different sessions, same outcome.


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 684/1023)


Move disk 5: C → A

Move disk 5 from peg C to peg A. (Move 944/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 414/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 241/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 495/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 643/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 351/1023)


Move disk 4: B → A

Move disk 4 from peg B to peg A. (Move 136/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 798/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 586/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 861/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 222/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 438/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 959/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 830/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 419/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 42/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 926/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 440/1023)


Move disk 6: B → A

Move disk 6 from peg B to peg A. (Move 160/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 700/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 501/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 855/1023)


Move disk 6: C → B

Move disk 6 from peg C to peg B. (Move 672/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 680/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 149/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 546/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 588/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 646/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 60/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 41/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 814/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 530/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 762/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 233/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 901/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 227/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 202/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 228/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 410/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 930/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 753/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 287/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 774/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 970/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 607/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 923/1023)


Self-review

Review your own changes. Look for:
- Bugs and edge cases
- Style issues
- Missing error handling
- Security concerns

Fix any issues found before proceeding.


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 922/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 71/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 275/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 980/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 181/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 562/1023)


Move disk 6: C → B

Move disk 6 from peg C to peg B. (Move 864/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 551/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 324/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 476/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 26/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 844/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 310/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 306/1023)


Resolve external dependencies

Resolve external dependencies across rigs.

When an issue in one rig closes, any dependencies in other rigs should be notified. This enables cross-rig coordination without tight coupling.

**Step 1: Check recent closures from feed**
```bash
gt feed --since 10m --plain | grep "✓"
# Look for recently closed issues
```

**Step 2: For each closed issue, check cross-rig dependents**
```bash
bd show <closed-issue>
# Look at 'blocks' field - these are issues that were waiting on this one
# If any blocked issue is in a different rig/prefix, it may now be unblocked
```

**Step 3: Update blocked status**
For blocked issues in other rigs, the closure should automatically unblock them (beads handles this). But verify:
```bash
bd blocked
# Should no longer show the previously-blocked issue if dependency is met
```

**Cross-rig scenarios:**
- bd-xxx closes → gt-yyy that depended on it is unblocked
- External issue closes → internal convoy step can proceed
- Rig A issue closes → Rig B issue waiting on it proceeds

No manual intervention needed if dependencies are properly tracked - this step just validates the propagation occurred.


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 534/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 778/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 297/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 116/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 159/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 193/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 699/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 585/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 523/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 95/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 1005/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 1004/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 70/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 314/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 382/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 422/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 724/1023)


Move disk 4: B → A

Move disk 4 from peg B to peg A. (Move 472/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 721/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 877/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 554/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 269/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 213/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 711/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 729/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 692/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 174/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 715/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 961/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 332/1023)


Move disk 5: A → B

Move disk 5 from peg A to peg B. (Move 784/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 694/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 751/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 265/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 598/1023)


Move disk 4: B → A

Move disk 4 from peg B to peg A. (Move 376/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 606/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 100/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 197/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 839/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 908/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 550/1023)


Move disk 5: A → B

Move disk 5 from peg A to peg B. (Move 976/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 675/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 964/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 450/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 129/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 7/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 764/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 1002/1023)


Move disk 5: C → A

Move disk 5 from peg C to peg A. (Move 560/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 797/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 602/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 883/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 719/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 356/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 374/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 732/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 956/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 436/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 946/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 209/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 366/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 458/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 200/1023)


Move disk 5: B → C

Move disk 5 from peg B to peg C. (Move 1008/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 938/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 958/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 513/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 502/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 846/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 539/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 139/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 67/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 1013/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 985/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 427/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 266/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 493/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 43/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 412/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 733/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 237/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 843/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 173/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 322/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 28/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 409/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 954/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 289/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 39/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 916/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 885/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 857/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 572/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 93/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 169/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 446/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 142/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 443/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 452/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 1003/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 388/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 849/1023)


Move disk 5: B → C

Move disk 5 from peg B to peg C. (Move 720/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 662/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 667/1023)


Move disk 4: C → B

Move disk 4 from peg C to peg B. (Move 456/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 776/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 610/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 661/1023)


Move disk 5: A → B

Move disk 5 from peg A to peg B. (Move 112/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 810/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 626/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 164/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 503/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 55/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 882/1023)


Move disk 2: B → C

Move disk 2 from peg B to peg C.


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 36/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 708/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 594/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 69/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 898/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 353/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 625/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 547/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 920/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 14/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 949/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 467/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 652/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 401/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 561/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 565/1023)


Move disk 4: B → A

Move disk 4 from peg B to peg A. (Move 664/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 177/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 907/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 538/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 204/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 540/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 132/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 1/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 61/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 154/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 77/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 905/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 466/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 497/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 261/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 345/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 542/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 252/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 226/1023)


Move disk 1: C → B

Move disk 1 from peg C to peg B.


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 150/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 558/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 630/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 79/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 803/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 143/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 434/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 639/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 423/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 910/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 99/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 445/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 339/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 461/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 172/1023)


Move disk 9: B → C

Move disk 9 from peg B to peg C. (Move 768/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 490/1023)


Evaluate pending async gates

Evaluate pending async gates.

Gates are async coordination primitives that block until conditions are met.
The Deacon is responsible for monitoring gates and closing them when ready.

**Timer gates** (await_type: timer):
Check if elapsed time since creation exceeds the timeout duration.

```bash
# List all open gates
bd gate list --json

# For each timer gate, check if elapsed:
# - CreatedAt + Timeout < Now → gate is ready to close
# - Close with: bd gate close <id> --reason "Timer elapsed"
```

**GitHub gates** (await_type: gh:run, gh:pr) - handled in separate step.

**Human/Mail gates** - require external input, skip here.

After closing a gate, the Waiters field contains mail addresses to notify.
Send a brief notification to each waiter that the gate has cleared.


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 449/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 950/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 613/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 4/1023)


Move disk 5: B → C

Move disk 5 from peg B to peg C. (Move 240/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 881/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 549/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 978/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 54/1023)


Move disk 4: C → B

Move disk 4 from peg C to peg B. (Move 168/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 378/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 671/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 703/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 579/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 765/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 318/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 387/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 991/1023)


Move disk 4: C → B

Move disk 4 from peg C to peg B. (Move 744/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 76/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 737/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 788/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 580/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 915/1023)


Move disk 5: B → C

Move disk 5 from peg B to peg C. (Move 336/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 722/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 243/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 806/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 591/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 670/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 947/1023)


Move disk 4: C → B

Move disk 4 from peg C to peg B. (Move 264/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 231/1023)


Move disk 5: B → C

Move disk 5 from peg B to peg C. (Move 816/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 394/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 1019/1023)


Move disk 4: C → B

Move disk 4 from peg C to peg B. (Move 216/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 943/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 725/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 469/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 577/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 834/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 66/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 75/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 615/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 508/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 361/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 657/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 141/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 215/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 636/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 8/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 220/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 487/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 514/1023)


Move disk 5: A → B

Move disk 5 from peg A to peg B. (Move 688/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 756/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 532/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 431/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 44/1023)


Move disk 5: A → B

Move disk 5 from peg A to peg B. (Move 400/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 219/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 206/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 429/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 57/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 342/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 259/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 763/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 417/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 344/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 903/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 660/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 651/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 211/1023)


Move disk 7: C → A

Move disk 7 from peg C to peg A. (Move 320/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 807/1023)


Move disk 4: B → A

Move disk 4 from peg B to peg A. (Move 760/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 632/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 914/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 925/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 917/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 311/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 407/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 894/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 489/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 510/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 990/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 45/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 889/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 822/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 655/1023)


Move disk 10: A → C

Move disk 10 from peg A to peg C. (Move 512/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 940/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 993/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 375/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 887/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 292/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 267/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 713/1023)


Implement

Implement the solution for gt-8tmz.10. Follow codebase conventions.
File discovered work as new issues with bd create.

Make regular commits with clear messages.
Keep changes focused on the assigned issue.


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 638/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 826/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 701/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 65/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 835/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 359/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 481/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 191/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 953/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 123/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 741/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 574/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 563/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 748/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 770/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 453/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 972/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 802/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 214/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 439/1023)


Verify initial state

All 3 disks stacked on peg A. Largest on bottom.


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 893/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 890/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 175/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 628/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 596/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 678/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 1017/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 945/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 801/1023)


Verify final state

All 10 disks now on peg C. Tower intact, all moves were legal.


Move disk 5: C → A

Move disk 5 from peg C to peg A. (Move 368/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 981/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 865/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 767/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 967/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 872/1023)


Move disk 4: C → B

Move disk 4 from peg C to peg B. (Move 936/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 873/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 22/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 705/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 165/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 536/1023)


Move disk 5: B → C

Move disk 5 from peg B to peg C. (Move 624/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 614/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 817/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 166/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 735/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 471/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 37/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 402/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 597/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 1007/1023)


Move disk 5: C → A

Move disk 5 from peg C to peg A. (Move 464/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 836/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 977/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 183/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 235/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 364/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 575/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 323/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 986/1023)


Move disk 5: A → B

Move disk 5 from peg A to peg B. (Move 304/1023)


Move disk 5: B → C

Move disk 5 from peg B to peg C. (Move 528/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 404/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 255/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 924/1023)


Move disk 8: A → C

Move disk 8 from peg A to peg C. (Move 128/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 398/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 459/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 829/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 545/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 535/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 158/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 454/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 488/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 137/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 217/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 650/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 229/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 171/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 698/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 119/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 437/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 525/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 627/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 757/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 135/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 156/1023)


Load context

Run gt prime and bd prime. Verify issue assignment.
Check inbox for any relevant messages.

Read the assigned issue (gt-8tmz.34) and understand the requirements.
Identify any blockers or missing information.


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 1012/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 809/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 430/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 279/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 932/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 859/1023)


Move disk 4: B → A

Move disk 4 from peg B to peg A. (Move 712/1023)


Move disk 5: A → B

Move disk 5 from peg A to peg B. (Move 496/1023)


Move disk 5: C → A

Move disk 5 from peg C to peg A. (Move 752/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 742/1023)


Move disk 6: A → C

Move disk 6 from peg A to peg C. (Move 608/1023)


Verify final state

All 3 disks now on peg C. Tower intact, all moves were legal.


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 526/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 909/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 296/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 478/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 635/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 73/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 771/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 415/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 383/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 739/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 236/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 118/1023)


Move disk 9: A → B

Move disk 9 from peg A to peg B. (Move 256/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 963/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 853/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 799/1023)


Move disk 4: A → C

Move disk 4 from peg A to peg C. (Move 248/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 111/1023)


Move disk 3: B → C

Move disk 3 from peg B to peg C. (Move 852/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 603/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 1021/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 46/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 618/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 1009/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 775/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 647/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 151/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 377/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 335/1023)


Move disk 3: A → B

Move disk 3 from peg A to peg B. (Move 820/1023)


Move disk 6: C → B

Move disk 6 from peg C to peg B. (Move 288/1023)


Move disk 5: C → A

Move disk 5 from peg C to peg A. (Move 272/1023)


Move disk 8: A → C

Move disk 8 from peg A to peg C. (Move 896/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 590/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 327/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 570/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 706/1023)


Move disk 2: A → C

Move disk 2 from peg A to peg C. (Move 746/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 553/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 239/1023)


Move disk 1: C → A

Move disk 1 from peg C to peg A. (Move 611/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 331/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 198/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 273/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 114/1023)


Detect abandoned work

**DETECT ONLY** - Check for orphaned state and dispatch to dog if found.

**Step 1: Quick orphan scan**
```bash
# Check for in_progress issues with dead assignees
bd list --status=in_progress --json | head -20
```

For each in_progress issue, check if assignee session exists:
```bash
tmux has-session -t <session> 2>/dev/null && echo "alive" || echo "orphan"
```

**Step 2: If orphans detected, dispatch to dog**
```bash
# Sling orphan-scan formula to an idle dog
gt sling mol-orphan-scan deacon/dogs --var scope=town
```

**Important:** Do NOT fix orphans inline. Dogs handle recovery.
The Deacon's job is detection and dispatch, not execution.

**Step 3: If no orphans detected**
Skip dispatch - nothing to do.

**Exit criteria:** Orphan scan dispatched to dog (if needed).


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 285/1023)


Move disk 2: C → B

Move disk 2 from peg C to peg B. (Move 246/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 812/1023)


Move disk 1: A → B

Move disk 1 from peg A to peg B. (Move 637/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 507/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 884/1023)


Move disk 3: C → A

Move disk 3 from peg C to peg A. (Move 428/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 555/1023)


Move disk 2: B → A

Move disk 2 from peg B to peg A. (Move 130/1023)


Move disk 1: B → C

Move disk 1 from peg B to peg C. (Move 207/1023)


Mol Mall: Formula marketplace and aspect composition

## Summary

A marketplace for sharing molecule formulas using GitHub as backend, plus a new
**aspect composition** capability for cooking that allows formulas to be applied
as cross-cutting transformations to existing mols.

## Key Insight

Formulas aren't just standalone workflows—they're **transformations** you can
apply to other mols. This enables patterns like:
- "Apply Rule of Five code review to any coding task"
- "Wrap any epic with security review steps"
- "Add logging/metrics to any patrol molecule"

## Architecture

```
Remote Formulas (GitHub)
        ↓ install
Local Formulas (~/.gt/formulas/ or .beads/formulas/)
        ↓ cook --with
Mols (beads, git-tracked)
        ↓ pour/sling
Execution (ephemeral or tracked)
```

## Formula Types

1. **Standalone** - Complete workflows (mol-polecat-work, mol-deacon-patrol)
2. **Aspects** - Cross-cutting concerns woven into other mols (rule-of-five)
3. **Adapters** - Wrappers that make things runnable

## Aspect Composition (New Cooking Capability)

```bash
bd cook my-epic --with rule-of-five,security-review
```

Aspects declare injection points:

```yaml
# rule-of-five.formula.yaml
kind: aspect
name: rule-of-five
version: 1.2.0

inject_after:
  tag: generates-code  # matches any step with this tag

steps:
  - id: review-correctness
    title: "Review: Correctness"
  - id: review-edge-cases
    title: "Review: Edge Cases"
  - id: review-performance
    title: "Review: Performance"
  - id: review-security
    title: "Review: Security"
  - id: review-maintainability
    title: "Review: Maintainability"
```

Injection modes:
- `inject_after: <step-id or tag>` - insert steps after
- `inject_before: <step-id or tag>` - insert steps before
- `wrap: <step-id or tag>` - insert before AND after
- `replace: <step-id or tag>` - substitute entirely

## The Mall Index

A well-known repo maps short names to full references:

```yaml
# steveyegge/gt-mall/index.yaml
formulas:
  rule-of-five:
    repo: steveyegge/gt-formulas
    path: aspects/rule-of-five.formula.yaml
    version: v1.2.0
    description: "Five-lens code review"
    tags: [review, quality]
```

Commands:
- `gt mol search review` - search the index
- `gt mol install rule-of-five` - fetch from GitHub
- `gt mol install github.com/acme/formulas/custom@v1` - direct URL

## Implementation Phases

### Phase 1: Aspect Composition (Cooking)
- Extend `bd cook` to accept `--with aspect1,aspect2`
- Aspect application during mol generation
- Local aspects in `.beads/formulas/`

### Phase 2: Mall Index
- Create gt-mall repo with index.yaml
- `gt mol search` queries the index
- `gt mol install` fetches and caches formulas

### Phase 3: Publishing
- `gt mol publish` pushes to your formula repo
- PR workflow to add to mall index

### Phase 4: Refinements
- Aspect ordering and conflict detection
- Aspect dependencies (`requires: [other-aspect]`)
- Private formula repos (enterprise)
- Local overrides/forks

## Open Questions

1. **Ordering conflicts**: Two aspects inject after same step—which goes first?
2. **Aspect dependencies**: Aspect A requires aspect B?
3. **Compile-time vs runtime**: Aspects are compile-time (baked into mol).
   Wisps remain runtime (slung dynamically).

## Deferred Until

Gas Town patrols operational. Prerequisites:
- [ ] Patrol system working (Deacon, Witness, Refinery)
- [ ] Basic spawn/work/merge cycle
- [ ] Activity feed showing work progress

Then the mall becomes valuable for sharing patrol customizations.

## Supersedes

This replaces gt-uzf2l which had the original marketplace concept but lacked
the aspect composition insight.

## Related

- Cooking system (bd cook)
- Formula definitions (.formula.yaml)
- Wisp architecture (runtime molecules)

See docs/formula_evolution.md for expanded thinking on: formula resolution hierarchy, combinators (>>, |, wrap, inject, extends), algebraic properties, higher abstractions, Mol Mall registry predictions, distribution scenarios, and open questions. The aspect composition in this design corresponds to the Wrapping (AOP) and Injection combinators in that doc.


Digest: mol-deacon-patrol

Patrol complete


mol-deacon-patrol

Mayor's daemon patrol loop.

The Deacon is the Mayor's background process that runs continuously,
handling callbacks, monitoring rig health, and performing cleanup.
Each patrol cycle runs these steps in sequence, then loops or exits.


Digest: mol-deacon-patrol

Patrol: TRACER BULLET SUCCESS - gt-oiv0 merged to main, furiosa completed and exited cleanly, 0 polecats now, all agents up


Digest: mol-deacon-patrol

Patrol 1: All agents healthy, no messages, no issues


Digest: mol-deacon-patrol

Patrol 20: All healthy, routine cycle complete


Digest: mol-deacon-patrol

Patrol 10: routine


MessagingConfig: Add Type field for schema consistency

MessagingConfig lacks a Type field that other config types have (TownConfig has 'town', RigConfig has 'rig', etc). Add Type: 'messaging' for consistency.


Merge: morsov-1766966180179

branch: polecat/morsov-1766966180179
target: main
source_issue: morsov-1766966180179
rig: gastown


Digest: mol-deacon-patrol

Patrol 11: OK


mol-sync-workspace: Add vars for build/test commands


Digest: mol-deacon-patrol

Patrol 248 complete: no incidents


gt nudge doesn't work with crew addresses

## Bug

`gt nudge beads/crew/dave "message"` fails because it uses the polecat session manager which produces wrong session names.

## Expected
Session name: `gt-beads-crew-dave` (hyphen)

## Actual
Session name: `gt-beads-crew/dave` (slash, from polecat manager)

## Root Cause

In nudge.go line 46-57, parseAddress returns polecatName=`crew/dave`, then SessionName keeps the slash.

## Fix

Detect `crew/` prefix and use crewSessionName() instead.


Digest: mol-deacon-patrol

Patrol cycle 3: All healthy


Digest: mol-deacon-patrol

Patrol 14: Routine


Witness patrol wisp with polecat leases

Witness should maintain a rolling patrol wisp that tracks active polecats:

```
wisp-witness-patrol
├── lease: furiosa (boot → working → done)
├── lease: nux (working)
└── lease: slit (done, closed)
```

When POLECAT_STARTED arrives:
- bd mol bond mol-polecat-lease wisp-patrol --var polecat=X

Patrol loop iterates leases:
- gt peek $polecat
- If idle: gt nudge
- If shutdown received: close lease

When all leases closed:
- bd mol squash wisp-xxx --summary='N polecats processed'

Requires mol-polecat-lease proto definition.


Merge: dementus-mjto0502

branch: polecat/dementus-mjto0502
target: main
source_issue: dementus-mjto0502
rig: gastown


Digest: mol-deacon-patrol

Patrol 2: archived stale Mayor handoffs, all agents healthy


Witness session startup (gt witness start)

Implement gt witness start <rig>

Should:
1. Verify rig exists and has witness/ directory
2. Check for existing witness session (don't double-start)
3. Create tmux session: gt-<rig>-witness
4. Start Claude Code with --dangerously-skip-permissions
5. Send gt prime to load context
6. Send startup prompt

Similar pattern to refinery startup in internal/refinery/manager.go


mol-gastown-boot: Mayor-driven town bootstrap

Mayor bootstraps Gas Town via a verification-gated lifecycle molecule.

## Vision

When user says "boot up gas town", Mayor slings `mol-gastown-boot` and executes it.
Each step has **action + verification** - steps stay open until outcome is confirmed.

## Key Principles

1. **No daemon-based timeouts** - Mayor keeps trying until verified
2. **Verification-gated steps** - Not "command ran" but "outcome confirmed"
3. **gt peek for verification** - Capture session output to detect stalls
4. **gt nudge for recovery** - Reliable message delivery to unstick agents
5. **Parallel where possible** - Witnesses can start in parallel
6. **Ephemeral execution** - Boot is a wisp, squashed to digest

## Proto Catalog

Town maintains a catalog of protos at `~/gt/molecules/`:

```
~/gt/molecules/
├── lifecycle/
│   ├── gastown-boot/       # Full town bootstrap
│   ├── rig-spinup/         # Add a rig at runtime
│   ├── rig-spindown/       # Remove a rig gracefully
│   └── agent-restart/      # Restart single agent
├── patrol/
│   ├── deacon-patrol/      # Deacon health loop
│   ├── witness-patrol/     # Witness polecat loop
│   └── refinery-patrol/    # Refinery merge loop
└── work/
    ├── polecat-work/       # Standard issue workflow
    ├── code-review/        # Pluggable review
    └── feature/            # Feature development
```

## mol-gastown-boot Structure

```
mol-gastown-boot (proto)
├── ensure-daemon       # Verify daemon running
├── ensure-deacon       # Start deacon, verify patrol active
├── ensure-witnesses    # Parallel: all rig witnesses
│   ├── ensure-gastown-witness
│   └── ensure-beads-witness
├── ensure-refineries   # Parallel: all rig refineries
│   ├── ensure-gastown-refinery
│   └── ensure-beads-refinery
└── verify-town-health  # Final gt status check
```

## Step Template

Each step in description includes action + verification:

```markdown
## Step: ensure-deacon

### Action
gt deacon start

### Verify
1. Session gt-deacon exists: `tmux has-session -t gt-deacon`
2. Not stalled: `gt peek deacon/` does NOT show "> Try"
3. Recent heartbeat: deacon/heartbeat.json < 2 min old

### On Stall
gt nudge deacon/ "Start patrol."
Wait 30s, re-verify.

### On Fail
Log error, continue to next step (town can run with degraded deacon)
```

## Event-Triggered Lifecycle

Beyond manual slinging, events can trigger lifecycle wisps:

| Event | Triggers |
|-------|----------|
| `gt town start` | mol-gastown-boot wisp |
| `gt rig add <name>` | mol-rig-spinup wisp |
| `gt rig remove <name>` | mol-rig-spindown wisp |
| Agent crash detected | mol-agent-restart wisp |

## Parameterization (Future)

For rig-spinup/spindown, need to pass rig name:

```bash
gt sling rig-spinup mayor/ --param rig=newproject
```

Molecule steps interpolate `${rig}` in their descriptions.

## Related Issues

- gt-lx3n: Witness startup bond
- gt-j6s8: Refinery startup bond
- gt-rana: Patrol System epic
- gt-sye: Mayor startup protocol


Define mol-gastown-boot proto structure

Create the proto molecule definition with all steps.

## Proto Definition

Each step has:
- Title (step name)
- Description with Action/Verify/OnStall/OnFail sections
- Dependencies (Needs: directive)

## Steps

1. ensure-daemon
   - Action: gt daemon status || gt daemon start
   - Verify: daemon PID exists and responding

2. ensure-deacon
   - Action: gt deacon start
   - Verify: session exists, not stalled, heartbeat fresh
   - OnStall: gt nudge deacon/ "Start patrol."

3. ensure-witnesses (parallel container)
   - ensure-gastown-witness
   - ensure-beads-witness
   - Verify each: session exists, not stalled

4. ensure-refineries (parallel container)
   - ensure-gastown-refinery
   - ensure-beads-refinery
   - Verify each: session exists, not stalled

5. verify-town-health
   - Action: gt status
   - Verify: all expected agents shown

## Output

Proto stored in beads as molecule type issue.


Implement verification patterns for boot steps

Define and implement the verification logic Mayor uses.

## Verification Utilities

Mayor needs to check:

### Session Exists
```bash
tmux has-session -t <session> 2>/dev/null && echo "exists"
```

### Not Stalled (Claude waiting at prompt)
```bash
gt peek <agent> 10 | grep -q "> Try" && echo "stalled"
```

Pattern: `> Try "..."` indicates Claude started but no message sent.

### Recent Heartbeat
```bash
# For deacon
age=$(( $(date +%s) - $(stat -f %m ~/gt/deacon/heartbeat.json) ))
[ $age -lt 120 ] && echo "fresh"
```

### Active Work Output
```bash
gt peek <agent> 20 | grep -q "⏺" && echo "working"
```

Pattern: `⏺` indicates Claude is executing tools.

## Mayor Execution Pattern

```
for each step in molecule:
  run action
  loop:
    check verification
    if verified: close step, continue
    if stalled: run on_stall recovery
    if timeout (5 attempts): log warning, continue
    sleep 10s
```

No hard timeout - Mayor keeps trying with increasing backoff.


Create molecules catalog directory structure

Establish the proto catalog at ~/gt/molecules/.

## Structure

```
~/gt/molecules/
├── README.md           # Catalog overview
├── lifecycle/
│   ├── gastown-boot/
│   │   └── PROTO.md    # Proto definition in markdown
│   ├── rig-spinup/
│   ├── rig-spindown/
│   └── agent-restart/
├── patrol/
│   ├── deacon-patrol/
│   ├── witness-patrol/
│   └── refinery-patrol/
└── work/
    ├── polecat-work/
    ├── code-review/
    └── feature/
```

## PROTO.md Format

```markdown
---
type: lifecycle
parallel: [ensure-witnesses, ensure-refineries]
ephemeral: true
---

# mol-gastown-boot

Town bootstrap molecule.

## Step: ensure-daemon
...
```

## Catalog Loading

`gt sling gastown-boot` should find the proto by:
1. Check beads for existing proto issue
2. If not found, scan ~/gt/molecules/lifecycle/gastown-boot/
3. Auto-create proto issue from PROTO.md

This enables file-based proto development with beads tracking.


Add parallel step support to molecules

Enable steps to run in parallel within a molecule.

## Current State

Molecules have linear step dependencies via "Needs:" directive.
Steps run sequentially.

## Proposed Change

Add parallel grouping:

```markdown
## Step: ensure-witnesses
Parallel: true

### Sub-steps
- ensure-gastown-witness
- ensure-beads-witness
```

Or via frontmatter:

```yaml
---
parallel: [ensure-witnesses, ensure-refineries]
---
```

Steps in parallel group:
- Start simultaneously
- Parent step closes when all children complete
- Failures in one dont block others

## Implementation

1. Parse parallel directive in proto
2. When bonding, create child steps with same dependency
3. Executor spawns parallel children concurrently
4. Track completion, close parent when all done

## For Mayor Bootstrap

Mayor can check all witnesses in parallel, then all refineries,
rather than sequentially. Faster boot time.


Add event-triggered lifecycle wisps

Commands like `gt town start` should auto-trigger lifecycle wisps.

## Event → Wisp Mapping

| Command | Triggers Wisp |
|---------|---------------|
| gt town start | mol-gastown-boot |
| gt rig add <name> | mol-rig-spinup (param: rig=<name>) |
| gt rig remove <name> | mol-rig-spindown (param: rig=<name>) |
| gt daemon restart | mol-gastown-boot |

## Implementation

1. Command implementation checks for lifecycle proto
2. Auto-slings wisp to Mayor with --wisp flag
3. Mayor picks up via molecule attachment

## Alternative: Explicit Sling

Keep commands simple, require explicit:

```bash
gt town start        # Just starts sessions
gt sling gastown-boot mayor/ --wisp   # Bootstrap with verification
```

This is more transparent - user sees the sling happen.

## Recommendation

Start with explicit sling. Add auto-trigger later once pattern proven.
`gt town start --verified` could trigger the wisp.


Design molecule parameterization

Enable protos to accept parameters for customization.

## Use Cases

1. rig-spinup needs rig name: `gt sling rig-spinup --param rig=newproject`
2. agent-restart needs agent: `gt sling agent-restart --param agent=gastown/witness`
3. code-review needs scope: `gt sling code-review --param scope=src/auth/`

## Proposed Syntax

### In Proto

```markdown
## Step: create-rig-structure
mkdir -p ~/gt/${rig}/refinery ~/gt/${rig}/witness
```

### In Sling

```bash
gt sling rig-spinup mayor/ --param rig=newproject --wisp
```

### In Bonded Molecule

Interpolation happens at bond time. Step descriptions have concrete values.

## Implementation

1. Proto declares params in frontmatter: `params: [rig]`
2. gt sling validates required params provided
3. bd mol bond receives params, interpolates descriptions
4. Bonded molecule has concrete step text

## Edge Cases

- Missing required param → error
- Unused param → warning
- Param in step title → interpolate there too


Proto marketplace: shareable molecule templates

Enable sharing protos between Gas Town installations.

## Vision

A public registry of protos that users can pull and use:

```bash
gt proto search "code review"
gt proto install gastown/code-review
gt sling code-review gastown/Toast --wisp
```

## Registry Design

### Local Catalog
`~/gt/molecules/` - user-defined and installed protos

### Remote Registry
`registry.gastown.dev/protos/` (future)
- Browse online catalog
- Version-controlled protos
- Rating/reviews
- Usage statistics

## Proto Package Format

```
gastown-code-review-1.0.0/
├── PROTO.md          # Main proto definition
├── README.md         # Usage documentation
├── LICENSE           # Usage terms
└── plugins/          # For pluggable molecules
    ├── security/
    └── performance/
```

## Commands

```bash
gt proto list              # Show installed protos
gt proto search <query>    # Search registry
gt proto install <name>    # Install from registry
gt proto publish <path>    # Publish to registry
gt proto update            # Update all installed
```

## For Now

Start with local catalog. Marketplace is future phase.
Ensure proto format is registry-compatible from the start.


Update Mayor startup protocol for bootstrap

Teach Mayor to respond to "boot up gas town" by slinging mol-gastown-boot.

## Current Protocol

1. Announce: "Mayor, checking in."
2. Check mail
3. If handoff, continue
4. Await user instruction

## Enhanced Protocol

1. Announce: "Mayor, checking in."
2. Check mail
3. If handoff, continue
4. **If user says "boot"/"startup"/"bootstrap":**
   - Sling mol-gastown-boot as wisp
   - Execute verification-gated steps
   - Report town status when complete
5. Otherwise await instruction

## Trigger Phrases

- "boot up gas town"
- "bootstrap the town"
- "start gas town"
- "bring up the town"

## Execution

Mayor runs the molecule manually (not via subagent):

```
1. Bond the proto: bd mol bond mol-gastown-boot --wisp
2. For each step:
   a. Run action command
   b. Loop verification with backoff
   c. On stall, run recovery
   d. Close step when verified
3. Squash wisp with summary
4. Report: "Gas Town is up. All agents healthy."
```

## CLAUDE.md Update

Add to Mayor CLAUDE.md:

```markdown
## Bootstrap Command

When user requests town bootstrap:
1. gt sling gastown-boot mayor/ --wisp
2. Execute molecule steps with verification
3. Keep trying until all agents healthy
4. No timeouts - you are the town engineer
```


Digest: mol-deacon-patrol

Patrol 10: all quiet


Digest: mol-deacon-patrol

Patrol complete: inbox checked (4 msgs, 1 escalation resolved), all agents healthy (2 witnesses, 2 refineries, 3 polecats, 5 crew), cleaned 66 abandoned wisps


Digest: mol-deacon-patrol

Patrol 20: All healthy. Handoff after 20 cycles.


Digest: mol-deacon-patrol

Patrol 19: all healthy


Digest: mol-deacon-patrol

Patrol 16: routine


Digest: mol-deacon-patrol

Patrol 15: OK


Digest: mol-deacon-patrol

Patrol cycle 5: All healthy


Merge: gt-70b3

type: merge-request
branch: polecat/Rictus
target: main
source_issue: gt-70b3
rig: gastown


Digest: mol-deacon-patrol

Patrol cycle 14: All 3 rigs healthy. No incidents.


Digest: mol-deacon-patrol

Patrol OK: 8 polecats, 4 witness/refineries up


Digest: mol-deacon-patrol

Patrol 82: All agents healthy, quiet cycle


Digest: mol-deacon-patrol

Patrol 14: Green


Digest: mol-deacon-patrol

Patrol 134: All healthy


Merge: gt-594l2

branch: polecat/morsov-1766966180179
target: main
source_issue: gt-594l2
rig: gastown


Bug: refinery --foreground detects parent session as already running

When gt refinery start gastown runs:
1. Creates tmux session gt-gastown-refinery
2. Sends 'gt refinery start gastown --foreground' into the session
3. The foreground command checks HasSession() - finds the session it's inside
4. Returns 'already running' error

The foreground mode check should either:
- Skip the tmux session check (only check PID)
- Use a different indicator that the daemon loop is running
- Pass a flag to indicate we're being called from the background starter

Workaround: Manually run 'gt refinery start gastown --foreground' from a fresh session.


Digest: mol-deacon-patrol

Patrol 8: all healthy


Polecat Arm (arm-toast)

Single polecat inspection and action cycle.

This molecule is bonded dynamically by mol-witness-patrol's survey-workers step.
Each polecat being monitored gets one arm that runs in parallel with other arms.

## Variables

| Variable | Required | Description |
|----------|----------|-------------|
| polecat_name | Yes | Name of the polecat to inspect |
| rig | Yes | Rig containing the polecat |

## Step: capture
Capture recent tmux output for toast.

```bash
tmux capture-pane -t gt-gastown-toast -p | tail -50
```

Record:
- Last activity timestamp (when was last tool call?)
- Visible errors or stack traces
- Completion indicators ("Done", "Finished", etc.)

## Step: assess
Categorize polecat state based on captured output.

States:
- **working**: Recent tool calls, active processing
- **idle**: At prompt, no recent activity
- **error**: Showing errors or stack traces
- **requesting_shutdown**: Sent LIFECYCLE/Shutdown mail
- **done**: Showing completion indicators

Calculate: minutes since last activity.
Needs: capture

## Step: load-history
Read nudge history for toast from patrol state.

```
nudge_count = state.nudges[toast].count
last_nudge_time = state.nudges[toast].timestamp
```

This data was loaded by the parent patrol's load-state step and passed
to the arm via the bonding context.
Needs: assess

## Step: decide
Apply the nudge matrix to determine action for toast.

| State | Idle Time | Nudge Count | Action |
|-------|-----------|-------------|--------|
| working | any | any | none |
| idle | <10min | any | none |
| idle | 10-15min | 0 | nudge-1 (gentle) |
| idle | 15-20min | 1 | nudge-2 (direct) |
| idle | 20+min | 2 | nudge-3 (final) |
| idle | any | 3 | escalate |
| error | any | any | assess-severity |
| requesting_shutdown | any | any | pre-kill-verify |
| done | any | any | pre-kill-verify |

Nudge text:
1. "How's progress? Need any help?"
2. "Please wrap up soon. What's blocking you?"
3. "Final check. Will escalate in 5 min if no response."

Record decision and rationale.
Needs: load-history

## Step: execute
Take the decided action for toast.

**nudge-N**:
```bash
tmux send-keys -t gt-gastown-toast "{{nudge_text}}" Enter
```

**pre-kill-verify**:
```bash
cd polecats/toast
git status                    # Must be clean
git log origin/main..HEAD     # Check for unpushed
bd show <assigned-issue>      # Verify closed/deferred
```
If clean: kill session, remove worktree, delete branch
If dirty: record failure, retry next cycle

**escalate**:
```bash
gt mail send mayor/ -s "Escalation: toast stuck" -m "..."
```

**none**: No action needed.

Record: action taken, result, updated nudge count.
Needs: decide

## Output

The arm completes with:
- action_taken: none | nudge-1 | nudge-2 | nudge-3 | killed | escalated
- result: success | failed | pending
- updated_state: New nudge count and timestamp for toast

This data feeds back to the parent patrol's aggregate step.
---
bonded_from: mol-polecat-arm
bonded_to: gt-n8s1
bonded_ref: arm-toast
bonded_at: 2025-12-23T10:00:00Z


bd list --parent: filter by parent issue

Add --parent flag to bd list to filter issues by parent.

Example:
```bash
bd list --parent=gt-h5n --status=open
```

Would show all open children of gt-h5n.

Useful for:
- Checking epic progress
- Finding swarmable work within an epic
- Molecule step listing


Digest: mol-deacon-patrol

Patrol 3: All healthy. 3 rigs, 6 agents. No incidents.


Digest: mol-deacon-patrol

Cycle 5: healthy


save-state

Update handoff bead with new state.

Persist nudge counts and pending actions.

Needs: execute-actions


Digest: mol-deacon-patrol

Patrol 1: All healthy, no messages, no orphans


Polecat Arm (arm-toast)

Single polecat inspection and action cycle.

This molecule is bonded dynamically by mol-witness-patrol's survey-workers step.
Each polecat being monitored gets one arm that runs in parallel with other arms.

## Variables

| Variable | Required | Description |
|----------|----------|-------------|
| polecat_name | Yes | Name of the polecat to inspect |
| rig | Yes | Rig containing the polecat |

## Step: capture
Capture recent tmux output for toast.

```bash
tmux capture-pane -t gt-gastown-toast -p | tail -50
```

Record:
- Last activity timestamp (when was last tool call?)
- Visible errors or stack traces
- Completion indicators ("Done", "Finished", etc.)

## Step: assess
Categorize polecat state based on captured output.

States:
- **working**: Recent tool calls, active processing
- **idle**: At prompt, no recent activity
- **error**: Showing errors or stack traces
- **requesting_shutdown**: Sent LIFECYCLE/Shutdown mail
- **done**: Showing completion indicators

Calculate: minutes since last activity.
Needs: capture

## Step: load-history
Read nudge history for toast from patrol state.

```
nudge_count = state.nudges[toast].count
last_nudge_time = state.nudges[toast].timestamp
```

This data was loaded by the parent patrol's load-state step and passed
to the arm via the bonding context.
Needs: assess

## Step: decide
Apply the nudge matrix to determine action for toast.

| State | Idle Time | Nudge Count | Action |
|-------|-----------|-------------|--------|
| working | any | any | none |
| idle | <10min | any | none |
| idle | 10-15min | 0 | nudge-1 (gentle) |
| idle | 15-20min | 1 | nudge-2 (direct) |
| idle | 20+min | 2 | nudge-3 (final) |
| idle | any | 3 | escalate |
| error | any | any | assess-severity |
| requesting_shutdown | any | any | pre-kill-verify |
| done | any | any | pre-kill-verify |

Nudge text:
1. "How's progress? Need any help?"
2. "Please wrap up soon. What's blocking you?"
3. "Final check. Will escalate in 5 min if no response."

Record decision and rationale.
Needs: load-history

## Step: execute
Take the decided action for toast.

**nudge-N**:
```bash
tmux send-keys -t gt-gastown-toast "{{nudge_text}}" Enter
```

**pre-kill-verify**:
```bash
cd polecats/toast
git status                    # Must be clean
git log origin/main..HEAD     # Check for unpushed
bd show <assigned-issue>      # Verify closed/deferred
```
If clean: kill session, remove worktree, delete branch
If dirty: record failure, retry next cycle

**escalate**:
```bash
gt mail send mayor/ -s "Escalation: toast stuck" -m "..."
```

**none**: No action needed.

Record: action taken, result, updated nudge count.
Needs: decide

## Output

The arm completes with:
- action_taken: none | nudge-1 | nudge-2 | nudge-3 | killed | escalated
- result: success | failed | pending
- updated_state: New nudge count and timestamp for toast

This data feeds back to the parent patrol's aggregate step.
---
bonded_from: mol-polecat-arm
bonded_to: gt-na7y
bonded_ref: arm-toast
bonded_at: 2025-12-23T10:00:00Z


Digest: mol-deacon-patrol

Patrol 4: Quiet


Digest: mol-deacon-patrol

Patrol 8: Quiet


Update docs to reflect molecule-first paradigm

Gas Town is fundamentally a molecule execution engine. Documentation should reflect this more clearly.

## Issues Found

### 1. gt spawn examples show molecule as optional
README.md line 116: `gt spawn --issue <id> # Start polecat on issue`
Should emphasize: polecats execute molecules, not just issues.

### 2. Architecture.md spawn examples inconsistent
Line 344 shows molecule: `gt spawn --issue gt-xyz --molecule mol-engineer-in-box`
Line 1434 shows without: `gt spawn --issue <id>`

### 3. Config vs molecule distinction not clear
outposts.yaml shows static policy - should note when molecules apply.

### 4. Operational molecules section is good but buried
Lines 430-566 cover operational molecules well. Should be more prominent.

## Updates Needed
- [ ] README: Update spawn examples to show molecule usage
- [ ] architecture.md: Ensure all spawn examples include molecules
- [ ] architecture.md: Add section on "when config vs molecule"
- [ ] architecture.md: Move operational molecules higher in document
- [ ] Add principle: "If it requires cognition, it's a molecule"
- [ ] federation-design.md: Note that policy can escalate to mol-outpost-assign

## Key Message
Gas Town doesn't spawn workers on issues. It spawns workers on molecules.
The issue is just the seed data for the molecule execution.


Digest: mol-deacon-patrol

Patrol cycle 20: all healthy, handing off


gt polecat done should auto-stop running session

Currently 'gt polecat done' fails if session is running, requiring a separate 'gt session stop' first. This is unnecessary friction - done should just stop the session automatically since that's always what you want.


Digest: mol-deacon-patrol

Patrol cycle 20: All agents healthy, handoff threshold reached


Digest: mol-deacon-patrol

Patrol 20: All healthy, 17 sessions


Digest: mol-deacon-patrol

Patrol 206: All nominal


Merge: gt-caih

branch: polecat/furiosa
target: main
source_issue: gt-caih
rig: gastown


Digest: mol-deacon-patrol

Patrol 19: All healthy


Merge: nux-1767138828269

branch: polecat/nux-1767138828269
target: main
source_issue: nux-1767138828269
rig: gastown


Design molecule step hooks

Hooks that fire between molecule steps. When a bead in a molecule closes, trigger hook that can spawn agent attention to prompts/requests. This enables reactive orchestration - the molecule drives, hooks respond. Gas Town feature built on Beads data plane.


Hardcoded 'gastown' rig in Deacon patrol context

In prime.go, the Deacon patrol context hardcodes 'gastown' as the rig name.

**Location**: prime.go L807

```go
rigBeadsDir := filepath.Join(ctx.TownRoot, "gastown", "mayor", "rig")
```

This breaks if:
- The rig is renamed
- The town has multiple rigs
- The Deacon is deployed to a different rig

**Fix options**:
1. Detect rig from context (ctx.Rig)
2. Use town-level beads for Deacon patrol
3. Pass rig name as parameter

The Deacon is a town-level role, so option 2 may be most appropriate.


gt crew add: role_bead field references non-existent bead

## Problem

When `gt crew add` creates an agent bead (e.g., `gt-crew-gastown-grip`), it sets:
```
role_bead: gt-crew-gastown-grip-role
```

This is WRONG. It creates per-instance role bead references that don't exist.

## Correct Pattern

Role beads are SHARED templates defining what a role IS. Agent beads reference them:

| Role Type | Role Bead (shared) | Agent Bead (per-instance) |
|-----------|-------------------|---------------------------|
| Mayor | gt-mayor-role | gt-mayor |
| Deacon | gt-deacon-role | gt-deacon |
| Witness | gt-witness-role | gt-witness-<rig> |
| Refinery | gt-refinery-role | gt-refinery-<rig> |
| Crew | gt-crew-role | gt-crew-<rig>-<name> |
| Polecat | gt-polecat-role | gt-polecat-<rig>-<name> |

## Current State

Working correctly:
- gt-mayor → gt-mayor-role ✅
- gt-witness-gastown → gt-witness-role ✅
- gt-refinery-gastown → gt-refinery-role ✅

Broken:
- gt-deacon → gt-deacon-role (bead doesn't exist)
- gt-crew-* → gt-crew-<rig>-<name>-role (wrong pattern, beads don't exist)
- gt-polecat-* → (not set at all)

## Code Locations

1. `internal/cmd/crew_add.go:91` - sets `RoleBead: crewID + "-role"`
   Should be: `RoleBead: "gt-crew-role"`

2. `internal/polecat/manager.go:220,426` - doesn't set RoleBead
   Should set: `RoleBead: "gt-polecat-role"`

## Fix Required

1. Create missing role beads: gt-crew-role, gt-polecat-role, gt-deacon-role
2. Fix crew_add.go to use shared gt-crew-role
3. Fix polecat/manager.go to use shared gt-polecat-role
4. Update existing crew agent beads to point to gt-crew-role


Digest: mol-deacon-patrol

Patrol: dave handoff (vision docs, 7 design gaps filed), furiosa tracer bullet on gt-oiv0, all agents up


Digest: mol-deacon-patrol

Patrol 11 complete


Witness emits activity events

Witness emits events to activity stream for patrol activity:

Events to emit:
- patrol_started: When witness begins patrol cycle
- polecat_checked: When witness checks a polecat
- polecat_nudged: When witness nudges a stuck polecat
- escalation_sent: When witness escalates to Mayor/Deacon
- patrol_complete: When patrol cycle finishes

This replaces stats tracking in .runtime/witness.json


Digest: mol-deacon-patrol

Patrol cycle 10: all healthy


Digest: mol-deacon-patrol

Patrol #4: All systems nominal


Digest: mol-deacon-patrol

Patrol 2: All healthy, fixed 1 stale lock


Implement await type handlers (gh:run, gh:pr, timer, human, mail)

Implement condition checking for each await type.

## Handlers Needed
- gh:run:<id> - Check GitHub Actions run status via gh CLI
- gh:pr:<id> - Check PR merged/closed status via gh CLI
- timer:<duration> - Simple elapsed time check
- human:<prompt> - Check for human approval (via mail?)
- mail:<pattern> - Check for mail matching pattern

## Interface
```go
type AwaitHandler interface {
    Check(awaitID string) (completed bool, result string, err error)
}
```

## Moved from beads
Originally bd-2l03. Deacon handlers belong in gastown.


Digest: mol-deacon-patrol

Patrol 3: routine, all healthy


Digest: mol-deacon-patrol

Patrol 18 complete


Work on gt-ogr: Fix rig count in tmux status bar. The cou...

Work on gt-ogr: Fix rig count in tmux status bar. The count is showing wrong. Run 'bd show gt-ogr' for details.


MessagingConfig: Fix error message inconsistency in validation

Negative value errors don't wrap ErrMissingField while empty-list errors do. Should be consistent - either all wrap a sentinel or none do.