Rig doctor checks: Refinery health, clones, gitignore

Rig-level doctor checks.

## Checks

### RigIsGitRepo
- Verify .git/ directory exists
- Verify git status works
- Fix: Cannot auto-fix

### GitExcludeConfigured
- Check .git/info/exclude contains Gas Town dirs
- Required entries: polecats/ witness/ refinery/ mayor/
- Fix: Append missing entries

### WitnessExists
- Verify witness/ directory exists
- Verify witness/rig/ is a git clone
- Verify witness/mail/inbox.jsonl exists
- Fix: Create structure, clone repo

### RefineryExists
- Verify refinery/ directory exists
- Verify refinery/rig/ is a git clone
- Verify refinery/mail/inbox.jsonl exists
- Fix: Create structure, clone repo

### MayorCloneExists
- Verify mayor/ directory exists
- Verify mayor/rig/ is a git clone
- Fix: Create structure, clone repo

### PolecatClonesValid
- For each polecat in polecats/:
  - Verify is a git clone
  - Verify on polecat branch
  - Warn if has uncommitted changes
- Fix: Cannot auto-fix (data loss risk)

### BeadsConfigValid (if applicable)
- If .beads/ exists, verify bd commands work
- Check beads sync status
- Warn if out of sync
- Fix: Run bd sync

## Implementation

```go
var RigChecks = []Check{
    &RigIsGitRepoCheck{},
    &GitExcludeConfiguredCheck{},
    &WitnessExistsCheck{},
    &RefineryExistsCheck{},
    &MayorCloneExistsCheck{},
    &PolecatClonesValidCheck{},
    &BeadsConfigValidCheck{},
}
```


Connection interface: Protocol for local/remote ops

Abstract interface for local vs remote (SSH) operations.

## Concept

Enable Gas Town to manage rigs on remote machines via SSH. The Connection interface abstracts whether operations happen locally or remotely.

## Interface

```go
type Connection interface {
    // Identification
    Name() string
    IsLocal() bool

    // File operations
    ReadFile(path string) ([]byte, error)
    WriteFile(path string, data []byte, perm os.FileMode) error
    MkdirAll(path string, perm os.FileMode) error
    Remove(path string) error
    Stat(path string) (os.FileInfo, error)
    Glob(pattern string) ([]string, error)

    // Command execution
    Exec(cmd string, args ...string) ([]byte, error)
    ExecDir(dir, cmd string, args ...string) ([]byte, error)

    // Tmux (for session management)
    TmuxNewSession(name, dir string) error
    TmuxKillSession(name string) error
    TmuxSendKeys(session, keys string) error
    TmuxCapturePane(session string, lines int) (string, error)
}
```

## Implementations

- LocalConnection (gt-f9x.8): Direct file/exec operations
- SSHConnection (future): Operations via SSH

## Usage

```go
func NewRigManager(conn Connection, ...) *RigManager

// Operations work the same regardless of connection type
rm.DiscoverRigs()  // uses conn.Glob, conn.ReadFile
```

## Design Notes

- Connection obtained from MachineRegistry (gt-f9x.9)
- Default is always local
- SSH connection requires machine config (host, key, user)


LocalConnection: Local file/exec/tmux operations

LocalConnection implementation for local machine operations.

## Implementation

```go
type LocalConnection struct {
    tmux *Tmux
}

func NewLocalConnection() *LocalConnection

func (c *LocalConnection) Name() string { return "local" }
func (c *LocalConnection) IsLocal() bool { return true }
```

## File Operations

Direct passthrough to os package:
```go
func (c *LocalConnection) ReadFile(path string) ([]byte, error) {
    return os.ReadFile(path)
}
// etc.
```

## Command Execution

Uses exec.Command:
```go
func (c *LocalConnection) Exec(cmd string, args ...string) ([]byte, error) {
    return exec.Command(cmd, args...).Output()
}
```

## Tmux

Delegates to Tmux wrapper:
```go
func (c *LocalConnection) TmuxNewSession(name, dir string) error {
    return c.tmux.NewSession(name, dir)
}
```

## Notes

Straightforward implementation - this is the "baseline" connection that SSHConnection will mirror remotely.


Machine registry: Store and manage machine configs

Registry for managing remote machines in federation.

## Data Model

```go
type Machine struct {
    Name     string `json:"name"`
    Type     string `json:"type"`      // "local", "ssh", "gcp"
    Host     string `json:"host"`      // for ssh: user@host
    KeyPath  string `json:"key_path"`  // SSH key path
    TownPath string `json:"town_path"` // Path to town on remote
}
```

## Interface

```go
type MachineRegistry struct {
    path     string  // config/federation.json
    machines map[string]*Machine
}

func NewMachineRegistry(configPath string) *MachineRegistry
func (r *MachineRegistry) Get(name string) (*Machine, error)
func (r *MachineRegistry) Add(m *Machine) error
func (r *MachineRegistry) Remove(name string) error
func (r *MachineRegistry) List() []*Machine
func (r *MachineRegistry) Connection(name string) (Connection, error)
```

## Storage

federation.json in config/:
```json
{
  "version": 1,
  "machines": {
    "local": {"type": "local"},
    "gcp-vm-1": {
      "type": "ssh",
      "host": "user@10.0.0.1",
      "key_path": "~/.ssh/gcp_key",
      "town_path": "/home/user/ai"
    }
  }
}
```

## Connection Factory

```go
func (r *MachineRegistry) Connection(name string) (Connection, error) {
    m := r.machines[name]
    switch m.Type {
    case "local":
        return NewLocalConnection(), nil
    case "ssh":
        return NewSSHConnection(m.Host, m.KeyPath), nil
    }
}
```


mol-code-review: Self-improving code review molecule

Create a code review molecule that enables Gas Town to self-improve through automated PR review. Flywheel: review generates quality checks, discovered issues, pattern learning.


Add Gas Town theory of operation to all role primings

All roles (Mayor, Witness, Refinery, Polecat) should get basic GT architecture context: harness, rigs, agents, mail, beads workflow


Merge: gt-pyqv

branch: polecat/dementus
target: main
source_issue: gt-pyqv
rig: gastown

ORPHANED: Branch never pushed, worktree deleted


Merge: gt-5af.6

branch: polecat/Slit
target: main
source_issue: gt-5af.6
rig: gastown


Polecat name pooling: Bounded reusable names

Polecats reuse names from a bounded pool (50) with overflow to sequence numbers.

## Naming Scheme
- Pool: polecat-01 through polecat-50 (prefer low numbers)
- Overflow: <rigname>-<sequenceNumber> (e.g., beads-51, gastown-52)

## Design
- Witness tracks which pool names are in use
- On spawn: pick first available from pool
- If pool exhausted: use rigname-N format
- On completion: pool name returns, sequence numbers don't

## Why?
- User experience: tmux sessions survive polecat restarts
- Users stay attached, see new polecat start (like mayor respawn loop)
- Bounded resource usage for common case
- Scales beyond 50 when needed

## Implementation
- Witness maintains name allocation in beads or local state
- Tmux session runs respawn loop (like mayor)
- Name released on graceful exit or when witness detects dead session


Merge: gt-ih0s

branch: polecat/capable
target: main
source_issue: gt-ih0s
rig: gastown


Direct test

Testing direct bd create


Mayor session cycling prompting

Add session cycling section to Mayor CLAUDE.md template.

## When to Cycle

Cycle proactively when:
- Running for several hours
- Context feels crowded (losing track of earlier state)
- Major phase completed
- About to start complex new work

## Composing Handoff Notes

1. Gather information:
   town status    # Overall health
   town rigs      # Each rig state
   town inbox     # Pending messages
   bd ready       # Work items

2. Compose note with this structure:

[HANDOFF_TYPE]: mayor_cycle
[TIMESTAMP]: <current time>
[SESSION_DURATION]: <how long running>

## Active Swarms
<per-rig swarm status>

## Rig Status
<table of rig health>

## Pending Escalations
<issues needing your decision>

## In-Flight Decisions
<decisions being made>

## Recent Actions
<last 5-10 things you did>

## Delegated Work
<work sent to refineries>

## User Requests
<pending user asks>

## Next Steps
<what next session should do>

## Warnings/Notes
<critical info for next session>

3. Send handoff:
   town mail send mayor/ -s "Session Handoff" -m "<note>"

4. End session - next instance picks up from handoff.


Merge polecat/slit: docs bd mol bond/squash/burn CLI

Branch: polecat/slit

## Summary
Added comprehensive CLI reference documentation for the three molecule lifecycle commands to molecules.md:

- **bd mol bond**: Instantiate proto into Mol (durable) or Wisp (ephemeral)
- **bd mol squash**: Complete molecule and generate digest
- **bd mol burn**: Abandon molecule without digest

Includes argument tables, behavior descriptions, examples, and a lifecycle diagram showing the steam engine metaphor mapping.

Closes: gt-odvf


Molecule Workflow Engine: Composable Crystallized Workflows

# Epic: Molecule Workflow Engine

**Vision**: Molecules are crystallized, composable, nondeterministic-idempotent workflow templates. Any worker can pick up where any other worker was interrupted and continue along the molecule.

**Christmas Target**: Full molecule-based workflow engine operational by Dec 25, 2025.

## The Core Concepts

1. **Molecule**: Read-only workflow template (beads issue with type=molecule)
2. **Atom/Step**: Individual work unit with prose instructions
3. **Bond**: Dependency between steps
4. **Polymer/Derived**: Molecule composed from other molecules
5. **Instance**: Concrete beads created when molecule is attached to work

## Key Features Needed

### 1. Molecule Composition (Includes Directive)
Molecules can include other molecules:
\`\`\`markdown
## Molecule: gastown-polecat
Includes: mol-engineer-in-box

## Step: install-binary
Build and install the local gt binary.
Needs: submit
\`\`\`

### 2. Standard Molecules
- mol-install-go-binary: Single step to build/install gt
- mol-gastown-polecat: engineer-in-box + install-binary

### 3. Spawn Integration
\`gt spawn --issue <id> --molecule <mol-id>\` creates molecule instance then starts polecat on first ready step.

### 4. Nondeterministic Idempotence
- Steps are atomic (pending → in_progress → completed)
- Any worker can pick up any ready step
- Step timeout/recovery for stuck workers

## Success Criteria
- [ ] Polecats can be spawned with mol-gastown-polecat
- [ ] Derived molecules work end-to-end
- [ ] 10+ polecat swarm completes molecule workflows
- [ ] install-go-binary step runs after successful merges


Molecule composition: Includes directive

Add support for molecule composition via the Includes directive.

## Format
\`\`\`markdown
## Molecule: derived-name
Includes: mol-base-molecule

## Step: additional-step
Additional instructions here.
Needs: step-from-base
\`\`\`

## Implementation
1. Add \`Includes:\` parsing to ParseMoleculeSteps()
2. Resolve included molecule by ID
3. Merge steps from included molecule
4. Allow new steps to depend on included steps
5. Support multiple includes (polymers)

## Files to modify
- internal/beads/molecule.go
- internal/beads/molecule_test.go

## Acceptance
- [ ] Parse Includes directive
- [ ] Resolve and merge included steps
- [ ] Dependencies across molecules work
- [ ] Multiple includes supported
- [ ] Tests cover composition scenarios


Create mol-install-go-binary molecule

Create a single-step molecule for building and installing the gt binary.

## Molecule Definition
\`\`\`markdown
## Molecule: install-go-binary
Single step to rebuild and install the gt binary after code changes.

## Step: install
Build and install the gt binary locally.

Run from the rig directory:
\`\`\`
go build -o gt ./cmd/gt
go install ./cmd/gt
\`\`\`

Verify the installed binary is updated:
\`\`\`
which gt
gt --version  # if we have version command
\`\`\`
\`\`\`

## Implementation
1. Add to builtin_molecules.go
2. Update SeedBuiltinMolecules to include it
3. Run gt molecule seed

## Acceptance
- [ ] mol-install-go-binary exists in beads
- [ ] Can be instantiated standalone
- [ ] Can be included by other molecules


Create mol-gastown-polecat derived molecule

Create the standard Gas Town polecat workflow molecule.

## Molecule Definition
\`\`\`markdown
## Molecule: gastown-polecat
Full workflow for Gas Town polecats including binary installation.

Includes: mol-engineer-in-box

## Step: install-binary
After merge is submitted, rebuild and install the local gt binary.
This ensures the latest code is available to all local agents.

Run from the rig directory:
\`\`\`
go build -o gt ./cmd/gt
go install ./cmd/gt
\`\`\`

Needs: submit
\`\`\`

## Why This Molecule
Every polecat that pushes to main should also rebuild the binary.
This ensures the installed gt is always current with main.

## Implementation
1. Add to builtin_molecules.go (after Includes support lands)
2. Update SeedBuiltinMolecules
3. Run gt molecule seed

## Acceptance
- [ ] mol-gastown-polecat exists
- [ ] Includes all engineer-in-box steps
- [ ] Adds install-binary step after submit
- [ ] Can be used with gt spawn --molecule


Step recovery: timeout and release

Implement recovery mechanism for stuck molecule steps.

## Problem
When a worker dies mid-step, the step stays in_progress forever.
Need timeout/release mechanism for nondeterministic idempotence.

## Solution
1. Track step start time (claimed_at timestamp)
2. Timeout: After 30 min in_progress, step returns to pending
3. Manual release: bd release <step-id>

## Implementation Options

### Option A: Beads-level timeout
- Add claimed_at field to issues
- bd ready excludes items in_progress < 30 min
- bd ready includes items in_progress > 30 min (auto-recovery)

### Option B: Daemon-level timeout
- Daemon watches in_progress items
- Moves back to pending after timeout

### Option C: Manual only (MVP)
- bd release <id> manually moves in_progress → pending
- Document recovery procedure
- Witness can automate for polecats

## Recommendation
Start with Option C (manual) for Christmas. Add Option A later.

## Acceptance
- [ ] bd release command works
- [ ] Stuck steps can be recovered
- [ ] Documented recovery procedure


Spawn --molecule integration

Implement gt spawn --molecule flag for molecule-based polecat workflows.

Usage: gt spawn --issue gt-xyz --molecule mol-gastown-polecat

Behavior:
1. Validate molecule exists and is well-formed
2. Create molecule instance (child beads) under the issue
3. Find first ready step(s) in the instance
4. Spawn polecat with first ready step as initial work

Implementation:
1. Add --molecule flag to spawn command
2. Call molecule.Instantiate()
3. Query ready steps from instance
4. Pass first ready step to polecat context

Files: internal/cmd/spawn.go

Acceptance:
- --molecule flag works
- Creates proper molecule instance
- Polecat starts on first ready step
- End-to-end test with actual polecat


gt handoff: Unified agent lifecycle command

## Summary

Unified `gt handoff` command for ALL agent types to request lifecycle actions.

## Usage

gt handoff              # Context-aware default
gt handoff --shutdown   # Terminate, cleanup, don't restart
gt handoff --cycle      # Restart with handoff mail
gt handoff --restart    # Fresh restart, no handoff

## Context-Aware Defaults

| Agent Type | Default | Reason |
|------------|---------|--------|
| Polecat | --shutdown | Ephemeral, work is done |
| Witness | --cycle | Long-running, context full |
| Refinery | --cycle | Long-running, context full |
| Mayor | --cycle | Long-running, context full |
| Crew | (sends mail only) | Human-managed |

## What gt handoff Does

1. **Verify safe to stop**
   - Git state clean (no uncommitted changes)
   - Work handed off (PR exists for polecats)

2. **Send handoff mail to self** (for cycle/restart)
   - Captures current state
   - New session will read this

3. **Send lifecycle request to manager**
   - Polecats/Refinery → Witness
   - Witness/Mayor → Daemon
   - Format: mail to <manager> with action type

4. **Set state: requesting_<action>**
   - Lifecycle manager checks this before acting

5. **Wait for termination**
   - Don't self-exit - let manager kill session
   - Ensures clean handoff

## Lifecycle Request Flow

Agent                           Lifecycle Manager
  |                                    |
  | 1. gt handoff --cycle              |
  |    a. Verify git clean             |
  |    b. Send handoff mail to self    |
  |    c. Set requesting_cycle=true    |
  |    d. Send lifecycle request       |
  |------------------------------------→|
  |                                    |
  |                   2. Receive request
  |                   3. Verify state  |
  |                   4. Kill session  |
  |                   5. Start new     |
  |                      (for cycle)   |
  |                                    |
  |         New session reads handoff  |
  |         Resumes work               |

## Who Manages Whom

| Agent | Sends lifecycle request to |
|-------|---------------------------|
| Polecat | <rig>/witness |
| Refinery | <rig>/witness |
| Witness | daemon/ |
| Mayor | daemon/ |

## Implementation

1. Detect current role (polecat, witness, refinery, mayor, crew)
2. Apply context-aware default if no flag specified
3. Run pre-flight checks (git clean, work handed off)
4. Send handoff mail to self (if cycling)
5. Send lifecycle request to appropriate manager
6. Set requesting_<action> in state.json
7. Wait (manager will kill us)

## For Polecats (--shutdown)

Additional cleanup after kill:
- Witness removes worktree
- Witness deletes polecat branch
- Polecat ceases to exist

## Related Issues

- gt-99m: Daemon (handles Mayor/Witness lifecycle)
- gt-7ik: Ephemeral polecats (polecat cleanup)
- gt-eu9: Witness session cycling


Clarify Mayor vs Witness cleanup responsibilities

Document the cleanup authority model: Witness owns ALL per-worker cleanup, Mayor never involved.

## The Rule

**Witness handles ALL per-worker cleanup. Mayor is never involved.**

## Why This Matters

1. Separation of concerns: Mayor strategic, Witness operational
2. Reduced coordination overhead: No back-and-forth for routine cleanup
3. Faster shutdown: Witness kills workers immediately upon verification
4. Cleaner escalation: Mayor only hears about problems

## What Witness Handles

- Verifying worker git state before kill
- Nudging workers to fix dirty state
- Killing worker sessions
- Updating worker state (sleep/wake)
- Logging verification results

## What Mayor Handles

- Receiving swarm complete notifications
- Deciding whether to start new swarms
- Handling escalations (stuck workers after 3 retries)
- Cross-rig coordination

## Escalation Path

Worker stuck -> Witness nudges (up to 3x) -> Witness escalates to Mayor -> Mayor decides: force kill, reassign, or human

## Anti-Patterns

DO NOT: Mayor asks Witness if worker X is clean
DO: Witness reports swarm complete, all workers verified

DO NOT: Mayor kills worker sessions directly
DO: Mayor tells Witness to abort swarm, Witness handles cleanup

DO NOT: Workers report done to Mayor
DO: Workers report to Witness, Witness aggregates and reports up


bd ready --blockers: prioritize issues that block other work

bd ready should prioritize issues that are blocking other work.

**From VC**: Blocker-first prioritization in GetReadyWork(). ~100 lines.
Algorithm: baseline-failure first, then discovered:blocker, then by priority.

**Gas Town implementation**: CLI flag or default behavior:
```bash
bd ready --blockers-first  # Or make this default
```

Checks dependency graph. Issues with many dependents surface first.

**Value**: Unblocks parallelism faster. Critical path gets cleared.

**VC lesson**: Without blocker priority, work can starve on discovered issues.


Merge Queue in Beads: Universal chit system for all work

**Design doc**: docs/merge-queue-design.md


MR field parsing: extract structured fields from description

Parse merge-request beads to extract structured fields:
- branch: source branch name
- target: target branch (main or integration/xxx)
- source_issue: the work item being merged
- worker: who did the work
- rig: which rig
- merge_commit: (set on close)
- close_reason: (set on close)

Fields stored in description as YAML block or key: value lines.
Provide helper functions: ParseMRFields(issue) and SetMRFields(issue, fields).

Reference: docs/merge-queue-design.md#merge-request-schema


Auto-rebase on conflict: optional automatic rebase

Implement automatic rebase as conflict resolution option.

When on_conflict=auto_rebase and conflicts detected:
1. Attempt: git rebase <target> <source-branch>
2. If clean rebase: update source branch, continue merge
3. If conflicts in rebase: abort, fall back to assign_back
4. Force push rebased branch (worker's branch)

Requires:
- Worker branch must be force-pushable
- Config: on_conflict: auto_rebase

Risks:
- Force push can confuse workers
- Complex conflicts still need manual resolution

Reference: docs/merge-queue-design.md#conflict-resolution-strategies


Retry logic: exponential backoff for transient failures

Implement retry logic for transient failures.

Retryable failures:
- Push failed (network, auth transient)
- Test flaky (config: retry_flaky_tests)
- Fetch failed (network)

Retry strategy:
- Max retries: 3 (configurable)
- Backoff: 1s, 2s, 4s (exponential)
- On final failure: treat as permanent, assign back

Non-retryable failures:
- Merge conflict
- Test consistently fails
- Build error

Track retry count in MR metadata for debugging.

Reference: docs/merge-queue-design.md#failure-recovery


MQ metrics: pending count, processing time, success rate

Implement merge queue metrics collection.

Metrics to track:
- mq_pending_count: MRs waiting
- mq_processing_time: Time from submit to merge (histogram)
- mq_success_rate: Merges vs rejections
- mq_conflict_rate: How often conflicts occur
- mq_test_failure_rate: Test failures

Storage options:
- Simple: JSON file with rolling stats
- Advanced: Prometheus-compatible metrics endpoint

Display via:
- gt mq stats: summary statistics
- Dashboard widget (separate task)

Reference: docs/merge-queue-design.md#observability


MQ dashboard widget: queue status in TUI

Add merge queue status widget to the Bubbletea TUI dashboard.

Display:
┌─────────────────────────────────────────────────┐
│              MERGE QUEUE STATUS                  │
├─────────────────────────────────────────────────┤
│ Pending: 3   In Progress: 1   Merged (24h): 12  │
├─────────────────────────────────────────────────┤
│ QUEUE:                                          │
│   ► gt-mr-004  P0  Nux/gt-xyz     Processing... │
│     gt-mr-005  P1  Toast/gt-abc   Ready         │
│     gt-mr-006  P1  Capable/gt-def Blocked (005) │
└─────────────────────────────────────────────────┘

Interactive features:
- Navigate queue entries
- View MR details
- Retry/reject from dashboard

Depends on: gt-u1j.2 (Bubbletea TUI dashboard)

Reference: docs/merge-queue-design.md#dashboard


Direct landing integration: gt land uses MR or bypasses

Integrate direct landing with merge queue.

'gt land --direct' should:
1. Check if MR exists for the polecat's work
2. If MR exists: process it directly (skip queue)
3. If no MR: create temporary MR, process, close

Options:
- --direct: bypass queue (existing)
- --via-queue: ensure goes through queue (new)
- --force: skip safety checks (existing)

This ensures direct landing still creates proper records.

Reference: docs/merge-queue-design.md#direct-landing-bypass-queue


Rollback support: gt mq revert for problematic merges

Implement 'gt mq revert <mr-id>' for rolling back merges.

Actions:
1. Find merge commit from closed MR
2. Create revert commit: git revert <merge-commit>
3. Push revert to target branch
4. Create 'reverted' MR tracking the revert
5. Optionally reopen source issue

Options:
- --reason REASON: required explanation
- --reopen-issue: reopen the source work item

Track revert in MR metadata for audit trail.

Reference: docs/merge-queue-design.md#open-questions


MR ID generation: prefix-mr-hash convention

Generate merge-request IDs following the convention: <prefix>-mr-<hash>

Example: gt-mr-abc123 for a gastown merge request.

This distinguishes MRs from regular issues while keeping them in the same namespace.
The hash should be derived from branch name + timestamp for uniqueness.

Implement: GenerateMRID(prefix, branch string) string

Reference: docs/merge-queue-design.md#id-convention


MR state transitions: validate open→in_progress→closed

Enforce valid state transitions for merge-requests:

Valid transitions:
- open → in_progress (Engineer claims MR)
- in_progress → closed (merge success or rejection)
- in_progress → open (failure, reassign to worker)
- open → closed (manual rejection)

Invalid:
- closed → anything (immutable once closed)

Implement validation in MR update operations.

Reference: docs/merge-queue-design.md#state-machine


gt mq integration create: create integration branch for epic

Implement 'gt mq integration create <epic>' command.

Actions:
1. Verify epic exists
2. Create branch: integration/<epic-id> from main
3. Push to origin
4. Store integration branch info in epic metadata

Usage:
  gt mq integration create gt-auth-epic
  # Creates integration/gt-auth-epic from main

Future MRs for this epic's children will auto-target this branch.

Reference: docs/merge-queue-design.md#integration-branches


gt mq integration land: merge integration branch to main

Implement 'gt mq integration land <epic>' command.

Actions:
1. Verify all MRs targeting integration/<epic> are merged
2. Verify integration branch exists
3. Merge integration/<epic> to main (--no-ff)
4. Run tests on main
5. Push to origin
6. Delete integration branch
7. Update epic status

Options:
- --force: land even if some MRs still open
- --skip-tests: skip test run
- --dry-run: preview only

This creates a single merge commit for the entire epic's work.

Reference: docs/merge-queue-design.md#integration-branches


gt mq integration status: show integration branch status

Implement 'gt mq integration status <epic>' command.

Display:
- Integration branch name and creation date
- Commits ahead of main
- MRs merged to integration (closed)
- MRs pending (open, targeting integration)
- Comparison: main..integration/<epic>

Output example:
  Integration: integration/gt-auth-epic
  Created: 2025-12-17
  Ahead of main: 5 commits

  Merged MRs (3):
    gt-mr-001  Fix login timeout
    gt-mr-002  Fix session expiry
    gt-mr-003  Update auth config

  Pending MRs (1):
    gt-mr-004  Update auth tests (in_progress)

Reference: docs/merge-queue-design.md#integration-branches


Auto-target: MRs for epic children target integration branch

Automatically target integration branches for epic children.

When 'gt mq submit' is called:
1. Parse source issue from branch
2. Check if issue has a parent epic
3. Check if integration/<epic> branch exists
4. If yes: set target=integration/<epic>
5. If no: set target=main

This ensures batch work automatically flows to integration branches.

Also update 'gt mq submit --epic' to explicitly target an epic's integration branch.

Reference: docs/merge-queue-design.md#integration-branches


MQ config schema: merge_queue section in rig config.json

Define and implement merge_queue configuration in rig config.

Schema:
{
  "merge_queue": {
    "enabled": true,
    "target_branch": "main",
    "integration_branches": true,
    "on_conflict": "assign_back",  // or "auto_rebase"
    "run_tests": true,
    "test_command": "go test ./...",
    "delete_merged_branches": true,
    "retry_flaky_tests": 1,
    "poll_interval": "30s",
    "max_concurrent": 1
  }
}

Implement:
- Config loading in rig package
- Default values
- Validation

Reference: docs/merge-queue-design.md#configuration


Per-epic config overrides: custom merge settings

Allow per-epic merge configuration overrides.

Epic can specify merge_config in its description:
  merge_config:
    run_tests: true
    test_command: 'go test -race ./...'
    on_conflict: assign_back

When processing MRs for an epic:
1. Load rig-level merge_queue config
2. Check if epic has merge_config
3. Merge epic config over rig config
4. Use merged config for processing

Use cases:
- Risky refactors: more thorough testing
- Urgent fixes: skip some checks
- Experimental work: different test suite

Reference: docs/merge-queue-design.md#per-epic-overrides


mol-deacon-patrol

Deacon patrol molecule template. Label: template


gt polecat remove --all: bulk polecat teardown

Currently gt polecat remove only accepts one polecat at a time. Need bulk operations:

## Requested
- `gt polecat remove gastown --all` - remove all polecats from a rig
- `gt polecat remove gastown/A gastown/B ...` - remove multiple by name

## Context
After a swarm completes, tearing down 20 polecats one at a time is tedious.
Ephemeral workers should be easy to create and destroy in bulk.

## Related
- gt-c92: CLI: all command for batch polecat operations


Mail system: message types and threading

GGT mail system needs message types and threading like PGT.

## 1. Message Types
Add to internal/mail/types.go:
```go
type MessageType string
const (
    TypeTask         MessageType = "task"         // Required processing
    TypeScavenge     MessageType = "scavenge"     // Optional first-come work
    TypeNotification MessageType = "notification" // Informational
    TypeReply        MessageType = "reply"        // Response to message
)

// Update Message struct
type Message struct {
    // existing fields...
    Type     MessageType `json:"type"`
    ThreadID string      `json:"thread_id,omitempty"`
    ReplyTo  string      `json:"reply_to,omitempty"`
}
```

## 2. Priority Levels
Expand from 2 to 4:
```go
type Priority string
const (
    PriorityLow    Priority = "low"
    PriorityNormal Priority = "normal"
    PriorityHigh   Priority = "high"
    PriorityUrgent Priority = "urgent"
)
```

## 3. CLI Updates
internal/cmd/mail.go:
- Add --type flag to send: `gt mail send ... --type task`
- Add --reply-to flag: `gt mail send ... --reply-to <msg-id>`
- Add thread command: `gt mail thread <thread-id>`

## 4. Threading Logic
NewMessage() should auto-generate thread_id if not a reply.
Reply messages inherit thread_id from original.

## Files to Modify
- internal/mail/types.go: Add types, expand Priority
- internal/mail/mailbox.go: Thread filtering
- internal/cmd/mail.go: CLI flags and thread command

## PGT Reference
gastown-py/src/gastown/mail/message.py

## Acceptance Criteria
- [ ] Messages have type field (default: notification)
- [ ] 4 priority levels supported
- [ ] Reply creates thread with shared thread_id
- [ ] gt mail thread <id> shows conversation


Merge: gt-3x0z.2

branch: polecat/nux
target: main
source_issue: gt-3x0z.2
rig: gastown

No code changes - gt-3x0z.2 closed as blocked on bd implementation


Merge: gt-rana.1

branch: polecat/rictus
target: main
source_issue: gt-rana.1
rig: gastown


Heartbeat convention: simple liveness signal for agents

Lightweight liveness signal extracted from Deacon epic (gt-5af).

**Implementation**: Each agent writes a timestamp file on activity:
```bash
echo '{"ts":"'$(date -Iseconds)'"}' > ~/gt/<role>/heartbeat.json
```

**Integration points**:
- SessionStart hook writes heartbeat
- Periodic activity (mail check, work completion) refreshes it
- `gt status` shows staleness (e.g., 'mayor: 5m ago')

**Weight**: ~5 lines per agent
**Value**: Quick debugging - see which agents are active at a glance

No monitoring daemon needed - human checks `gt status` when curious.


GGT Command Parity: Complete gt command coverage

Complete gt command set to match/exceed PGT town commands.

Covers: uninstall, rig info, refinery attach, witness, session mgmt, mail UX, daemon.


Merge: gt-odvf

branch: polecat/slit
target: main
source_issue: gt-odvf
rig: gastown


gt witness: Witness management commands

Add 'gt witness' command group for witness lifecycle management.

Subcommands:
- gt witness start [rig] - Start witness for a rig
- gt witness stop [rig] - Stop witness
- gt witness status [rig] - Show witness status
- gt witness attach [rig] - Attach to witness session

Witness monitors polecats and handles:
- Idle detection and cleanup
- Session health checks
- Nudging stuck agents


🤝 HANDOFF: Timing fixes applied

Fixed mayor attach timing bug. Completed: timing fix, gt-tulx, Emma beads-6v2. Remaining P1: gt-17zr, gt-kcee, gt-szsq. Run gt prime on startup.


Deacon Kernel: event processing molecule architecture

Extend the Deacon from "health orchestrator" to "event processing kernel" that runs a
molecule (rounds) each wake cycle, like an OS kernel scheduler.

## Core Insight

The Deacon already has:
- Wake cycle (daemon poke, timer, lifecycle request)
- Mail as event queue
- Health scanning
- Lifecycle processing

But it is REACTIVE. This epic makes it PROACTIVE with a structured molecule:

```
Deacon Wake
├── Step 0: Session Check (should I cycle myself?)
├── Step 1: Health Scan (Mayor, Witnesses, Crew, Refineries)
├── Step 2: Lifecycle Processing (cycle/restart/shutdown requests)
├── Step 3: Plugin Execution (scheduled, event-triggered, human-requested)
├── Step 4: Event Callbacks (timers, subscriptions)
└── Step 5: Heartbeat + Wait
```

## Key Design Decisions

1. **Session cycling first** - Token costs are quadratic with session length.
   Deacon should aggressively cycle to fresh sessions. First step of every
   wake is "do I need a new session?" based on context budget.

2. **Pinned bead with marching orders** - A pinned bead (like gt prime for
   agents) defines the Deacon's rounds molecule. This is the Deacon's
   "kernel" - its operating loop.

3. **Keepalive file for daemon quieting** - Instead of daemon tmux-poking
   the Deacon (which interrupts work), Deacon writes a keepalive file.
   Daemon reads it and backs off. Worst case: Deacon forgets, gets one
   extra heartbeat it squelches.

4. **Molecule-based rounds** - The wake cycle becomes a molecule with steps.
   Each step can have plugins (inline attention). Steps can be added/modified
   by updating the pinned bead.

## Architecture

```
Go Daemon (minimal, dumb)
├── Reads {townRoot}/deacon/keepalive.json
├── If fresh: do nothing
├── If stale: poke Deacon (fallback)
└── Process lifecycle requests (still daemon's job)

Deacon (Claude agent, smart)
├── Wakes: poke, timer, mail event
├── Writes keepalive (quiets daemon for duration of rounds)
├── Runs rounds molecule:
│   ├── session-check: cycle if context budget low
│   ├── health-scan: check agents, remediate
│   ├── lifecycle: process requests
│   ├── plugins: run scheduled/triggered plugins
│   ├── events: process timer/event callbacks
│   └── complete: update heartbeat, wait
└── Reads marching orders from pinned bead
```

## Relation to Existing Work

- Extends gt-5af (Deacon infrastructure) - CLOSED
- Relates to gt-axz (Plugin architecture) - P3
- Fits into phase3-deacon of gt-ngpz (Christmas Plan)
- Enables gt-976 (Crew lifecycle) as part of health-scan step


Deacon session cycling: first step of rounds

First step of every Deacon wake cycle: check if a fresh session is needed.

## Why First

Token costs are quadratic with session length. A Deacon running for hours
accumulates massive context. Better to cycle early and often.

## Implementation

At wake, before doing anything else:

1. Check context budget estimate (conversation turns, tool calls, etc.)
2. If budget is low (e.g., >50% consumed), request cycle:
   - Write handoff mail to self with current state
   - Request lifecycle: cycle via daemon
   - Daemon kills session, starts fresh
   - New session reads handoff mail, continues

## Decision Criteria

- Conversation turns > N (configurable, default 50?)
- Explicit "context feels heavy" signal from Claude
- Time since last cycle > M hours (configurable, default 4?)
- Forced cycle on certain events (e.g., major config change)

## State to Preserve in Handoff

- Current health status
- Pending lifecycle requests (in flight)
- Plugin state (last run times, outcomes)
- Any active timers

## Relation to Daemon

The Deacon requests its own cycle via the same lifecycle mechanism:
```
gt mail send deacon/ -s "LIFECYCLE: deacon/ requesting cycle" -m "..."
```

Daemon sees this, kills gt-deacon session, respawn loop restarts it.


Deacon marching orders: pinned bead with rounds molecule

Create a pinned bead that defines the Deacon's rounds molecule - its "kernel".

## Concept

Like `gt prime` gives agents their context, a pinned bead gives the Deacon
its operating instructions. This bead defines:

1. The rounds molecule (steps to execute each wake)
2. Registered plugins (scheduled, event-triggered)
3. Configuration (timeouts, thresholds, escalation rules)

## Pinned Bead Structure

```yaml
# gt-deacon-kernel (pinned)
title: "Deacon Kernel Configuration"
type: policy
pinned: true

molecule: mol-deacon-rounds
  steps:
    - session-check: "Check context budget, cycle if needed"
    - health-scan: "Check Mayor, Witnesses, Refineries, Crew"
    - lifecycle: "Process pending lifecycle requests"
    - plugins: "Run due scheduled plugins"
    - events: "Process timer callbacks, event subscriptions"
    - complete: "Update heartbeat, return to wait"

plugins:
  scheduled:
    - name: beads-hygiene
      schedule: "0 2 * * *"  # 2 AM daily
    - name: branch-cleanup
      schedule: "0 4 * * 0"  # 4 AM Sundays

  event_triggers:
    - event: "issue.created"
      plugin: work-oracle
    - event: "mr.submitted"
      plugin: review-oracle

config:
  session_cycle_threshold_turns: 50
  session_cycle_threshold_hours: 4
  health_scan_timeout_seconds: 60
  plugin_timeout_minutes: 30
  escalation_after_failures: 3
```

## Reading Marching Orders

On wake, Deacon:
1. `bd show --pinned` to find the kernel bead
2. Parse molecule steps
3. Execute in order

## Updating the Kernel

To change Deacon behavior:
1. `bd update gt-deacon-kernel` with new config
2. Next wake cycle picks up changes
3. No code changes required

## Bootstrap

If no pinned bead exists, Deacon uses hardcoded defaults from DEACON.md.
First installation creates the pinned bead.


Deacon keepalive: quiet daemon during rounds

Replace tmux-poke interrupts with a keepalive file the daemon respects.

## Problem

Current daemon pokes Deacon via tmux SendKeys every ~5 minutes if heartbeat
is stale. This can INTERRUPT the Deacon mid-work, especially during long
plugin execution or health remediation.

## Solution

Deacon writes a keepalive file at start of rounds:
```json
{
  "timestamp": "2025-12-20T15:30:00Z",
  "expected_duration_minutes": 10,
  "action": "executing mol-deacon-rounds"
}
```

Daemon reads this and backs off:
- If keepalive is fresh AND within expected_duration: skip poke
- If keepalive is stale OR past expected_duration: poke (fallback)

## Files

- `{townRoot}/deacon/keepalive.json` - Written by Deacon
- Daemon already reads `{townRoot}/deacon/heartbeat.json` - similar pattern

## Deacon Behavior

1. Start of rounds: write keepalive with expected duration
2. End of rounds: write heartbeat (existing), clear/update keepalive
3. If rounds take longer than expected: Deacon gets one poke, squelches it

## Daemon Changes

Modify `pokeDeacon()` in daemon.go:
1. Check keepalive.json freshness and expected_duration
2. If within bounds: skip poke, log "Deacon active"
3. If past bounds: poke as fallback

## Worst Case

Deacon crashes mid-rounds without clearing keepalive:
- Daemon waits until expected_duration expires
- Then pokes, triggering respawn loop
- Max delay: expected_duration (configurable, default 10-15 min)

## Configuration

In pinned kernel bead:
```yaml
config:
  rounds_expected_duration_minutes: 10
```


Deacon rounds molecule: the kernel execution loop

Define and implement mol-deacon-rounds - the molecule the Deacon executes each wake.

## Molecule Definition

```markdown
# mol-deacon-rounds

The Deacon kernel - executed on every wake cycle.

## Step: session-check
Check context budget. If low, cycle to fresh session.
Needs: (none - always runs first)

## Step: health-scan
Check health of all monitored agents:
- Mayor (gt-mayor session)
- Witnesses (gt-*-witness sessions)
- Refineries (gt-*-refinery sessions)
- Crew (gt-*-* sessions, lifecycle only)

Remediate unhealthy agents:
- Restart dead sessions
- Nudge stuck agents
- Escalate if remediation fails

Needs: session-check

## Step: lifecycle
Process pending lifecycle requests from mail:
- LIFECYCLE: <identity> requesting cycle
- LIFECYCLE: <identity> requesting restart
- LIFECYCLE: <identity> requesting shutdown

Needs: health-scan

## Step: plugins
Run due plugins:
1. Check scheduled plugins (cron-like)
2. Check event-triggered plugins (from mail events)
3. Check human-requested plugins (from mail)
4. Execute each, record outcomes

Needs: lifecycle

## Step: events
Process timer and event callbacks:
- TIMER: <identity> wake at <time>
- EVENT: <type> <payload>

Notify relevant agents or trigger actions.

Needs: plugins

## Step: complete
Finalize the cycle:
1. Update heartbeat.json
2. Clear/update keepalive.json
3. Log summary
4. Return to prompt (wait for next wake)

Needs: events
```

## Execution

The Deacon reads this molecule from its pinned bead and executes steps in order.
Each step:
1. Announces "Starting <step>"
2. Performs the step logic
3. Records outcome
4. Proceeds to next step

## Step Plugins

Each step can have inline plugins (additional attention):
```yaml
step: health-scan
  plugins:
    - advanced-diagnostics  # Run if basic scan finds issues
```

## Relation to bd mol

Uses the same molecule format as bd mol for polecats.
Deacon molecule is special: it's the kernel, not work.


Deacon plugin scheduler: cron-like execution

Implement scheduled plugin execution in the Deacon's plugins step.

## Concept

Plugins are just directories with config. Deacon checks which are due
and executes them during the plugins step of rounds.

## Plugin Registration

Plugins are registered in:
1. Pinned kernel bead (preferred)
2. `{townRoot}/plugins/` directory scan (fallback)

Each plugin has:
```json
{
  "name": "beads-hygiene",
  "schedule": "0 2 * * *",
  "last_run": "2025-12-20T02:00:00Z",
  "enabled": true,
  "attention_budget": "low",
  "max_duration_minutes": 30
}
```

## Schedule Format

Standard cron format: `minute hour day month weekday`
- `0 2 * * *` - 2 AM daily
- `0 4 * * 0` - 4 AM Sundays
- `*/15 * * * *` - Every 15 minutes

## Execution

During plugins step:
1. Load plugin schedules from kernel bead + directory
2. For each plugin:
   a. Parse schedule, check if due (last_run + schedule)
   b. If due, execute:
      - Read `plugins/{name}/CLAUDE.md` for context
      - Run plugin logic (inline or spawn subagent)
      - Record outcome and update last_run
3. Continue to next step

## Plugin Execution Modes

- **inline**: Deacon runs the plugin logic directly (simple, fast)
- **subagent**: Spawn a polecat-like agent for the plugin (complex, parallel)
- **mail**: Send mail to another agent to do the work (delegation)

## State Tracking

`{townRoot}/deacon/plugin-state.json`:
```json
{
  "plugins": {
    "beads-hygiene": {
      "last_run": "2025-12-20T02:00:00Z",
      "last_outcome": "success",
      "run_count": 42,
      "failure_count": 2
    }
  }
}
```

## Relation to gt-axz

This implements the execution side of the plugin architecture (gt-axz).
gt-axz defines the format; this task implements the scheduler.


Deacon event/timer callbacks: reactive triggers

Implement event-triggered and timer-based callbacks in the Deacon.

## Timer Callbacks

Agents can schedule future wakes by mailing the Deacon:
```
Subject: TIMER: gastown/witness wake at 2025-12-20T16:00:00Z
Body: Please nudge me - I'm waiting for external dependency
```

Deacon processing:
1. Parse timer mail
2. Check if time has passed
3. If yes: mail the agent "WAKE: Timer fired"
4. Close the timer mail

## Event Subscriptions

Plugins/agents can subscribe to events:
```yaml
# In kernel bead or plugin config
event_triggers:
  - event: "issue.created"
    action: mail
    target: "plugins/work-oracle"

  - event: "mr.submitted"
    action: run
    plugin: "review-oracle"

  - event: "agent.stuck"
    action: escalate
    target: human
```

## Event Sources

Events come through mail to deacon/:
```
Subject: EVENT: issue.created gt-abc123
Body: New issue created in gastown rig
```

## Event Types

Initial event types:
- `issue.created` - New bead created
- `issue.closed` - Bead closed
- `mr.submitted` - Merge request submitted
- `mr.merged` - Merge request merged
- `agent.stuck` - Agent appears stuck (from health scan)
- `agent.failed` - Agent remediation failed

## Event Processing

During events step:
1. Read event mail from inbox
2. Match against subscriptions
3. Execute actions:
   - `mail`: Send mail to target
   - `run`: Execute plugin inline
   - `spawn`: Spawn subagent for plugin
   - `escalate`: Mail human

## Relation to Mail

Mail IS the event bus. No separate event system.
Events are just specially-formatted mail to deacon/.


mol-deacon-patrol

Deacon patrol molecule template. Label: template


inbox-check

Handle callbacks from agents. Check gt mail inbox, process lifecycle requests.


plugin-run

Execute plugins from ~/gt/plugins/. Check gates, run eligible plugins.


orphan-check

Find abandoned work. Check for in_progress issues with no active agent.


session-gc

Clean dead sessions. Run gt gc --sessions.


loop-or-exit

Decision: burn and loop if context low, exit for respawn if context high.


Fix blocking bugs (gt-dsfi, gt-n7z7, gm-c6b)

Fix bugs blocking Witness functionality:

1. gt-dsfi: handoff deadlock
   - Polecats hang when trying to exit
   - Blocks shutdown request handler

2. gt-n7z7: refinery foreground race condition
   - Sometimes detects parent as already running
   - Blocks reliable Refinery startup

3. gm-c6b: mail coordination
   - Cross-rig mail should use town-level database
   - Affects Witness <-> Mayor communication

These should be fixed early as they'll block integration testing.

Fixed gt-dsfi and gt-n7z7. Issue gm-c6b not found in database.


Architecture: Decentralized rig structure with per-rig agents

## Decision

Adopt decentralized architecture where each rig contains all its agents (mayor/, witness/, refinery/, polecats/) rather than centralizing mayor clones at town level.

## Town Level Structure

```
~/ai/                              # Town root
├── config/                        # Town config (VISIBLE, not hidden)
│   ├── town.json                  # {"type": "town"}
│   ├── rigs.json                  # Registry of managed rigs
│   └── federation.json            # Wasteland config (future)
│
├── mayor/                         # Mayor's HOME at town level
│   ├── CLAUDE.md
│   ├── mail/inbox.jsonl
│   └── state.json
│
└── <rigs>/                        # Managed projects
```

## Rig Level Structure (e.g., wyvern)

```
wyvern/                            # Rig = clone of project repo
├── .git/info/exclude              # Gas Town adds: polecats/ refinery/ witness/ mayor/
├── .beads/                        # Beads (if project uses it)
├── [project files]                # Clean project code on main
│
├── polecats/                      # Worker clones
│   └── <name>/                    # Each is a git clone
│
├── refinery/
│   ├── rig/                       # Refinery's clone
│   ├── state.json
│   └── mail/inbox.jsonl
│
├── witness/                       # NEW: Per-rig pit boss
│   ├── rig/                       # Witness's clone
│   ├── state.json
│   └── mail/inbox.jsonl
│
└── mayor/
    ├── rig/                       # Mayor's clone for this rig
    └── state.json
```

## Key Decisions

1. **Visible config dir**: `config/` not `.gastown/` (models don't find hidden dirs)
2. **Witness per-rig**: Each rig has its own Witness (pit boss) with its own clone
3. **Mayor decentralized**: Mayor's clones live IN each rig at `<rig>/mayor/rig/`
4. **Minimal invasiveness**: Only `.git/info/exclude` modified, no commits to project
5. **Clone subdir name**: Keep `rig/` for consistency (refinery/rig/, witness/rig/, mayor/rig/)

## Role Detection

- Town root or mayor/ → Mayor (town level)
- Rig root → Mayor (canonical main)
- <rig>/mayor/rig/ → Mayor (rig-specific)
- <rig>/refinery/rig/ → Refinery
- <rig>/witness/rig/ → Witness
- <rig>/polecats/<name>/ → Polecat

## Migration from PGT

- `mayor/rigs/<rig>/` → `<rig>/mayor/rig/`
- `<rig>/town/` → eliminated (rig root IS the clone)
- Add `witness/` to each rig


Polecat doesn't auto-start after spawn inject - requires manual nudge

## Problem

After `gt spawn --issue <id> --create`, the polecat session shows Claude Code started with the injected prompt, but Claude doesn't begin processing. The prompt just sits there until manually nudged.

## Evidence

```
$ gt spawn --issue gt-rixa --rig gastown --create
...
✓ Session started. Attach with: gt session at gastown/furiosa
  Polecat nudged to start working
  Witness notified to monitor startup
```

Session shows:
```
> You have a work assignment. Run 'gt mail inbox' to see it, then start
  working on issue gt-rixa.

  ⏵⏵ bypass permissions on (shift+tab to cycle)
```

But Claude doesn't respond. Manual nudge required:
```
$ gt nudge gt-gastown-furiosa "Please start working..."
```

After nudge, polecat immediately starts working correctly.

## Hypothesis

The spawn inject happens before Claude Code is fully initialized. The text arrives in the input buffer, but Claude hasn't started listening yet. By the time Claude starts, the input has already been 'consumed' as initial prompt text but not submitted.

## Resolution Plan

This will be solved by the **polecat molecule workflow** (mol-polecat-work), which provides structured lifecycle management. The molecule approach handles startup, work, and shutdown as discrete steps with proper state tracking.

**Blocked on**: beads/crew/dave completing ephemeral molecules (bd mol bond, ephemeral beads repo).

## Workaround

For now, use `gt nudge` if a polecat doesn't start within ~30 seconds of spawn.


Merge: gt-frs

branch: polecat/Slit
target: main
source_issue: gt-frs
rig: gastown


Merge: gt-g44u.3

branch: polecat/Ace
target: main
source_issue: gt-g44u.3
rig: gastown


Work assignment messages should auto-close on completion

When a polecat completes work on an issue, the work assignment message (msg-type:task) stays open. Found 7 stale work assignments in gastown after swarm completed.

Proposal: When bd close is called on an issue, auto-close any work assignment messages that reference that issue in their body.

Alternative: Work assignment messages could use a different lifecycle - perhaps they should be acked (closed) when the polecat starts working, not when they finish.


Design: Work flow simulation and validation

Validate GGT designs through simulation before implementation.

## Validation Approaches

### 1. Dry-Run Simulation (Recommended First)
Mayor walks through scenarios mentally/on paper:
- "If polecat Toast signals done with dirty git state, what happens?"
- "If Witness context fills mid-verification, what state is lost?"
- "If two polecats try to close same issue, what happens?"

Create beads for any gaps discovered.

### 2. Real Work in gastown-py
Use Python Gas Town to stress-test assumptions:
- Run actual batch work on test repos
- Observe edge cases in practice
- Document issues found

### 3. Edge Case Analysis
Systematic review of failure modes:
- Agent crashes mid-operation
- Network failures during sync
- Concurrent access to shared state
- Context limits hit at bad times

## Key Scenarios to Validate

- [ ] Witness session cycling (state preservation)
- [ ] Polecat decommission with dirty state
- [ ] Merge conflicts in queue
- [ ] Beads sync conflicts between workers
- [ ] Escalation path (stuck worker -> Mayor)
- [ ] Cross-rig communication
- [ ] Federation mail routing (future)

## Success Criteria

- No data loss scenarios identified
- Clear recovery paths for all failure modes
- Edge cases either handled or documented as limitations
- Design improves as model cognition improves

## Output

For each scenario validated:
1. Document in relevant bead if issue found
2. Create new beads for missing functionality
3. Update architecture.md if design changes


Town-level beads: Real DB for coordination mail

Implement Option A from mail redesign: Town gets real beads DB for coordination.

## Background

Mail is now Beads. But currently:
- Town .beads/redirect points to rig beads
- mayor/mail/ has legacy JSONL files
- Cross-rig coordination has no clear home

## Design

Town beads = coordination, cross-rig mail, mayor inbox, handoffs
Rig beads = project issues, work items

Matches HOP hierarchy: platform > project > worker

## Structure

~/gt/
  .beads/           # REAL beads DB (prefix: gm-)
  mayor/
    town.json
    state.json      # NO mail/ directory
  gastown/
    .beads/         # Rig beads (prefix: ga-)

## Tasks

1. Delete ~/gt/.beads/redirect
2. Run bd init --prefix gm at ~/gt/ (town beads)
3. Delete ~/gt/mayor/mail/ directory
4. Update gt mail to use beads not JSONL
5. Add mail fields (thread_id, reply_to, msg_type)
6. Update gt prime for two-tier model
7. Update docs/architecture.md

## Addressing

- mayor/ -> town beads
- rig/agent -> rig beads
- Cross-rig -> town beads


Merge: gt-h5n.5

branch: polecat/Scabrous
target: main
source_issue: gt-h5n.5
rig: gastown


Witness commands: gt witness start/stop/status needed

## Summary

No `gt witness` command exists. The witness should:
- Monitor polecats for stuck/idle state
- Nudge polecats that seem blocked
- Report status to mayor
- Handle polecat lifecycle

## Expected Commands

```bash
gt witness start gastown   # Start witness for rig
gt witness stop gastown    # Stop witness
gt witness status          # Show witness status
```

## Current State

- Witness directory exists: /Users/stevey/gt/gastown/witness/
- Has state.json but no active process
- gt status shows 'Witnesses: 0'

## Context

Full polecat flow needs witness monitoring for production use.


Polecat Mood Plugin (standard)

Standard witness plugin that assesses polecat emotional state.

## Location
`<rig>/plugins/witness/polecat-mood/`

## Mood Emojis
| Mood | Emoji | Detection |
|------|-------|-----------|
| working | 😺 | Active tool calls, making progress |
| productive | 😸 | Completing tasks, tests passing |
| idle | 🐱 | Waiting at prompt, no recent activity |
| confident | 😼 | Self-reviewing, about to submit |
| struggling | 😿 | Repeated errors, test failures |
| stuck | 🙀 | No progress for 10+ min |
| done | 😽 | Work complete, requesting shutdown |
| blocked | 😾 | Explicitly waiting on dependency |

## Plugin Config (plugin.yaml)
```yaml
name: polecat-mood
description: Assess polecat emotional state from session activity
trigger: patrol
tier: haiku
input: session-capture
```

## Output
Plugin outputs gt commands:
```
gt polecat mood Rictus 😺
gt polecat mood Nux 😿
```

## Customization
Users can fork and modify prompt.md to change assessment criteria or add custom moods.


Batch Work System: Integration branch, merge queue, landing

## Overview

This epic tracks batch work coordination in GGT. Key insight: **work is a stream, not discrete swarms**.

There are no "swarm IDs" - the epic IS the grouping, the merge queue IS the coordination. "Swarming an epic" is colloquial for spawning multiple workers on its children.

## Architecture

- **Epics** group related work
- **Issues** are individual tasks
- **Dependencies** encode ordering (multi-wave emerges automatically)
- **Merge queue** coordinates completed work
- **Workers** process issues independently

See Key Decision #11 in docs/architecture.md: "Work is a Stream (No Swarm IDs)"

## What This Epic Covers

1. Integration branch management for batch merges
2. Refinery semantic merge processing
3. Witness landing protocol (cleanup)
4. Report generation (epic-based, not swarm-ID-based)
5. Git safety auditing
6. Work reconciliation

## What Was Removed

- Swarm IDs (sw-1, sw-2, etc.)
- Per-swarm directories (.gastown/swarms/<id>/)
- Swarm manifest/state/events files
- swarm-started/swarm-landed beads

These were redundant - beads already provides hierarchy, status, dependencies, and history.

## References

- Architecture: docs/architecture.md (Key Decision #11, Multi-Wave Work Processing)
- PGT: swarm/manager.py, swarm/landing.py (behavioral reference, but ignore swarm ID patterns)


Swarm package: Swarm, SwarmTask, SwarmState types

Define core swarm types.

## Types (in `internal/swarm/`)

```go
// SwarmState represents swarm lifecycle
type SwarmState string
const (
    SwarmCreated   SwarmState = "created"
    SwarmActive    SwarmState = "active"
    SwarmMerging   SwarmState = "merging"
    SwarmLanded    SwarmState = "landed"
    SwarmFailed    SwarmState = "failed"
    SwarmCancelled SwarmState = "cancelled"
)

// Swarm references a beads epic that tracks swarm work
type Swarm struct {
    ID          string      // matches beads epic ID
    RigName     string
    EpicID      string      // beads epic tracking this swarm
    BaseCommit  string      // git SHA all workers branch from
    Integration string      // integration branch name
    State       SwarmState
    CreatedAt   time.Time
    Workers     []string    // polecat names assigned
}

// SwarmTask represents a single task in the swarm (maps to beads issue)
type SwarmTask struct {
    IssueID   string  // beads issue ID
    Assignee  string  // polecat name
    Branch    string  // worker branch name
    State     string  // mirrors beads status
}
```

## Note

Swarm state is primarily stored IN beads. These types are in-memory representations for the SwarmManager to work with. No separate manifest.json files.


Batch work landing report generation

Generate reports on batch work completion.

## Trigger

When all children of an epic are closed, generate a completion report.

## Report Contents

- Epic metadata (ID, title, created by, duration)
- Task summary (completed counts, timing)
- Per-task details (issue, assignee, time taken)
- Git stats (commits merged, lines changed)
- Cleanup stats (branches deleted)

## Output Locations

1. Mail to Mayor - summary report
2. Optional: save to file with --save flag

## Command

```bash
gt report --epic <epic-id> [--save report.md]
```

## Format

Markdown with sections:
- Summary
- Tasks
- Workers
- Timeline

## Note

This replaces the swarm-based reporting (gt-662). Reports are generated from epic/issue data, not from separate swarm state files.

## Reference

PGT: swarm/report.py (for format ideas, ignore swarm ID patterns)


Daemon heartbeat: worker and queue monitoring

Daemon periodic checks for work progress.

## Heartbeat Actions

Every N seconds (configurable):

1. Check Witness health per rig
   - Poke if witness needs to nudge workers

2. Check Refinery queue per rig
   - Poke if pending work in queue

3. Check work completion
   - If epic children all closed, notify Mayor

## Eventually Convergent

Multiple signals reinforce state:
- Polecat signals done → Witness notices → pokes Refinery
- Daemon heartbeat → checks queue → pokes Refinery
- Beads status → queryable by any agent

Even if one signal missed, system converges.

## Interface

```go
func (d *Daemon) HeartbeatLoop() {
    for {
        for _, rig := range d.rigs {
            d.CheckWitness(rig)
            d.CheckRefinery(rig)
            d.CheckWorkProgress(rig)
        }
        time.Sleep(d.config.HeartbeatInterval)
    }
}
```

## Notifications

Use mail with low priority for heartbeat pokes.
Agents can ignore if already processing.


Ephemeral rig support for ad-hoc batch work

Support for temporary worker rigs for ad-hoc batch work.

## Use Case

Ad-hoc batch work where you want temporary workers:
- gt spawn --epic <epic-id> --ephemeral --workers 3
- Creates temp rig with 3 clones
- Workers process epic children
- Work merges through queue
- Clones cleaned up when done

## Interface

```go
type EphemeralRig struct {
    ID               string
    GitURL           string
    BaseCommit       string
    Workers          []string
    IntegrationBranch string
    EpicID           string  // associated epic (for cleanup trigger)
    CreatedAt        time.Time
}

func InitEphemeralRig(gitURL string, numWorkers int) (*EphemeralRig, error)
func (r *EphemeralRig) AddWorker(name string) error
func (r *EphemeralRig) Destroy(force bool) error
```

## Directory Structure

```
<rig>/ephemeral/
└── rig-a3f7/
    ├── config.json
    ├── Alice/     # clone
    ├── Bob/       # clone
    └── Carol/     # clone
```

## Cleanup Trigger

When all issues in the associated epic are closed AND merged, the ephemeral rig can be destroyed.

## Note

No swarm ID needed - the epic ID provides the grouping. Ephemeral rig is just a convenience for temporary clones.

## Reference

PGT: ephemeral.py (for structure, ignore swarm ID coupling)


Plugin: work-oracle (pre-dispatch analysis)

Plugin for pre-dispatch task analysis and decomposition.

## Purpose

Before dispatching workers for an epic, ask work-oracle to:
- Validate task breakdown
- Identify parallelization opportunities
- Predict conflicts between tasks
- Suggest worker count

## Hook Point

Mayor consults work-oracle before spawning workers.

## Interface

Input (via mail):
- Epic ID with proposed child issues
- Rig context (current state of codebase)

Output (via mail + bead):
- Recommended task groupings
- Dependency suggestions
- Risk assessment (which files might conflict)
- Optimal worker count

## Structure

```
<rig>/plugins/work-oracle/
├── CLAUDE.md       # Analysis prompts
├── mail/inbox.jsonl
└── state.json
```

Uses existing plugin-as-agent architecture.

## Note

Was "swarm-oracle" - renamed because there are no swarm IDs. This plugin helps plan batch work, not manage swarm entities.


SwarmManager: create, start, update, query operations

SwarmManager operations for creating and managing swarms.

## Interface

```go
type SwarmManager struct {
    rig    *Rig
    beads  *BeadsWrapper  // shells out to bd CLI
}

func NewSwarmManager(rig *Rig) *SwarmManager

// Lifecycle
func (m *SwarmManager) Create(epicID string, workers []string) (*Swarm, error)
func (m *SwarmManager) Start(swarmID string) error
func (m *SwarmManager) UpdateState(swarmID string, state SwarmState) error
func (m *SwarmManager) Cancel(swarmID string, reason string) error

// Queries (delegate to beads)
func (m *SwarmManager) GetSwarm(id string) (*Swarm, error)
func (m *SwarmManager) GetReadyTasks(swarmID string) ([]SwarmTask, error)
func (m *SwarmManager) GetActiveTasks(swarmID string) ([]SwarmTask, error)
func (m *SwarmManager) IsComplete(swarmID string) (bool, error)
```

## Implementation Notes

- `GetReadyTasks` wraps `bd ready --parent <epicID>`
- `IsComplete` checks if all child issues are closed
- State transitions update the epic's description or a tag field
- No separate manifest files - beads IS the source of truth


Integration branch management for swarms

Manage integration branches for swarm merging strategy.

## Branch Naming

- Integration branch: `integration/<swarm-id>` (e.g., integration/sw-1)
- Worker branches: `<swarm-id>/<polecat>` (e.g., sw-1/Toast)

## Operations

```go
// Create integration branch at swarm start
func (m *SwarmManager) CreateIntegrationBranch(swarmID string) error
// - Creates from BaseCommit
// - Pushes to origin

// Merge worker branch to integration
func (r *Refinery) MergeToIntegration(swarmID, workerBranch string) error
// - Fetches worker branch
// - Merges to integration/<swarm-id>
// - Handles conflicts (semantic merge)

// Land integration to main
func (r *Refinery) LandToMain(swarmID string) error
// - Merges integration/<swarm-id> to main
// - Pushes to origin
// - Triggers cleanup

// Cleanup branches after landing
func (m *SwarmManager) CleanupBranches(swarmID string) error
// - Deletes integration/<swarm-id> (local + remote)
// - Deletes all <swarm-id>/<polecat> branches
```

## All Workers Same Base

When swarm starts:
1. Record current main HEAD as BaseCommit
2. All polecats branch from BaseCommit
3. Integration branch also starts at BaseCommit

This ensures clean merges within the swarm.

## Reference

PGT: ephemeral.py (create_integration_branch, merge_integration_to_main)


Refinery semantic merge processing loop

Implement the Refinery semantic merge loop for processing polecat work.

## Overview

The Refinery is a fully empowered Claude Code agent that:
1. Fetches polecat branches
2. Merges to integration branch
3. Resolves conflicts semantically (re-implements if needed)
4. Runs tests
5. Escalates only when truly stuck

## Processing Loop

1. Check queue for completed tasks (polecat done, not yet merged)
2. For each task:
   - Fetch polecat branch
   - Attempt merge to integration/<swarm-id>
   - On conflict: semantic resolution (understand intent, re-implement)
   - Run tests if configured
   - On success: mark merged, file bead, notify witness
   - On failure: notify polecat (test fail) or escalate (stuck)
3. When all tasks merged: land integration to main

## Semantic Merge

When git merge fails, Refinery:
1. Reads polecat changes and beads issue
2. Understands intent
3. Re-implements on current integration branch
4. Only escalates if truly blocked

## Daemon Poking

Refinery is poked by:
- Daemon heartbeat (periodic)
- Witness notification (polecat done)
- Mayor request (check queue)

## Dependencies

Needs: gt-u1j.6 (mail), gt-u1j.3 (git), gt-u1j.14 (merge queue)

## Reference

See PGT ephemeral.py for branch operations.


Swarm beads naming convention and auto-filing

Beads naming convention for swarm lifecycle events.

## Bead IDs

- swarm-started:<swarm-id>     # Filed when swarm begins
- swarm-task-merged:<swarm-id>:<task-id>  # Filed per task merge
- swarm-landed:<swarm-id>      # Filed when merged to main
- swarm-failed:<swarm-id>      # Filed on unrecoverable failure

## swarm-started Bead

Filed by: Mayor/Refinery at swarm creation
Contains:
- Swarm title and description
- List of tasks (issue IDs)
- List of workers (polecat names)
- Base commit SHA

## swarm-task-merged Bead

Filed by: Refinery after each successful merge
Contains:
- Task issue ID and title
- Polecat name
- Merge commit SHA
- Test results summary

## swarm-landed Bead

Filed by: Refinery after landing to main
Contains:
- Final merge commit SHA
- Stats: tasks completed, time taken
- List of all merged task beads
- Integration branch name (now deleted)

## swarm-failed Bead

Filed by: Refinery on unrecoverable failure
Contains:
- Failure reason
- Tasks merged vs not merged
- Recovery guidance

## Why Beads (not just mail)

- Persistent, queryable, synced to git
- Other agents can check status without mail
- Creates audit trail
- Works when agents offline


Witness swarm landing protocol

Witness responsibilities for swarm landing cleanup.

## Trigger

Witness receives "swarm-landed" mail from Refinery containing:
- swarm_id
- merge_commit
- action: "cleanup"

## Landing Protocol

### Phase 1: Preflight
Verify all polecat sessions stopped:
- Check tmux for active sessions
- Kill any remaining sessions
- Wait for graceful shutdown

### Phase 2: Git Audit
For each polecat in swarm:
- Check for uncommitted changes
- Check for unpushed commits
- Check for stashes
- Classify as "beads-only" (safe) or "code at risk"
- If code at risk: escalate, abort landing

### Phase 3: Cleanup
For each polecat:
- Clear state entry (mark as idle)
- Delete inbox (or archive)
- Delete worker branch (local + remote)

### Phase 4: Final Report
- Update swarm state to "landed"
- File landing report bead
- Mail Mayor with summary

## Code at Risk Handling

If git audit finds code at risk:
1. Abort cleanup for that polecat
2. Mail Mayor with details
3. Human intervention required

## Reference

PGT: swarm/landing.py (6-phase protocol), swarm/git_audit.py


CLI: gt swarm commands (create, status, list, land)

CLI commands for swarm management.

## Commands

### gt swarm create
Create a new swarm in a rig.

```
gt swarm create <rig> --title "Fix all P1 bugs" \
  --task gt-abc --task gt-def \
  --worker Toast --worker Nux
```

Options:
- --title: Swarm title (required)
- --task: Beads issue IDs to include (repeatable)
- --worker: Polecat names (repeatable, or --workers=3 to auto-assign)
- --start: Start swarm immediately after creation

### gt swarm status <swarm-id>
Show swarm status and progress.

Output:
- Swarm metadata (title, created, workers)
- Task status (pending/in_progress/completed/merged)
- Integration branch status
- Overall progress percentage

### gt swarm list [rig]
List swarms, optionally filtered by rig or status.

```
gt swarm list --status=active
gt swarm list gastown --status=landed
```

### gt swarm land <swarm-id>
Trigger manual landing (normally automatic).

### gt swarm cancel <swarm-id>
Cancel a swarm in progress.

## Output Format

Support --json for machine-readable output.

## Dependencies

Needs: gt-kmn.1 (types), gt-kmn.2 (manager)


Git safety audit module

Port git_audit.py safety checks to Go.

## Purpose

Before destroying polecat clones, verify no code is at risk.

## Checks

1. Uncommitted changes (staged and unstaged)
2. Unpushed commits
3. Git stashes
4. Local-only branches (not tracking remote)

## Beads-Only Classification

Some files are safe to discard:
- .beads/*
- .claude/settings.json

Changes only affecting these = "beads-only" = safe to destroy.

## Interface

```go
type GitAuditResult struct {
    Polecat              string
    Path                 string
    UncommittedFiles     []string
    UncommittedIsBeadsOnly bool
    UnpushedCommits      int
    Stashes              []StashInfo
    StashesAreBeadsOnly  bool
    LocalBranches        []string
    Error                error
}

func (r *GitAuditResult) HasCodeAtRisk() bool

func AuditPolecat(name string, path string) *GitAuditResult
func AuditPolecats(polecats []PolecatInfo) []*GitAuditResult
```

## Reference

PGT: swarm/git_audit.py


Work reconciliation module

Port reconcile.py work verification to Go.

## Purpose

Verify assigned issues are completed before landing.

## Interface

```go
type ReconcileResult struct {
    CompletedIssues  []IssueInfo
    IncompleteIssues []IssueInfo
    AllComplete      bool
    PolecatsChecked  []string
    Errors           []string
}

func ReconcileWork(rig string, polecats []string) *ReconcileResult
func GetAssignedIssues(assignee string) []IssueInfo
func UnassignIssue(issueID string, resetStatus bool) error
```

## Logic

1. Get list of polecats in swarm
2. For each polecat, query beads for assigned issues
3. Categorize as completed (closed) or incomplete (open/in_progress)
4. Return summary for landing decision

## Handling Incomplete Work

If issues incomplete:
- Abort landing (default)
- Or force landing (leaves work unfinished)
- Unassign incomplete issues for future work

## Reference

PGT: swarm/reconcile.py


Add merge-request type to Beads schema

Define the merge-request bead type with fields:
- branch: source branch (e.g., polecat/Nux/gt-xxx)
- target_branch: destination (main or integration/xxx)
- source_issue: the work being merged (gt-xxx)
- worker: who did the work
- rig: which rig
- merge_commit: (filled on close) SHA of merge commit
- close_reason: (filled on close) success/failure details

This may require beads schema changes or just convention.


Work on gt-e11: gt mail send priority flag is incompatibl...

Work on gt-e11: gt mail send priority flag is incompatible with bd mail send. Run 'bd show gt-e11' for details.


Epic: Refinery Engineer Autonomy

Make Refinery Engineer fully autonomous:

## Goal
Refinery can run indefinitely, processing all polecat work through merge queue, cycling sessions as needed, without human intervention.

## Key Components
1. Role prompting (CLAUDE.md, templates)
2. Handoff mechanism (pinned beads)
3. Context detection (gt prime)
4. Communication protocol (Witness, Deacon)
5. Future: Merge orchestration plugins

## Success Criteria
- Refinery starts, reads handoff, knows what to do
- Processes merges sequentially with conflict resolution
- Cycles sessions cleanly via Deacon
- Communicates results to Witness
- No work left behind


bd ready --type: missing type filter for MQ integration

bd ready lacks --type flag that engineer.go expects.

## Code (internal/refinery/engineer.go)
readyMRs, err := e.beads.ReadyWithType("merge-request")

## Actual bd ready
No --type flag - only supports assignee, label, priority filters.

## Impact
Refinery can't find merge-requests in queue, so MQ doesn't process anything.

## Fix Options
1. Add --type flag to bd ready
2. Use bd list --type=merge-request --status=open instead
3. Both (ready filters for unblocked, list for all)

This is blocking the entire MQ pipeline.


Test message

Testing GGT mail system


Harness & Priming: Document architecture and update all role contexts


Design: Polecat Beads write access

Design for granting polecats direct beads write access.

## Background

With Beads v0.30.0 tombstone-based rearchitecture, we have solid multi-agent support. Reversing the original read-only decision.

## Benefits

- Simplifies architecture (no mail-based issue filing proxy)
- Empowers polecats to file discovered work
- Beads handles work-disavowal

## Complications

For OSS projects where you cannot commit to project .beads/, need per-rig beads repo configuration.

## Subtasks (implementation)

- gt-zx3: Per-rig beads configuration schema
- gt-e1y: Worker prompting updates for beads access
- gt-cjb: Witness proxy removal
- gt-082: Beads sync in decommission checklist

**Design complete.** Each subtask has full specification in its description.


Crew workers: design documentation and remaining work

## Summary

Crew workers are user-managed persistent workspaces within a rig, distinct from polecats.

## Current Implementation

### Commands (all working)
- `gt crew add <name>` - Create workspace (git clone)
- `gt crew list` - List workspaces with status
- `gt crew at <name>` - Attach to tmux session
- `gt crew remove <name>` - Remove workspace
- `gt crew pristine [<name>]` - git pull + bd sync
- `gt crew refresh <name>` - Context cycle with handoff mail
- `gt crew status [<name>]` - Detailed status
- `gt crew rename <name>` - Rename workspace

### Crew vs Polecat

| Aspect | Crew | Polecat |
|--------|------|---------|
| Lifecycle | User-managed | Witness-managed |
| Scheduling | Manual | `gt spawn` |
| Merge flow | Direct push OK | Integration branch → refinery |
| Garbage collection | Never | Auto on completion |
| Identity | Long-lived (emma, dave) | Ephemeral (Nux, Toast) |

## Known Bugs

- **gt-70b3**: detectSender() doesn't recognize crew workers
- **gt-vdp0**: Crew CLAUDE.md shows Refinery template

## Potential Enhancements

1. Rebase helper in `gt crew pristine` for conflict resolution
2. Cross-rig crew support (crew worker in multiple rigs?)
3. Better mail identity auto-detection for crew


Test molecule

Test


Work on gt-role-template: Refine witness/CLAUDE.md role t...

Work on gt-role-template: Refine witness/CLAUDE.md role template. See issue for details. Run 'bd show gt-role-template' to see the full issue.


Beads epic templates for batch work patterns

Optional: Define templates for common batch work patterns.

## Concept

A template encodes a workflow pattern that can be instantiated as beads:

```yaml
# templates/batch-basic.yaml
name: basic-batch
description: Simple batch work pattern
phases:
  - name: startup
    issues:
      - title: "Verify workers ready"
  - name: working
    # Actual work issues added separately
  - name: cleanup
    issues:
      - title: "Merge all branches"
      - title: "Clean up workers"
      - title: "Report to Mayor"
```

## Usage

```bash
gt spawn --template basic-batch --epic gt-u1j --workers 3
```

Creates beads epic with template phases + actual work from gt-u1j children.

## Decision Point

Templates are OPTIONAL. The core design (beads as state, multi-wave orchestration) works without templates. Templates are sugar for common patterns.

Consider deferring to P3 or dropping entirely if beads epics with dependencies suffice.

## Note

No "swarm IDs" involved - templates just pre-populate epic/issue structure.


Merge: gt-3x1

branch: polecat/Slit
target: main
source_issue: gt-3x1
rig: gastown


gt rig reset --stale: Clear orphaned in_progress items

Reset in_progress issues when their assigned agent no longer exists.

## Problem
When polecats die without cleanup, their issues remain in_progress forever.
Need a way to bulk-reset these orphaned items.

## Command
```bash
gt rig reset --stale [--dry-run]
```

## Logic
For each in_progress issue in rig:
1. Parse assignee (e.g., "gastown/furiosa")
2. Map to tmux session name (gt-gastown-furiosa)
3. If session does NOT exist:
   - Reset status to "open"
   - Clear assignee
4. Exception: skip crew/* assignees (persistent identities)
   OR check if crew tmux session exists

## Output
```
Resetting stale work in gastown:
  gt-abc: gastown/furiosa (no session) → open
  gt-def: gastown/nux (no session) → open
  Skipped: gt-xyz: gastown/crew/max (persistent)
Reset 2 issues, skipped 1
```

## Related
- gt-2kz: CLI cleanup commands for stale state
- gt-rdmw: orphan-check in deacon patrol
- gt-orphans command (list orphaned molecules)


Swarm state persistence: manifest + state + events

Upgrade swarm persistence to match PGT pattern.

## Current State
Single .gastown/swarms.json with all swarms.

## Target State (per-swarm)
```
.gastown/swarms/
└── <swarm-id>/
    ├── manifest.json  # Immutable config
    ├── state.json     # Mutable progress
    ├── events.jsonl   # Audit log
    └── report.md      # Generated report
```

## File Schemas

### manifest.json (immutable after creation)
```json
{
  "id": "sw-1",
  "title": "Epic description",
  "epic_id": "gt-abc",
  "rig": "gastown",
  "base_commit": "abc123",
  "integration_branch": "swarm/sw-1",
  "target_branch": "main",
  "workers": ["Toast", "Nux"],
  "tasks": [{"id": "gt-xyz", "title": "..."}],
  "created_at": "2024-01-01T00:00:00Z"
}
```

### state.json (mutable)
```json
{
  "state": "active",
  "task_states": {
    "gt-xyz": {"state": "merged", "assignee": "Toast"}
  },
  "updated_at": "2024-01-01T01:00:00Z",
  "error": null
}
```

### events.jsonl (append-only audit)
```jsonl
{"event": "created", "ts": "...", "data": {...}}
{"event": "task_assigned", "ts": "...", "data": {...}}
{"event": "task_merged", "ts": "...", "data": {...}}
```

## Benefits
- Audit trail via events.jsonl
- Manifest immutability prevents corruption
- Cleaner separation of concerns
- Per-swarm isolation

## Migration
Keep backward compat with swarms.json during transition.

## Files to Modify
- internal/swarm/manager.go: Refactor persistence
- internal/cmd/swarm.go: SwarmStore → directory-based

## Acceptance Criteria
- [ ] Per-swarm directory structure
- [ ] Events logged to JSONL
- [ ] Manifest immutable after creation
- [ ] List command aggregates from directories


test message


gt done: Command doesn't exist but documented in polecat CLAUDE.md

The polecat CLAUDE.md documents 'gt done' as the command to signal work is ready for merge queue, but running it gives 'unknown command'. Either implement the command or update the documentation.


Work on gt-o9j: Fix tmux status bar polecat count - exclu...

Work on gt-o9j: Fix tmux status bar polecat count - exclude static roles (mayor, deacon, witnesses, refineries, docs, hop). Run 'bd show gt-o9j' for details.


Refinery gates: test/lint/build before merge

Before merging polecat work to main, run configurable quality gates.

**From VC**: internal/gates/ - parallel execution with timeout, any failure = overall failure.

**Gas Town implementation**: Refinery config with gate commands:
```yaml
gates:
  test:
    cmd: go test ./...
    timeout: 5m
  lint:
    cmd: golangci-lint run
    timeout: 2m
  build:
    cmd: go build ./...
    timeout: 3m
parallel: true
```

If gates fail, don't merge. Polecat can iterate and retry.

**Value**: Prevents broken code from reaching main. VC had 90.9% gate pass rate.

**VC complexity**: ~200 lines Go
**Gas Town complexity**: ~10 lines YAML


Merge: gt-rixa

branch: polecat/furiosa
target: main
source_issue: gt-rixa
rig: gastown


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


Merge: gt-70b3

type: merge-request
branch: polecat/Rictus
target: main
source_issue: gt-70b3
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.


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.


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.


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.


mol-christmas-launch: 3-day execution plan

---

## Wisp Integration Wave Plan (added 2025-12-21)

Dependency-ordered execution for gt-3x0z (Wisp Molecules) + gt-rana (Patrol System):

### Wave 1 (parallel - no blockers)
- gt-3x0z.1: gt rig init creates .beads-ephemeral/
- gt-3x0z.2: Configure bd for ephemeral molecule bonding
- gt-3x0z.3: gt doctor checks for ephemeral health
- gt-rana.1: Attachment field on pinned beads
- gt-rana.3: mol-deacon-patrol definition

### Wave 2 (after Wave 1)
- gt-3x0z.4: gt spawn --molecule bonds ephemeral (GATE 1)
- gt-rana.2: Daemon attachment detection

### Wave 3-5 (sequential)
- gt-3x0z.5, gt-3x0z.6 → gt-3x0z.7 → gt-3x0z.8 (GATE 2: squash)

### Wave 6+ (patrol integration)
- gt-rana.4: Basic patrol runner (needs gt-rana.3 + gt-3x0z.8)
- gt-3x0z.9: mol-deacon-patrol uses wisp (needs gt-rana.3 + gt-3x0z.8)
- Then: gt-rana.5-7, gt-3x0z.10-12

### Key Gates
1. gt-3x0z.4 - spawn/bond unlocks Phase 2
2. gt-3x0z.8 - squash unlocks patrol integration
3. gt-rana.4 - patrol runner unlocks Phase 2+ patrol


Pinned beads should appear first in mail inbox

Currently bd mail inbox sorts by priority then date, but pinned beads (handoff context) should always appear at the top.

**Current behavior:**
- Pinned beads mixed in with regular mail based on priority/date

**Expected behavior:**
- Pinned beads always first in inbox (before priority sorting)
- This enables handoff beads to be the default first item an agent sees

**Implementation:**
1. In mail.go runMailInbox(), after filtering, sort pinned beads to top
2. Within pinned and non-pinned groups, maintain priority/date sort

**Related:**
- gt-r8ej: Implement pinned beads for handoff state
- gt-8h4: Pinned Beads epic

**Acceptance criteria:**
- bd mail inbox shows pinned beads first
- Pinned beads still sorted by priority/date among themselves
- Non-pinned mail sorted normally after pinned section


Witness role template + CLAUDE.md

Create the Witness agent's role context:

1. internal/templates/roles/witness.md.tmpl
   - Witness responsibilities (polecat lifecycle)
   - Core loop description
   - Commands available (gt polecats, bd ready, etc)
   - Escalation protocol

2. Generate CLAUDE.md for witness/ directories
   - Context about the rig
   - Mail address: <rig>/witness
   - Startup protocol (gt prime, check inbox)

The Witness is the per-rig 'pit boss' - NOT a global coordinator. It manages polecats for ONE rig only.


Remove gt mail dependency on bd mail commands

Replaced bd mail send/inbox/read/ack with bd create/list/show/close. Messages are now stored as beads issues with type=message.


Engineer session restart protocol

Implement session restart flow for when the Engineer needs to split work:

1. Engineer creates subtask(s) in Beads assigned to self
2. Engineer sends handoff mail to self (🤝 HANDOFF)
3. Engineer sends restart request to Witness
4. Witness verifies:
   - Handoff mail exists in Engineer outbox/sent
   - Subtasks filed in Beads
5. Witness restarts the Refinery session (new Engineer context)

This enables "occasionally consistent, eventually convergent" work patterns.
The Refinery continues; the Engineer gets fresh context.


Test: Alpha to Beta

Sibling communication test


Polecats should not push branches to remote

## Current Behavior

Polecats push their branches to origin (e.g., `polecat/furiosa`), which pollutes the remote with many short-lived branches.

## Desired Behavior

Polecats should only commit locally. The Refinery handles all remote pushes:
1. Polecat works on local `polecat/<name>` branch
2. Polecat signals done (state → idle)
3. Refinery pulls from local polecat branch
4. Refinery runs tests, merges to main
5. Refinery pushes main to remote
6. If PR review needed, Refinery creates the PR

## Benefits

- Clean remote (no branch pollution)
- Clear responsibility (Refinery is the quality gate)
- Simpler cleanup (local branches deleted with worktree)
- Less noise in GitHub UI

## Trade-offs

- If polecat crashes before Refinery merges, code is lost locally
- But beads issue remains open, another polecat can redo the work
- This is acceptable for ephemeral workers

## Implementation

In polecat CLAUDE.md or landing protocol:
- Remove `git push origin HEAD` from workflow
- Replace with just `git commit` + signal done
- Refinery handles the rest


Remove unused style helper functions

internal/style/style.go defines RenderSuccess, RenderWarning, RenderError, and RenderInfo helper functions that are never used. Code uses style.Success.Render() directly instead. Either use the helpers consistently or remove them.


Daemon: proper rig discovery

Currently discovers rigs by scanning tmux session names for gt-*-witness pattern. Should instead:
- Read rigs from mayor/rigs.json
- Or scan town directory for .gastown subdirs
- Handle rigs that exist but don't have running witnesses


Document bd mol bond/squash/burn CLI

Create CLI reference documentation for molecule commands:

## bd mol bond

Instantiate a proto into a runnable molecule.

```bash
bd mol bond <proto-id> [--wisp] [--assignee=<addr>]
```

- Default: creates a Mol (durable, in main beads)
- --wisp: creates a Wisp (ephemeral, in .beads-ephemeral/)
- --assignee: who will execute this molecule

## bd mol squash

Complete a molecule and generate digest.

```bash
bd mol squash <mol-id> --summary='...'
```

- For Mol: creates digest in git history
- For Wisp: evaporates (no permanent record)
- --summary: required summary of what was accomplished

## bd mol burn

Abandon a molecule without completing.

```bash
bd mol burn <mol-id> [--reason='...']
```

- Discards molecule state
- No digest created
- Use when molecule is no longer needed


Work on gt-fix-bugs: Fix blocking infrastructure bugs. Se...

Work on gt-fix-bugs: Fix blocking infrastructure bugs. See issue for details. Run 'bd show gt-fix-bugs' to see the full issue.


gt swarm start: Does not spawn polecat sessions

gt swarm start marks swarm as 'active' but doesn't start any polecat sessions.

Repro:
1. gt swarm create gastown --epic gt-hw6 --worker Toast --worker Nux
2. gt swarm start gt-hw6
3. gt session list - shows no new sessions

Expected: Polecat sessions should start for each worker.
Actual: No sessions started, workers sit idle.


Refinery agent: merge queue processing loop

The Refinery agent processes the merge queue, merging polecat work to main.

## Interface

```go
type Refinery struct {
    rig    *Rig
    queue  *MergeQueue
    git    *Git
    mail   *Mailbox
    config RefineryConfig
}

type RefineryConfig struct {
    AutoMerge     bool          // Auto-merge passing MRs
    RunTests      bool          // Run tests before merge
    TestCommand   string        // Command to run tests
    RequireReview bool          // Require review before merge (future)
}

func NewRefinery(rig *Rig, ...) *Refinery

// Lifecycle
func (r *Refinery) Start() error
func (r *Refinery) Stop() error
func (r *Refinery) IsRunning() bool

// Processing
func (r *Refinery) ProcessQueue() error
func (r *Refinery) ProcessMR(mr *MergeRequest) error
```

## Processing Loop

1. Check queue for pending MRs
2. For each pending MR:
   a. Fetch polecat branch
   b. Attempt merge to refinery/rig (local main)
   c. Run tests if configured
   d. If pass: push to origin, mark merged
   e. If fail: mark rejected, notify polecat
3. Sleep, repeat

## Merge Strategy

- Fast-forward when possible
- Merge commit when not
- On conflict: reject MR, polecat must rebase

## Test Integration

If tests configured:
```bash
cd refinery/rig
git merge polecat/branch
<test_command>  # e.g., go test ./...
```
Result determines merge/reject.

## Notifications

On merge success:
- Mail to polecat: "Your work merged"
- Update bead if issue tracked

On merge failure:
- Mail to polecat: "Merge failed: <reason>"
- Include conflict details if applicable

## Dependencies

Needs: Rig management, Git wrapper, Mail system, Merge queue


Test from Mayor

This is a test message via GGT mail


gt doctor: detect orphaned code on beads-sync branch

After merging beads-sync to main, some code changes can be lost if the merge conflict resolution drops files.

Add a doctor check that runs:
  git diff main..beads-sync -- '*.go' '*.md'

If there are differences in code files (not just .beads/), warn about potentially orphaned work.

Today's incident: Merge 96c773f lost mailbox.go and router.go changes from 5791752, requiring re-implementation.

Acceptance:
- gt doctor warns if beads-sync has unmerged code changes
- Excludes .beads/ directory (expected to differ)
- Shows file list of orphaned changes

Implemented both checks: persistent-role-branches and beads-sync-orphans. Also added ensureMainBranch() to crew attach.


Add godoc comments to exported functions

Several exported functions lack godoc comments. While not critical, adding documentation would improve code maintainability. Focus on:

- Public API functions in each package
- Exported types and their methods
- Functions that have non-obvious behavior

Can be addressed incrementally as code is touched.


Recover stale polecat work: 4 branches with unpushed commits

During observation of polecat workflow, found 4 polecats with unpushed work:

## Branches Pushed (preserved)
- polecat/capable: 3 commits (molecule catalog, doctor orphan detection, gt done)
- polecat/dementus: 4 commits (Witness MVP, handoff fixes)
- polecat/furiosa: 2 commits (bulk polecat removal, spawn handoff)
- polecat/rictus: 1 commit (molecule docs)

## Action Required
1. Review each branch for merge-worthiness
2. Either:
   a. Create PRs for valuable work
   b. OR discard if superseded
3. After decision, clean up polecats properly

## Root Cause
Polecats were not cleaned up after previous work sessions. This is exactly why we need:
- gt-u1k: gt shutdown should fully cleanup polecats
- gt-8v8: Refuse to lose uncommitted work
- gt-9nf: Always create fresh polecats


Plugin: merge-oracle (merge queue analysis)

Example plugin that analyzes changesets before Refinery processes them. Builds overlap graph, classifies disjointness (parallel-safe vs needs-sequencing), uses LLM for semantic complexity, identifies high-risk patterns. Based on merge-orchestration proposal. See docs/architecture.md.


Test

Body


Post-work discovery: AI analysis finds follow-on issues

AI analyzes completed work to discover: bugs, punted work, follow-on tasks.

**From VC**: Supervisor.AnalyzeResult() with iterative refinement. ~300 lines.

**Gas Town implementation**: Post-work hook in molecule:
```yaml
post_work:
  discover:
    - bugs
    - punted_items
    - follow_on_work
  file_as: beads
```

Polecat output gets analyzed by AI, discovered work becomes beads issues.

**Value**: Nothing gets forgotten. VC found ~25% more issues with refinement.

**Key**: Use semantic deduplication (gt-xxx) to avoid pollution.


Work on ga-ct2: Add MR workflow to polecat completion. Wh...

Work on ga-ct2: Add MR workflow to polecat completion. When polecat completes work, auto-create MR to integration branch. When done, submit MR (not PR) to integration branch for Refinery.


Configuration in Beads: use pinned beads for rig/agent config

## Summary

Move configuration from JSON files into Beads data plane using pinned beads.

## Motivation

- Config becomes versionable and syncable like issues
- Agents can read config via `bd show`
- Unified data model for everything
- Supports the 'Beads as Universal Data Plane' vision (gt-aqm)

## Config Types to Migrate

### Rig-level (pinned per rig)
- Theme/colors for tmux status line
- Default branch naming conventions
- Merge queue settings
- Witness thresholds

### Agent-level (pinned per role)
- Handoffs (already planned - gt-cu7r)
- Agent preferences
- Current focus/context

### Town-level (pinned at town root)
- Cross-rig settings
- Federation config
- Global themes

## Implementation

1. Implement StatusPinned (beads-6v2) ✓ in progress
2. Create config pinned beads on rig init
3. Add `bd config get/set` commands that read/write pinned beads
4. Migrate existing config.json fields

## Naming Convention

```
<prefix>-cfg-<scope>
gt-cfg-theme      # gastown theme
bd-cfg-merge      # beads merge settings
gm-cfg-town       # town-level config
```

## Dependencies

- beads-6v2: Add StatusPinned to beads schema
- gm-w13: Pinned Beads epic


Merge: gt-5af.2

branch: polecat/Doof
target: main
source_issue: gt-5af.2
rig: gastown


CLI: mayor commands (start, attach, stop, status)

Mayor management CLI commands.

## Commands

### gt mayor start
```
gt mayor start [--continue] [--agent AGENT]
```
- --continue: Resume from previous session (check for handoff mail)
- --agent: claude (default) or other agent type

### gt mayor attach
```
gt mayor attach
```
Attach to running Mayor session.

### gt mayor stop
```
gt mayor stop [--grace-period N]
```
Stop Mayor session with optional grace period.

### gt mayor status
```
gt mayor status [--json]
```
Show Mayor running status.

## Session Management
Session name: `gt-mayor`
Working directory: `<town>/mayor/rig/` or `<town>/mayor/`

## Implementation
Similar to session commands but for special Mayor context.

```go
func getMayorPath(townRoot string) string {
    return filepath.Join(townRoot, "mayor")
}

func getMayorSessionName() string {
    return "gt-mayor"
}
```

## New File
internal/cmd/mayor.go

## PGT Reference
gastown-py/src/gastown/cli/mayor_cmd.py

## Acceptance Criteria
- [ ] gt mayor start launches Mayor session
- [ ] gt mayor attach works
- [ ] gt mayor stop with grace period
- [ ] gt mayor status shows running state


Work on ga-lzh: Add gt witness attach command. Allow atta...

Work on ga-lzh: Add gt witness attach command. Allow attaching to witness session for a rig, similar to gt mayor attach. When done, submit MR (not PR) to integration branch for Refinery.


Session cycling UX: smooth transitions via TUI wrapper

## Problem

Current CLI agent session cycling is painful:
- Shell → CC starts → priming → context loads → ready → work → exit/crash → repeat
- Each cycle is 30-60 seconds of cold boot
- No continuity between shell and agent's inner state
- Raw "session not running, starting..." loop is the baseline

## GGT Advantages (already have)

- Beads: Work state survives session death completely
- Mail: Handoff notes from past-self to future-self
- Prime commands: Structured context reload

## Gap: Transition Mechanics

Ideas to explore when actively using CLI:

1. **In-band cycling** - `/restart` or `/cycle` command, agent handles own restart without dropping to shell

2. **Hot standby** - TUI maintains pre-warmed session in background, switch to already-primed agent

3. **Persistent wrapper** - Bubbletea TUI stays running across session cycles, CC sessions come/go inside it

4. **Session pooling** - Keep 2-3 primed sessions ready, never wait for cold start

## Deferred

Deliberately P4 until we're actively using the simpler CLI and feel the pain firsthand.


gt crew at: auto-prime when exec'ing Claude in-session

When running 'gt crew at <name>' from inside the target session, we exec Claude directly. But this means we can't send 'gt prime' afterward since we ARE the process.

Possible solutions:
1. Claude startup hook that runs gt prime
2. Pass prompt as argument to claude CLI
3. Wrapper script approach

Related: crew resume prompt also can't be sent in this path.

Implemented: execClaude now passes 'gt prime' as initial prompt to Claude CLI


bd create should support molecule type

gt molecule commands expect type=molecule but bd validates against bug|feature|task|epic|chore|merge-request only


gt done: Missing command referenced in polecat docs


TIDY UP: Your previous work (patrol runner) was already m...

TIDY UP: Your previous work (patrol runner) was already merged to main. Check your git status is clean, sync beads, and if nothing to do, just run 'gt done'.