Local-first coordination for fleets of coding agents.
Claims, handoffs, plans, health, and memory for Claude Code, Codex, Cursor, Gemini CLI, OpenCode, and other agent runtimes.

npm install -g @imdeadpool/colony-cli
colony install --ide codex
colony health

Release Notes

v0.x - Current Patch Line

Colony is in the v0 hardening line. Upcoming patches focus on making the shipped coordination loop easier to trust in real multi-agent runs.

• Patch adoption visibility: keep colony health, the local viewer, and mcp_metrics receipts aligned so gaps are visible without digging through SQLite.
• Patch workflow hygiene: make claims, task posts, handoffs, quota cleanup, and stale-session pruning clearer in status surfaces before they create duplicate work.
• Patch release confidence: keep README badges, publish smoke checks, and @imdeadpool/colony-cli package metadata current so users can see CI, npm version, downloads, license, and supply-chain posture before installing.

Colony is not a hosted control plane and it does not run your agents. Codex, Claude Code, Cursor, OMX, dmux, and other runtimes still execute work. Colony is the shared local substrate they use to coordinate.

It is built for the expensive part of multi-agent work: avoiding repeated context reloads. Claims, handoffs, timelines, and prior decisions stay compact until an agent explicitly hydrates the full record. The result is measurable — colony gain reports both the shared reference model below and live mcp_metrics rows from your local MCP server.

Runtimes run agents. Colony coordinates agents. Queen publishes claimable plans. Agents pull ready work. Stale signals evaporate.

Measured per-operation savings versus standard agent loops. See the receipts →

---

The Problem: Two Agents, One Bug, Two Patches

A human can ask Codex and Claude to solve the same runtime-manifest bug at the same time. Without a shared loop, both agents diagnose the same Turbopack root escape, edit the same schema file, and race two PRs for one fix.

With Colony, both agents start from hivemind_context, attention_inbox, and task_ready_for_agent. The first agent records the diagnosis, claims the task and files, and posts the intended fix. The second agent sees the live claim and prior diagnosis before editing, so it can stand down, review, or take a different unclaimed lane.

Colony does not run the agents for you. It makes duplicate work visible early, turns one solution into one implementation branch, and keeps the evidence in a shared task thread.

Without Colony	With Colony
Agents collide on the same files.	Agents claim files before edits.
Humans schedule parallel work by hand.	Agents pull ready subtasks from Colony.
Progress is trapped in chat windows.	Working state is saved to task threads.
Old claims and handoffs stay noisy.	Signals decay, expire, and can be swept.
Follow-up ideas disappear.	Proposals can be reinforced and promoted.
Task lists become browsing surfaces.	task_ready_for_agent becomes the work picker.

---

Every Session Ships a Receipt

When a Codex or Claude session finishes a prompt, it doesn't just say "done" — it returns a structured response with the PR link, the merge SHA, the files that changed, the verification it ran, and what happened to the worktree afterward. That format isn't ceremonial: it's the handoff payload. Colony captures it as one observation, the next agent reads it instead of re-deriving context, and mcp_metrics records the cost.

The five canonical sections every session response carries:

Section	What it contains	Why it matters
Done.	One line. PR link + merge SHA, or "blocked: ".	The next agent can stop reading after the first line if everything's green.
Changed	Files touched, each with one-line annotation of what changed.	Code review is git diff; Colony memory is this list.
Verified	Lint, tests, build, typecheck — each as a checkmarked line.	Lets the next agent skip re-running what already passed.
Cleanup	Worktree pruned, branch deleted, claims released.	Confirms the session left no orphan state behind.
Remaining risk	Anything not covered. Empty when there's nothing to flag.	The honest line. If it's empty, the receipt is complete.

When this format is consistent, every downstream agent can treat the response as a parseable artifact, not prose. That's why the cross-agent handoff costs 400 tokens instead of 30,000 — the receiving agent reads the receipt and resumes; it never re-reads the repo.

The Three Tools Behind the Receipt

The receipt is generated and consumed in the same flow, but three different projects coordinate to make it work:

Colony — captures the receipt as data

The structured response gets written through task_post and task_hand_off into the local SQLite store. After that, colony search "PR #447" finds it, colony timeline <session_id> replays the work that produced it, and mcp_metrics carries the token cost. The receipt is searchable; the human or next agent doesn't need the original chat window.

→ task_post: "PR #447 merged, savings model unified..."
→ task_hand_off: claims released on packages/core, apps/cli, apps/worker
→ obs_8af2c1: full structured body, FTS5-indexed
→ mcp_metrics: 17m 36s wall, ~400 tokens for the handoff

GitGuardEx (gx) — keeps work in worktrees, not on main

GitGuardEx gives every agent its own worktree on an agent/* branch. Claims happen in the worktree, edits happen in the worktree, the PR opens from the worktree, and after merge the worktree is pruned and the branch is deleted — all in one command. Colony's branch policy guard refuses claims on dev / main; gx is the part that makes "claim on a worktree instead" easy to do.

gx branch start "show-live-savings" "codex"   # creates agent/codex-show-live-savings
# ... agent works ...
# ... PR merges ...
gx branch end                                  # prunes worktree + deletes branch

The agent's response carries this provenance in the Cleanup line: "Main clean; agent worktree pruned; remote and local agent branch deleted." That's gx reporting back through Colony.

OpenSpec — the spec change is the task

OpenSpec holds the proposal-and-delta representation of every change. Before code is written, the change exists as openspec/changes/<change-id>/proposal.md plus a tasks.md and spec deltas. The agent works against that change, and the change ID is the link between the prompt and the receipt — making every PR traceable back to the spec it implements.

openspec/changes/show-live-savings/
  proposal.md       — why
  tasks.md          — what to do
  specs/savings/spec.md  — deltas to the spec

After PR lands, the change is archived under openspec/changes/archive/, keeping the historical record even after the working files move on.

oh-my-codex-colony — the bridge between runtime and receipt

oh-my-codex-colony is the runtime bridge: oh-my-codex runs the agent loop, Colony stores the claim, handoff, health, and memory receipts, and the bridge keeps both sides speaking the same compact coordination language.

Why this triplet matters

Without this chain	With Colony + gx + OpenSpec + the bridge
Agents finish work and the context dies in the chat window.	The receipt persists as an observation, searchable forever.
Agents edit on main, collisions are common, rollbacks are scary.	Every agent works in an agent/* worktree; merge or discard is one command.
"Why was this changed?" requires git log archeology and chat history.	The OpenSpec change ID points at the proposal, tasks, and deltas.
Runtime state lives apart from coordination state.	The oh-my-codex-colony bridge makes runtime state and Colony receipts align.
Every handoff replays repo + git log + chat (~30k tokens).	Every handoff is the structured receipt (~400 tokens).

The structured response isn't a Colony feature — it's a contract that Colony, gx, OpenSpec, and the oh-my-codex-colony bridge all happen to agree on. Anything else that wants to participate (a new runtime, a CI bot, a code-review agent) just needs to emit the same five sections.

---

Token Savings

TL;DR — a single cross-agent handoff costs 30,000 tokens without Colony and 400 with it. That's 99% saved on the most expensive coordination event in a multi-agent session, and Colony's mcp_metrics table records every one so the savings are measured, not estimated.

Coordination is where multi-agent runs burn tokens. Every handoff, every "what was I working on", every "did someone already touch this file" turns into a re-read of the repo, the chat, and the git log. Colony makes those moments cheap by replacing replay with one compact observation.

Why It's Cheap

Six mechanisms compound. The big-bar wins below come from at least two of them stacking on the same operation:

Mechanism	What changes
Compression at rest	Every observation runs through @colony/compress before SQLite. Prose shrinks ~70% while paths, URLs, code, commands, versions, and dates stay byte-for-byte intact.
Progressive disclosure	search, timeline, attention_inbox, task_ready_for_agent return compact IDs plus snippets. Full bodies only ship via get_observations([ids]).
Cross-session recall	Instead of re-reading 5–10 files plus git log to rederive a prior decision, agents search and pull one observation.
Claim-aware routing	task_ready_for_agent returns the next claimable action and exact claim args, so agents stop browsing task lists just to choose work.
Stale-signal decay	Expired handoffs, weak claims, and stranded lanes surface as compact attention items instead of full historical transcripts.
Tiny handoffs	A durable handoff is branch + task + blocker + next + evidence, not a pasted session log.

Where Colony Wins Hardest

Each row is a real coordination operation. The standard column is what the same operation costs without a shared substrate (agents must replay context). The Colony column is the measured cost through mcp_metrics.

Operation	Standard	Colony	Saved
Cross-agent handoff	30,000	400	🟢 99%
Quota-exhausted handoff	22,000	500	🟢 98%
Search result shape	5,000	150	🟢 97%
Unread message triage	10,000	600	🟢 94%
Review task timeline	12,000	900	🟢 93%
Find active owner for a file	6,000	500	🟢 92%
Ready-work selection	9,000	700	🟢 92%
Plan subtask claim	12,000	1,100	🟢 91%
Startup coordination sweep	25,000	2,500	🟢 90%
Recover stranded lane	18,000	1,800	🟢 90%
Resume task across sessions	15,000	2,000	🟢 87%
Coordinate parallel agents	20,000	3,000	🟢 85%

Show all 21 operations

Operation	Frequency / session	Standard	Colony	Saved
Cross-agent handoff	2x	30,000	400	99%
Quota-exhausted handoff	1x	22,000	500	98%
Search result shape	8x	5,000	150	97%
Unread message triage	4x	10,000	600	94%
Review task timeline	4x	12,000	900	93%
Find active owner for a file	6x	6,000	500	92%
Ready-work selection	3x	9,000	700	92%
Plan subtask claim	2x	12,000	1,100	91%
Examples pattern lookup	2x	11,000	1,000	91%
Blocker recurrence	2x	10,000	900	91%
Startup coordination sweep	1x	25,000	2,500	90%
Recover stranded lane	1x	18,000	1,800	90%
Claim-before-edit check	8x	4,000	450	89%
Spec context recall	2x	14,000	1,600	89%
Health/adoption diagnosis	1x	16,000	1,800	89%
Drift / failed-verification recovery	2x	13,000	1,400	89%
Resume task across sessions	3x	15,000	2,000	87%
Coordinate parallel agents	10x	20,000	3,000	85%
Why-was-this-changed	4x	8,000	1,200	85%
Recall prior decision	5x	8,000	1,500	81%
Storage at rest (per observation)	1x	1,000	300	70%

See Your Own Numbers

The table above is the reference model — the shared baseline for what these operations cost without Colony. The point of Colony is to give you live receipts for the same operations in your own work. Three surfaces, same data:

colony gain                       # CLI: live + reference, last 7 days
colony gain --hours 24 --json     # last 24 hours as JSON
colony gain --operation search    # filter live rows to one tool name
colony gain --session-limit 0     # every live session in the window
colony gain --input-cost-per-1m 1.25 --output-cost-per-1m 10

{ "name": "savings_report", "input": { "hours": 24 } }

Or open http://127.0.0.1:6510/savings while colony viewer is running. Add ?input_usd_per_1m=<usd>&output_usd_per_1m=<usd>, set COLONY_MCP_INPUT_USD_PER_1M / COLONY_MCP_OUTPUT_USD_PER_1M, or pass the flags above to convert tokens into estimated USD per operation.

The receipt model. Every wrapped MCP tool call writes a row to the mcp_metrics SQLite table with (operation, ts, input_bytes, output_bytes, input_tokens, output_tokens, duration_ms, ok, session_id, repo_root, error_code, error_message). Cost is computed at report time from those token receipts and the USD-per-1M rates you pass in, so older rows pick up cost visibility without a schema migration.

---

The Colony Loop

Every agent session runs the same six-step coordination loop. Compact first. Hydrate only when needed. Claim before editing.

#	Step	What it does
1	hivemind_context	Who's active, what's hot, what's owned, recent memory.
2	attention_inbox	Handoffs, blockers, stale lanes that need attention.
3	task_ready_for_agent	Pull claimable work matched to this agent — not browse.
4	task_plan_claim_subtask	Take exactly one unblocked wave slice from a Queen plan.
5	task_claim_file	Make ownership visible before mutating the file.
6	task_note_working	Leave a compact resumable trail for the next session.

Steps 1–3 cost almost nothing (compact IDs and snippets). Full bodies only ship when an agent explicitly calls get_observations([ids]). That's where the token savings come from.

---

How It Fits

Colony sits between the runtimes that execute work and the local SQLite store that persists state. Queen is a peer, not a controller — it publishes claimable plans, but agents still pull and complete the work themselves.

Layer	Responsibility
Codex / Claude Code / Cursor / Gemini CLI / OpenCode	Execute tools, edit files, run tests, talk to the user.
OMX / dmux / terminal sessions	Start sessions, panes, worktrees, and runtime process surfaces.
Colony	Route work, track claims, record handoffs, store memory, report health.
Queen	Publish deterministic wave plans; does not launch shells or command agents.

This split keeps execution close to the existing agent runtime while making the coordination state shared, inspectable, and local.

---

Install

npm install -g @imdeadpool/colony-cli

Register one or more runtimes:

colony install --ide claude-code
colony install --ide codex
colony install --ide cursor
colony install --ide gemini-cli
colony install --ide opencode

Check the install:

colony status

Requirements: Node.js 20+, pnpm for repository development, local SQLite state under ~/.colony.

---

Daily Workflow

colony health                            # readiness, adoption, stale signals
colony health --fix-plan                 # guided recovery plan
colony status                            # storage, IDEs, worker, memory
colony search "error or decision"        # search prior observations
colony coordination sweep --json         # report stale claims, expired handoffs
colony queen sweep                       # find stalled or unclaimed plans
colony viewer                            # local read-only graph at :6510
pnpm smoke:codex-omx-pretool             # verify lifecycle bridge
pnpm smoke:health-repair-loop            # prove bridge + cleanup compose

Installed Codex and Claude hooks inject the quota-safe operating contract: start with hivemind_context, then attention_inbox, then task_ready_for_agent; accept or decline handoffs, claim files before edits, keep task_note_working current, run focused verification, and hand off before quota or session stop.

---

Health

colony health shows whether agents are only reading Colony or actually coordinating through it. The first screen is action-first: bad readiness areas are grouped into the next exact command or MCP call. Lower-priority follow-ups stay hidden until --verbose.

Readiness summary
  coordination_readiness    good
  execution_safety          ok
  queen_plan_readiness      good
  working_state_migration   good
  signal_evaporation        good

Healthy runs trend toward:

Metric	Target
hivemind_context -> attention_inbox	50%+
attention_inbox -> task_ready_for_agent	90%+
task_ready_for_agent -> task_plan_claim_subtask	30%+ when plans exist
claim-before-edit	50%+
Colony note share	70%+
stale claims	near zero active

If this is red	First move
coordination_readiness	Check agent startup loop adoption.
execution_safety	Run pnpm smoke:codex-omx-pretool and verify hook install.
queen_plan_readiness	Publish or repair claimable Queen plans.
working_state_migration	Use task_note_working instead of ad hoc notepads.
signal_evaporation	Run a dry sweep, then explicit safe stale-claim cleanup.

execution_safety includes a source-level root_cause in --json when edit telemetry cannot be trusted:

Root cause	Meaning	First command
lifecycle_bridge_unavailable	runtime/lifecycle bridge is unavailable	colony install --ide <ide> then pnpm smoke:codex-omx-pretool
lifecycle_bridge_silent	bridge is available, but PreToolUse edit-path telemetry is empty or near-zero	colony install --ide <ide> then colony health --hours 1 --json
lifecycle_paths_missing	PreToolUse exists, but edit events lack file_path	colony bridge lifecycle --json --ide <ide> --cwd <repo_root> < colony-omx-lifecycle-v1.pre.json
lifecycle_claim_mismatch	paths exist, but claim metadata does not match edit scope	colony bridge lifecycle --json --ide <ide> --cwd <repo_root> < colony-omx-lifecycle-v1.pre.json
no_hook_capable_edits	the selected window has no file edit events to diagnose	colony health --hours 1 --json

When task_claim_file before edits says metric unreliable, fix runtime bridge or metadata first. Do not treat a bad claim ratio as agent discipline until omx_runtime_bridge.status is fresh and edit events carry paths.

Safe stale-claim cleanup is opt-in because releasing a claim changes who may edit a file:

colony health --fix-plan
colony coordination sweep --json
colony coordination sweep --release-safe-stale-claims --json
colony health --hours 1

---

Signal Lifecycle

Colony follows a stigmergic model: agents leave local traces, other agents react to useful traces, and stale traces evaporate.

Biology	Colony
ant	agent session
nest	repository
pheromone	claim, proposal, handoff, message
evaporation	TTL, decay, sweep
response threshold	agent profile plus ready-work ranking
queen	plan publisher, not commander

Practical effects:

• fresh claims warn other agents before they edit
• old claims weaken so they stop blocking current work
• proposals can be reinforced instead of lost
• Queen waves unlock in order without assigning shells
• agents hydrate only relevant observation bodies after compact routing

---

What Colony Can Do Right Now

Capability	Current surface
Install runtime hooks	colony install --ide claude-code, codex, cursor, gemini-cli, opencode
Capture local observations	lifecycle hooks, prompt events, tool events, session heartbeat
Search prior work	colony search, MCP search, timeline, get_observations
See active lanes	MCP hivemind_context, attention_inbox, CLI coordination reports
Claim work safely	task_ready_for_agent, task_plan_claim_subtask, task_claim_file
Coordinate agents	task_post, task_message, handoffs, working notes
Publish wave plans	Queen plans and task_plan_* MCP tools
Clean stale signals	colony coordination sweep, colony queen sweep, health fix plans
Inspect the graph	colony viewer local read-only graph
Measure token savings	colony gain, MCP savings_report, viewer /savings
Prove behavior	colony health, smoke tests, adoption metrics

Use Colony when you run more than one coding agent in the same repo, use worktrees or parallel branches, need local-first memory, or want stale claims and handoffs to stop shaping current work.

---

MCP Quick Reference

Installs register the MCP server as colony, so tools appear as mcp__colony__.... Colony MCP uses progressive disclosure: compact IDs, snippets, routing hints, and status rows first; full observation bodies only when requested.

Tool	Use
hivemind_context	Start/resume with active lanes, ownership, hot files, memory hits.
attention_inbox	See handoffs, messages, blockers, stale cleanup, stalled lanes.
task_ready_for_agent	Pull claimable work matched to the agent.
task_plan_claim_subtask	Claim a Queen subtask and its file scope.
task_claim_file	Make ownership visible before editing.
task_note_working	Save compact resumable state.
task_message	Send directed or broadcast agent coordination messages.
task_foraging_report	Review weak proposals and promoted future work.
savings_report	Live mcp_metrics rows + reference model; same data as colony gain.

Copy-paste startup:

{
  "name": "hivemind_context",
  "input": {
    "repo_root": "/abs/repo",
    "query": "current task or branch",
    "memory_limit": 3,
    "limit": 20
  }
}

{
  "name": "attention_inbox",
  "input": {
    "session_id": "sess_abc",
    "agent": "codex",
    "repo_root": "/abs/repo"
  }
}

{
  "name": "task_ready_for_agent",
  "input": {
    "session_id": "sess_abc",
    "agent": "codex",
    "repo_root": "/abs/repo",
    "limit": 5
  }
}

When plan work is claimable, task_ready_for_agent returns next_tool: "task_plan_claim_subtask" plus exact claim_args. When no work is claimable, it returns an empty state that tells the agent to publish a Queen/task plan for multi-agent work.

Full MCP catalog: docs/mcp.md

---

Storage

Default local state:

~/.colony/settings.json
~/.colony/data.db
~/.colony/models/
~/.colony/logs/

SQLite stores the coordination substrate. Embeddings are lazy and local by default with Xenova/all-MiniLM-L6-v2; Ollama and OpenAI-style providers are opt-in through settings. Persisted prose is compressed at rest through @colony/compress; technical tokens such as paths, URLs, code, commands, versions, dates, and numeric literals are preserved byte-for-byte.

---

Repository Layout

apps/cli             user-facing colony binary
apps/mcp-server      stdio MCP server and tool registrations
apps/worker          local HTTP worker, viewer host, embedding backfill
packages/core        MemoryStore facade and domain models
packages/storage     SQLite, FTS5, migrations, storage API
packages/hooks       lifecycle hook handlers and active-session heartbeat
packages/installers  per-runtime integration modules
packages/queen       deterministic plan decomposition and sweeps
packages/spec        spec grammar, changes, scoped context
docs                 architecture and workflow docs

Deeper docs:

• Architecture
• MCP tools
• Queen plans
• Compression
• Development
• Proposal task threads

---

Development

pnpm install
pnpm typecheck
pnpm lint
pnpm test
pnpm build

Before merging changes:

pnpm typecheck && pnpm lint && pnpm test && pnpm build

---

Architecture Rules

• Keep behavior local-first.
• Persist prose through MemoryStore so compression, privacy stripping, and storage invariants apply.
• Keep all database I/O inside @colony/storage.
• Keep settings access inside @colony/config.
• Keep MCP compact shapes compact; hydrate with get_observations.
• Keep hooks fast and free of network calls.
• Add tests for hooks, storage behavior, MCP contracts, installer changes, and compression rules.
• Keep CLI names, MCP namespace, package names, paths, and examples aligned on colony.

---

Rough Edges

• Claim-before-edit is strongest when the runtime provides a real pre-edit hook. Codex/OMX integrations may need a bridge when native PreToolUse is unavailable.
• Queen planning is active work: Queen publishes structure, but agents still need to claim and complete subtasks.
• Pheromone half-life, proposal thresholds, and routing weights need tuning from real multi-agent use.
• MCP transport is stdio-based, so an IDE/runtime restart can close the server process; the next installed tool call should reconnect.
• The viewer is useful for inspection, but the primary workflow is terminal and agent driven.

---

Roadmap: Toward a Self-Healing System

Today, colony health reports what's wrong. Tomorrow, it should fix what's wrong. The end state is a coordination substrate that detects, diagnoses, and repairs itself — so multi-agent fleets stay healthy without a human running sweep commands by hand.

Legend

Symbol	Meaning
✅	shipped, on main, covered by tests
🟡	partially shipped — works but needs hardening or polish
🔵	in active design or implementation
⏳	planned, with a known shape but no PR yet
💭	exploration — direction is right but specifics are open

---

v0 — Observe & Report ✅ shipped

The substrate exists. It tells you the truth about what's happening, captures the evidence in compact form, and gives you the exact command to fix problems yourself. This is the foundation everything else builds on.

Coordination loop primitives

• ✅ hivemind_context — start/resume with active lanes, ownership, hot files, memory hits
• ✅ attention_inbox — handoffs, blockers, stale lanes that need attention
• ✅ task_ready_for_agent — pull claimable work matched to the agent
• ✅ task_plan_claim_subtask — claim a Queen subtask and its file scope
• ✅ task_claim_file — make ownership visible before editing
• ✅ task_note_working — save compact resumable state
• ✅ task_message — directed and broadcast agent coordination messages
• ✅ task_post and task threads — durable per-task discussion
• ✅ task_hand_off — release files, summarize, declare next steps

Storage and compression

• ✅ Local SQLite + FTS5 substrate at ~/.colony/data.db
• ✅ @colony/compress — ~70% prose compression, byte-perfect for paths/URLs/code/commands/versions/dates
• ✅ Lazy local embeddings via Xenova/all-MiniLM-L6-v2
• ✅ Optional Ollama and OpenAI-compatible embedding providers
• ✅ Privacy stripping pass before persistence
• ✅ MemoryStore facade that enforces compression invariants

Runtime integration

• ✅ Installers for Claude Code, Codex, Cursor, Gemini CLI, OpenCode (5 runtimes)
• ✅ Lifecycle hooks: PreToolUse, PostToolUse, prompt events, session heartbeat
• ✅ stdio-based MCP server registered as mcp__colony__*
• ✅ Quota-safe operating contract injected into agent system prompts
• ✅ colony status — installed runtimes, worker state, memory counts, embedding status

Health and diagnostics

• ✅ colony health with five readiness pillars (coordination, execution, queen, working state, signal evaporation)
• ✅ colony health --fix-plan — printable per-area recovery commands
• ✅ colony health --json with root_cause, evidence, and source-level reasons
• ✅ Lifecycle bridge status surfacing (available, silent, paths_missing, claim_mismatch)
• ✅ Live file contention reporter with class tags (unknown owner, dup branch, active known)
• ✅ Stale signal detector (claims, handoffs, messages, proposals)
• ✅ Loop adoption metrics across sessions
• ✅ MCP share calculator vs total tool traffic
• ✅ task_list vs task_ready_for_agent comparison
• ✅ task_post vs OMX notepad share calculator
• ✅ Adoption thresholds with good/ok classification

Token-savings receipts

• ✅ mcp_metrics SQLite table — per-call rows with input/output bytes & tokens, duration, ok flag
• ✅ colony gain CLI showing live receipts plus reference model
• ✅ savings_report MCP tool returning the same data
• ✅ /savings viewer route at http://127.0.0.1:6510/savings
• ✅ USD cost calculation via flags or COLONY_MCP_INPUT_USD_PER_1M env
• ✅ Filter by operation, hours window, session limit
• ✅ Shared reference model in packages/core/src/savings-reference.ts

Queen wave plans

• ✅ Deterministic plan decomposition into waves
• ✅ task_plan_* MCP tool family
• ✅ Wave gating — wave N+1 unlocks when wave N's claimable subtasks are claimed
• ✅ colony queen sweep — find stalled or unclaimed plans
• ✅ Archived plan tracking with remaining-subtask audit
• ✅ Foraging report (task_foraging_report) for weak proposals and promotions

Signal lifecycle

• ✅ Claim TTL with weak-state expiry
• ✅ Coordination sweep CLI (colony coordination sweep)
• ✅ Safe stale-claim release behind explicit --release-safe-stale-claims flag
• ✅ Proposal decay with reinforcement counter
• ✅ Handoff expiry detection and reporting

Inspection surfaces

• ✅ colony viewer — read-only local web graph at :6510
• ✅ colony search — FTS5-backed search across observations
• ✅ colony timeline <session-id> — per-session chronological view
• ✅ colony observe — live task-thread and coordination feed
• ✅ Smoke tests: pnpm smoke:codex-omx-pretool, pnpm smoke:health-repair-loop

Shipping discipline

• ✅ Local-first architecture (no hosted control plane)
• ✅ MIT license, Node 20+
• ✅ npm publishable wrapper (pnpm publish:cli / --dry-run)
• ✅ Repository layout split: cli, mcp-server, worker, core, storage, hooks, installers, queen, spec
• ✅ End-to-end publish smoke (scripts/e2e-publish.sh)

time-to-healthy: hours. A human notices the issue, reads colony health --fix-plan, decides which commands are safe, and runs them.

---

v0.x — Hardening & Adoption 🟡 you are here

Everything in v0 works, but there are seams between "the feature exists" and "the feature is reliable enough to lean on." v0.x closes those seams. Most of these are mechanically simple but require real multi-agent runs to validate.

Lifecycle bridge polish

• ✅ runtime_bridge_status exposed in --json
• ✅ path_mismatch detection as dominant claim-miss reason
• 🟡 OMX/Codex bridge handles all PreToolUse edit shapes (some shapes still drop through)
• 🔵 Path normalization across worktrees so claims survive worktree-relative paths
• 🔵 Reclaim suggestion when path divergence is detected mid-edit
• ⏳ Bridge replay tool for offline debugging from a saved .pre.json

Contention triage

• ✅ Live contention list with owner-class tagging
• 🟡 Recommended-actions section produces command lines (still copy-paste)
• 🔵 Owner-identity resolution when owner=unknown (cross-reference session metadata)
• 🔵 Same-branch duplicate detection promoted to a top-level signal
• ⏳ Lane-takeover audit trail surfaced in colony observe

Adoption nudges

• ✅ task_list vs task_ready_for_agent ratio reporting
• ✅ MCP share rising/falling adoption thresholds
• 🟡 Plan-claim adoption is 0/107 sessions in current data — needs an explicit nudge
• 🔵 Inline suggestion in task_ready_for_agent empty-state when plan work exists but isn't claimed
• 🔵 Startup banner from hook contracts when last session left a stalled lane
• ⏳ Adoption coach mode in colony health that walks a new repo through first-week setup

Stale signal sweep ergonomics

• ✅ Dry-run sweep behind default flag
• ✅ --release-safe-stale-claims for explicit cleanup
• 🟡 Quota-pending releases require manual command per task/handoff
• 🔵 Batch quota release UX (e.g. colony task quota-release-expired --all-safe)
• 🔵 Sweep-result diff so the human can review what would change
• ⏳ Per-repo TTL override file checked into the repo

Receipts and observability

• ✅ mcp_metrics schema and population
• ✅ colony gain --operation, --hours, --session-limit, --json
• 🟡 USD cost is computed at report time but only via flags/env
• 🔵 USD cost displayed by default in colony gain if rates are configured
• 🔵 Per-error-code breakdown in mcp_metrics aggregation
• ⏳ Long-run regression detector that flags when a tool's median tokens-per-call drifts up

Multi-runtime confidence

• ✅ Smoke tests for Codex/OMX lifecycle
• ✅ Smoke tests for health repair loop composition
• 🟡 Cursor and Gemini CLI installers exist but have less smoke coverage
• 🔵 Per-runtime smoke for claim-before-edit emission
• 🔵 Cross-runtime handoff smoke (Codex hands off to Claude, both run)
• ⏳ Reproducible test fixture set under tests/scenarios/

time-to-healthy: still hours, but the time the human spends deciding what to run drops sharply because every signal carries its cmd: and tool: already.

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v1 — Propose & Apply ⏳ planned

The defining v1 jump: Colony stops printing fix commands and starts running them. Every fix is reversible, audited, and behind an explicit opt-in policy. The CLI surface is tight; the safety properties are loud.

Apply primitives

• ⏳ colony heal --apply --dry-run — show what would change
• ⏳ colony heal --apply --safe-only — only stale-signal sweeps and quota-release
• ⏳ colony heal --apply --policy=auto — contention rules + branch guard
• ⏳ Per-action confirmation prompt unless --yes
• ⏳ Policy file resolution: --policy=<file> or .colony/policy.yaml in repo root

Contention auto-resolver

• ⏳ Same-branch duplicate rule: weaker session yields, audit trail kept
• ⏳ Unknown-owner rule: explicit takeover required, with reason captured
• ⏳ Cross-branch dup: prefer agent-worktree branch over protected branch
• ⏳ Stale-claim-blocking-active: weak claim auto-released after configurable grace
• ⏳ Configurable per-rule thresholds in policy file

Branch policy guard

• ⏳ Reject task_claim_file on main/dev (configurable list)
• ⏳ Suggest gx branch start "<task>" "<agent>" when claim is rejected
• ⏳ Auto-redirect claim to existing agent worktree if the session has one
• ⏳ Honor branch_policy.allowed_prefixes config (default: agent/*)

Quota relay

• ⏳ Auto-release expired quota-pending claims after grace period
• ⏳ task_claim_quota_release_expired accepts batch input
• ⏳ Audit observation written for each released claim
• ⏳ Optional notification to original owner via task_message

Lifecycle reclaim

• ⏳ When path_mismatch is detected, attempt automatic reclaim in same session
• ⏳ Surface reclaim attempts in colony health --hours 1
• ⏳ Dead-claim eviction when bridge says "edit happened, claim never matched"

Plan-claim auto-nudge

• ⏳ When task_ready_for_agent returns plan work, hook injects exact claim_args
• ⏳ Empty-result tip points at the right task_plan_* tool
• ⏳ First-claim-of-session telemetry to validate adoption lift

Repair-as-observation

• ⏳ Every applied fix writes a repair observation with action, target, reason
• ⏳ colony search "repair" surfaces history
• ⏳ colony observe --repairs filtered live feed
• ⏳ Repair receipts roll up into colony gain so healing has a measured cost

Policy as code

• ⏳ .colony/policy.yaml schema with allowed_actions, ttl_overrides, branch_rules, takeover_thresholds
• ⏳ colony policy lint validates the file
• ⏳ colony policy show prints effective merged policy
• ⏳ Repo policy overrides user-level policy overrides defaults

time-to-healthy: minutes. First agent's startup hook runs colony heal --apply --safe-only, regressions clear before the human notices.

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v2 — Continuous Healing 💭 exploration

Move the loop off the terminal. The worker process — which already hosts the viewer and runs background embedding backfills — gains a heal loop. Adoption of v2 features assumes v1's repair primitives are stable enough that the human's role becomes setting policy, not running commands.

Healing daemon

• 💭 colony worker --heal runs sweep + safe-fix loop on configurable cadence (default: every 5 min)
• 💭 Per-repo enable/disable in policy file
• 💭 Pause-on-error: any non-idempotent failure halts the loop and surfaces in colony health
• 💭 Healing-action receipts go through the same mcp_metrics pipeline so cost is measurable

Adaptive tuning

• 💭 Pheromone TTLs per-repo from observed reinforcement rates
• 💭 Proposal-promotion threshold learned from historical promotion outcomes
• 💭 Per-claim-type half-life (e.g. test files decay faster than schema files)
• 💭 Auto-tuning is bounded by per-rule min/max in policy, never silent

Predictive routing

• 💭 task_ready_for_agent ranks claimable work using mcp_metrics history
• 💭 Per-session p50/p90 completion time per file class
• 💭 Routing weight: fit × estimated_speed × claim_likelihood
• 💭 Cold-start fallback to lexicographic ordering

Specialist routing

• 💭 Hot files learn their best-fit agent identity from prior outcomes
• 💭 Test files → Codex / Claude / Gemini split based on actual pass rates
• 💭 Prose files (markdown, docs) routing
• 💭 Schema/types files routing
• 💭 Override via .colony/specialists.yaml

Proposal auto-promotion

• 💭 Proposals reinforced past learned threshold are promoted to claimable Queen subtasks
• 💭 Demotion path: promoted-but-untouched subtasks decay back to proposals
• 💭 Cross-session reinforcement signal aggregation
• 💭 Promotion audit observation

Failure-pattern memory

• 💭 Drift / failed-verification events accumulate as searchable patterns
• 💭 task_ready_for_agent annotates ready work with "this kind of edit failed N times before"
• 💭 Pattern decay so an old transient failure doesn't permanently scar a file
• 💭 Pattern correction when the same edit later succeeds

Replay & rewind

• 💭 SQLite log treated as event-sourced enough to reconstruct any past coordination state
• 💭 colony replay --until <ts> to show the substrate at a past moment
• 💭 Used internally for testing healing policies against historical data
• 💭 Useful for incident review

time-to-healthy: seconds. The worker loop catches regressions as they happen; the human's job becomes policy review, not operations.

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v3+ — Federated Colonies 💭 horizon

Once a single repo's substrate is healing itself, the next surface is across repos. Federation is strictly opt-in and observation bodies stay local-first by default. This isn't "Colony in the cloud" — it's "Colony substrates can talk to each other when their owners say so."

• 💭 Cross-repo memory sync. Opt-in pheromone exchange so a fix discovered in one repo can propagate as a suggestion (never an auto-apply) to similar code in another. Bodies stay local; only digests cross.
• 💭 Team substrates. A team-wide read-only view that aggregates anonymized health and adoption metrics across personal repos. Useful for tooling teams to spot integration gaps without collecting source.
• 💭 Anonymized public substrates. Opt-in shared decay/reinforcement curves for common file patterns (e.g. "config files in TS monorepos") to bootstrap new repos with sane defaults.
• 💭 Cryptographic claim provenance. Signed claims so a federated suggestion can be verified to come from a known repo without trusting the transport.
• 💭 Replay-driven policy testing. Run a proposed policy change against last week's coordination history to see how many false positives it would have triggered.
• 💭 Federated MCP catalog. Discover other repos' Colony MCP namespaces (with explicit grants) to coordinate cross-project agent work.

time-to-healthy: still seconds, but problems that would have been unique to one repo are now caught early because the substrate has seen them happen elsewhere.

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North-Star Metric: Time-to-Healthy

Every roadmap item is judged against one number: how long does it take Colony to detect and repair a regression without human intervention?

Phase	Time-to-Healthy	Trigger
v0	hours (human-paced)	someone notices, runs colony health --fix-plan, copy-pastes commands
v0.x	hours	same, but finding the right command is faster (better evidence)
v1	minutes	colony heal --apply runs on first agent's startup or on demand
v2	seconds	continuous worker loop catches regressions before they propagate
v3+	seconds (cross-repo)	federated substrates flag known-bad patterns before the regression lands

If a contention sits unresolved for two hours today and for two seconds in v2, that's the win. Everything else — federated memory, predictive routing, policy files — is a means to that end.

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What Stays the Same

These are non-goals, even at v3+. If any of them break, the system stops being Colony and starts being a different product.

• Local-first by default. Colony never becomes a hosted control plane. Federation is opt-in and observation bodies stay on the local disk unless the user explicitly syncs them.
• Colony does not run agents. Healing means changing coordination state (claims, handoffs, proposals, sweeps), not launching shells or commanding agents to do work. Runtimes still execute.
• Stigmergy over orchestration. Auto-fixes leave traces (claims, proposals, handoffs) the same way a human or agent would, so the substrate stays inspectable and reversible.
• Receipts are the truth. Every healing action writes to mcp_metrics and observations. If you can't colony search it later, it didn't happen.
• Refusal beats wrong action. When in doubt, colony heal --apply refuses and surfaces the decision to a human. False-positive auto-fixes are worse than missed ones.
• Compact first. Even when Colony heals itself, the read path stays progressive: compact IDs and snippets first, full bodies only when explicitly hydrated. Healing must not bloat the substrate.

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How to Influence the Roadmap

The shortest path from "I wish Colony did X" to "Colony does X" is using Colony on real work, then opening an issue with the specific signal you wished was healed automatically. Concretely:

• ✅ Run a real multi-agent session
• ✅ Capture the colony health --json output when something felt wrong
• ✅ Open an issue with the JSON, your manual fix, and the rule you'd want auto-applied
• ✅ Reference which roadmap line item it maps to (or propose a new one)

The roadmap above is opinionated but not closed. The order of items in any phase is negotiable based on which signals are causing the most pain in real use.

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Contributing

Read CONTRIBUTING.md for the current policy. Today's contribution path is:

gx branch start "<task>" "<agent-name>"

Then use Colony on real work: start with hivemind_context, attention_inbox, and task_ready_for_agent; claim files before mutation; leave task_note_working or task_post breadcrumbs; verify the touched behavior; and finish with a PR through gx branch finish --via-pr.

Every PR should report where coordination felt wrong: stale claims, confusing handoffs, missing session context, noisy proposals, stranded sessions, missed hot files, or edits that should have been claimed before mutation. If nothing felt wrong, say Coordination friction: none observed.

For code changes, prefer small observable primitives over central orchestration. Colony should help agents coordinate by leaving durable local traces, not by becoming a remote control plane.

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Credits

Colony started from work on JuliusBrussee's cavemem repository. Credit to JuliusBrussee for the original base.

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License

MIT © Imdeadpool