GitHub - CustodyZero/Factory: A change-control system for governed AI-assisted development.

A change-control system for governed AI-assisted development.

The factory enforces that all work is scoped, intentional, and verified through an automated pipeline before it is considered done.

It is not a project management tool. It is a governance artifact store with a single-command pipeline that plans, implements, reviews, and verifies.

Why

AI agents can implement code. They cannot judge whether a change is safe to ship. The factory separates intent (which humans define) from execution (which agents perform autonomously).

Every change must declare its intent and scope before implementation begins. Verification (build, lint, test) gates every completion.

The factory flow:

intent/spec → run.ts → plan → develop (with code review) → QA verify → done

Human gates: exactly two.

Approve the spec (write the markdown document)
Approve the intent (create the intent artifact with constraints)

Everything after run.ts is autonomous.

Quick Start

Prerequisites

Node.js >= 20
pnpm (or npm/yarn — adjust factory.config.json accordingly)

Add to an Existing Project

# Add factory as a git submodule (hidden — tooling only)
git submodule add https://github.com/custodyzero/factory.git .factory

# Run setup (installs deps, copies templates, creates artifact dirs, configures hooks)
./.factory/setup.sh

# Configure for your project
# Edit factory.config.json — set project_name and verification commands

Configure for Your Project

Edit factory.config.json at the project root:

{
  "project_name": "my-project",
  "factory_dir": ".factory",
  "artifact_dir": "factory",
  "verification": {
    "build": "dotnet build",
    "lint": "true",
    "test": "dotnet test"
  },
  "validation": {
    "command": "npx tsx .factory/tools/validate.ts"
  },
  "infrastructure_patterns": [
    ".factory/",
    "factory/",
    ".github/",
    "package.json",
    ".gitignore",
    "CLAUDE.md",
    "AGENTS.md",
    "README.md",
    "LICENSE"
  ],
  "completed_by_default": {
    "kind": "agent",
    "id": "claude"
  },
  "personas": {
    "planner": {
      "description": "Decomposes intent into feature and packet artifacts",
      "instructions": [],
      "model": "high"
    },
    "developer": {
      "description": "Implements the change",
      "instructions": [],
      "model": "high"
    },
    "code_reviewer": {
      "description": "Reviews code changes for correctness, design, and contract adherence",
      "instructions": [],
      "model": "medium"
    },
    "qa": {
      "description": "Verifies acceptance criteria are met",
      "instructions": [],
      "model": "medium"
    }
  },
  "pipeline": {
    "providers": {
      "codex": {
        "enabled": true,
        "command": "codex",
        "sandbox": "workspace-write"
      },
      "claude": {
        "enabled": true,
        "command": "claude",
        "permission_mode": "bypassPermissions"
      },
      "copilot": {
        "enabled": false,
        "command": "gh copilot --",
        "model_map": {
          "high": "claude-opus-4-6",
          "medium": "GPT-5.4",
          "low": "claude-haiku-4-5"
        }
      }
    },
    "persona_providers": {
      "planner": "claude",
      "developer": "codex",
      "code_reviewer": "claude",
      "qa": "claude"
    },
    "completion_identities": {
      "developer": "codex-dev",
      "code_reviewer": "claude-cr",
      "qa": "claude-qa"
    },
    "max_review_iterations": 3
  }
}

Model Tiers

Personas declare a model tier — high, medium, or low — representing the desired capability level. These are provider-neutral. Each provider translates tiers to concrete model IDs via its model_map. If no model_map is configured, the provider's default model is used.

Providers

The pipeline supports multiple agent CLI providers:

Provider	Command	Notes
`claude`	`claude`	Anthropic Claude Code CLI
`codex`	`codex`	OpenAI Codex CLI
`copilot`	`gh copilot --`	GitHub Copilot CLI (multi-model via `model_map`)

Each persona is mapped to a provider in pipeline.persona_providers. Custom providers can be added — any CLI that accepts a prompt argument works.

Pipeline Flow

The pipeline is the single entry point for all factory work:

Human creates an intent/spec artifact in intents/
Planner agent runs tools/plan.ts <intent-id>
Planner writes one planned feature plus dev/qa packet pairs
If the intent/spec is approved, the planned feature inherits execution authority automatically
Supervisor executes authorized packet work

The planner and supervisor are intentionally separate:

planner decomposes work into artifacts
supervisor executes authorized artifacts deterministically

Plan — Planner agent decomposes the spec/intent into a feature with dev/qa packet pairs
Develop — For each dev packet (in dependency order):
- Developer agent implements
- Code reviewer agent reviews (different identity)
- Feedback loop if changes requested (bounded by max_review_iterations)
- Completion recorded (build/lint/test verification)
Verify — For each QA packet:
- QA agent verifies (different identity from dev)
- Completion recorded
Done — Feature marked complete, summary printed

Idempotency

run.ts is idempotent. If the pipeline fails mid-execution, fix the issue and re-run the same command. The pipeline derives its resume point from artifact state on disk — completed packets are skipped, in-progress packets resume from their current lifecycle status.

Identity Separation

Developer and code reviewer use different identities
QA agent uses a different identity from the developer (FI-7)
Identities are configured in pipeline.completion_identities

Your First Change

Factory has no create command — intent, feature, and packet artifacts are JSON files you write by hand (or have an AI agent write). The pipeline flow above is the preferred path. The walkthrough below shows the lower-level direct packet flow.

1. Create a dev packet

// factory/packets/add-health-endpoint-dev.json
{
  "id": "add-health-endpoint-dev",
  "kind": "dev",
  "title": "Add /health endpoint",
  "intent": "Expose a health check endpoint so load balancers can verify the service is running.",
  "acceptance_criteria": [
    "GET /health returns 200 with { \"status\": \"ok\" }",
    "Response time is under 50ms",
    "Endpoint is included in API tests"
  ],
  "scope": { "packages": ["api"] },
  "owner": "alice",
  "created_at": "2025-01-15T10:00:00Z",
  "started_at": null,
  "dependencies": [],
  "feature_id": null
}

2. Create its QA counterpart

// factory/packets/add-health-endpoint-qa.json
{
  "id": "add-health-endpoint-qa",
  "kind": "qa",
  "verifies": "add-health-endpoint-dev",
  "title": "Verify /health endpoint",
  "intent": "Confirm the health endpoint meets all acceptance criteria from the dev packet.",
  "acceptance_criteria": [
    "All dev packet acceptance criteria verified",
    "No regressions in existing API tests"
  ],
  "scope": { "packages": ["api"] },
  "owner": "alice",
  "created_at": "2025-01-15T10:00:00Z",
  "started_at": null,
  "dependencies": ["add-health-endpoint-dev"]
}

3. Check factory status

npx tsx .factory/tools/status.ts

You'll see both packets listed as not_started.

4. Implement the dev packet

Claim the packet to mark work as in progress, write the code, then request code review:

npx tsx .factory/tools/start.ts add-health-endpoint-dev
# ... implement the change ...
npx tsx .factory/tools/request-review.ts add-health-endpoint-dev

5. Code review

A code reviewer (different agent or human) reviews the branch and approves:

npx tsx .factory/tools/review.ts add-health-endpoint-dev --approve

If changes are needed, --request-changes sends it back to the developer. After approval, run completion:

npx tsx .factory/tools/complete.ts add-health-endpoint-dev

This runs build + lint + tests and writes factory/completions/add-health-endpoint-dev.json.

6. Run the QA packet

The QA packet is now unblocked (its dependency is complete). A different agent or human reviews the dev work against the acceptance criteria, then:

npx tsx .factory/tools/start.ts add-health-endpoint-qa
npx tsx .factory/tools/complete.ts add-health-endpoint-qa --identity claude-qa

The --identity flag ensures the QA completion is attributed to a different identity than the dev completion (FI-7).

7. Commit

The pre-commit hook verifies that all started packets have completions. Your commit includes the implementation files alongside the factory artifacts — the governance trail is part of the repo history.

Using features for larger work

For multi-packet work, wrap packets in a feature:

// factory/features/health-monitoring.json
{
  "id": "health-monitoring",
  "intent": "Add health monitoring so ops can verify service availability.",
  "acceptance_criteria": [
    "Health endpoint exists and is tested",
    "Monitoring dashboard updated"
  ],
  "status": "planned",
  "packets": [
    "add-health-endpoint-dev",
    "add-health-endpoint-qa"
  ],
  "created_by": { "kind": "human", "id": "alice" },
  "created_at": "2025-01-15T09:00:00Z"
}

Then use execute.ts to drive the execution loop — it tells you which packets are ready, which persona to use, and what to do next:

npx tsx .factory/tools/execute.ts health-monitoring

Using intents for planner-native work

For planner-driven work, start with an intent artifact. Intents come in two shapes, depending on how large the spec is.

Inline spec — for short, self-contained intents:

// factory/intents/customer-dashboard.json
{
  "id": "customer-dashboard",
  "title": "Customer dashboard",
  "spec": "Provide a dashboard where users can view account activity and billing status.",
  "constraints": [
    "Preserve the existing public API",
    "Split work into auditable dev/qa packet pairs"
  ],
  "status": "proposed",
  "feature_id": null,
  "created_by": { "kind": "human", "id": "alice" },
  "created_at": "2025-01-15T09:00:00Z"
}

Referenced spec — for large, human-authored Markdown specs that already live in the repository:

// factory/intents/016-platform-targets.json
{
  "id": "016-platform-targets",
  "title": "Platform Targets & Application Layer",
  "spec_path": "docs/specs/016-platform-targets-and-application-layer.md",
  "constraints": [
    "Architectural change — must be phased per the spec",
    "Preserve all invariants listed in the spec's §7"
  ],
  "status": "proposed",
  "feature_id": null,
  "created_by": { "kind": "human", "id": "alice" },
  "created_at": "2026-04-11T09:00:00Z"
}

spec_path is resolved relative to the project root (not the artifact root). At plan time, the factory reads the referenced file and hands its full contents to the planner. This lets you keep large specs as Markdown in docs/specs/ — structured, reviewable, and diff-friendly — instead of stuffing them into a JSON string.

Rules for spec_path:

Must be relative (no absolute paths) and must not escape the project root
Must point to an existing, non-empty file
Mutually exclusive with spec — use exactly one
Validated at validate.ts time so a broken reference fails CI, not at plan time

Then run the pipeline:

npx tsx .factory/tools/run.ts customer-dashboard

Artifact Types

The factory has four artifact types. Each is a JSON file validated against a schema in .factory/schemas/ (or schemas/ when working in the factory repo itself).

All artifact paths below are relative to the artifact root. In submodule installs this is factory/ (e.g., factory/packets/my-packet.json). When factory is the project, this is the repo root.

Intent

A high-level spec or problem statement that the planner decomposes into a feature and dev/qa packet pairs.

intents/<intent-id>.json

Required fields:

id — kebab-case identifier (must match filename)
title — one-line summary of the requested outcome
spec (or spec_path) — planner input describing the desired system behavior or change
status — proposed, planned, superseded, or delivered
created_by — who created the intent
created_at — ISO 8601 timestamp

Optional fields:

constraints — planner constraints or non-goals
feature_id — generated feature linked to this intent
planned_at — when planning completed

Packet

A scoped unit of work. Declares what is changing, why, and which packages are affected.

packets/<packet-id>.json

Every packet has a kind: dev (implements a change) or qa (verifies a dev packet's acceptance criteria were met). Each dev packet in a feature must have a corresponding QA packet (FI-8).

A QA packet sets verifies to the ID of the dev packet it reviews, and lists that dev packet in dependencies so the factory sequences them automatically — QA only becomes ready after dev completes.

Required fields:

id — kebab-case identifier (must match filename)
kind — dev or qa
title — one-line summary
intent — what is changing and why
acceptance_criteria — testable conditions for completeness
scope.packages — which packages are affected
owner — who is responsible
created_at — ISO 8601 timestamp

QA-specific fields:

verifies — ID of the dev packet this QA packet reviews (required for qa, forbidden for dev)

Lifecycle status (dev packets):

draft → ready → implementing → review_requested → changes_requested → review_approved → completed

Review states (review_requested, changes_requested, review_approved) apply only to dev packets. QA packets follow: draft → ready → implementing → completed.

Optional fields:

started_at — when work began (normally set by tools/start.ts)
status — lifecycle status (see above)
branch — git branch name for code review (set by request-review.ts)
review_iteration — number of review round-trips completed (default 0)
dependencies — packet IDs that must be completed first
model — model tier override (high, medium, low)
instructions — additional agent instructions (merged with persona instructions)
feature_id — parent feature ID
tags — freeform labels

Completion

Evidence that a packet's implementation is done. Created by complete.ts, not by hand.

completions/<packet-id>.json

Required fields:

packet_id — must reference an existing packet
completed_at — ISO 8601 timestamp
completed_by — identity ({ kind, id })
summary — what was done
verification — { tests_pass, build_pass, lint_pass, ci_pass } (all booleans)

Feature

A planned execution unit that decomposes into dev/qa packet pairs.

features/<feature-id>.json

Required fields:

id — kebab-case identifier (must match filename)
intent — what the project should do when this feature is complete
acceptance_criteria — feature-level success conditions
status — planned, executing, completed, delivered
packets — ordered list of packet IDs (dev and qa)
created_by — identity

Lifecycle

Pipeline lifecycle (preferred)

Human writes intent → run.ts plans, develops, reviews, verifies → done

Manual packet lifecycle

not_started → in_progress → completed

A packet moves through states based on which artifacts exist:

State	Condition
`not_started`	No completion, `started_at` is null
`in_progress`	No completion, `started_at` is set
`completed`	Completion record exists

Factory Invariants

FI-1 — One completion per packet.

FI-4 — Completion requires verification. Build, lint, and test must have been run before a completion is recorded.

FI-7 — Commit-time completion enforcement and identity separation. A commit must not include implementation files while any started packet lacks a completion. Enforced by the pre-commit hook. A QA packet must not be completed by the same identity that completed its dev counterpart.

FI-8 — Every dev packet in a feature must have a QA counterpart. For each dev packet in a feature, a QA packet with verifies pointing to that dev packet must exist in the same feature. Abandoned/deferred packets are exempt.

FI-9 — No cyclic packet dependencies. The dependency graph across all packets must be a DAG. Cycles cause permanent blocked state.

Schema Invariants (enforced at schema and validation levels)

Packet kind must be dev or qa
QA packets must set verifies to a valid dev packet ID
Dev packets must not set verifies
Packet and feature acceptance_criteria must be non-empty
Packet IDs must match filenames (kebab-case)
Feature packets must reference existing packet IDs
Identity objects must have kind and id fields
Orphaned completions are errors

Tooling

When installed as a submodule at .factory/, tool paths use .factory/tools/.... When working in the factory repo itself, use tools/... directly.

Run (Pipeline)

npx tsx .factory/tools/run.ts <intent-id>

Single-command pipeline. Plans the intent, executes dev packets with code review, runs QA verification, marks the feature complete. Idempotent — safe to re-run after failures.

Status

npx tsx .factory/tools/status.ts              # human-readable report
npx tsx .factory/tools/status.ts --json       # machine-readable JSON
npx tsx .factory/tools/status.ts --feature <id>  # scoped to a feature

Start

npx tsx .factory/tools/start.ts <packet-id>

Claims a packet and marks it started before implementation begins.

Request Review

npx tsx .factory/tools/request-review.ts <packet-id>
npx tsx .factory/tools/request-review.ts <packet-id> --branch <branch-name>

Transitions a dev packet from implementing (or changes_requested) to review_requested. Captures the current git branch (or uses --branch override) and sets the branch field on the packet. Increments review_iteration on re-requests after changes_requested.

Review

npx tsx .factory/tools/review.ts <packet-id> --approve
npx tsx .factory/tools/review.ts <packet-id> --request-changes

Records a code review decision on a dev packet in review_requested status. --approve transitions to review_approved (developer can now call complete.ts). --request-changes transitions to changes_requested (developer addresses feedback, then calls request-review.ts again).

Review feedback lives in git (branch diffs, git notes) — not in factory artifacts.

Complete

npx tsx .factory/tools/complete.ts <packet-id> [--summary "..."]

Runs verification (build, lint, test), then creates a completion record. Dev packets must be in review_approved status before completion.

Execute

npx tsx .factory/tools/execute.ts <feature-id>
npx tsx .factory/tools/execute.ts <feature-id> --json

Stateless action resolver for feature-level execution.

Plan

npx tsx .factory/tools/plan.ts <intent-id>
npx tsx .factory/tools/plan.ts <intent-id> --json

Planner handoff resolver. Reads an intent/spec artifact and tells the planner whether it needs to decompose work, wait for approval, or hand off to the supervisor.

Supervise

npx tsx .factory/tools/supervise.ts --init
npx tsx .factory/tools/supervise.ts --json

Supervisor tick loop for automated orchestration. In supervisor mode, execute_feature returns stable dispatch records that act as the only legal authorization for packet start/agent spawn.

Orchestrate

npx tsx .factory/tools/orchestrate.ts health
npx tsx .factory/tools/orchestrate.ts health --probe
npx tsx .factory/tools/orchestrate.ts plan <intent-id>
npx tsx .factory/tools/orchestrate.ts supervise
npx tsx .factory/tools/orchestrate.ts run
npx tsx .factory/tools/orchestrate.ts run --intent <intent-id>

Deterministic shell harness for native orchestration. It consumes plan.ts and supervise.ts, invokes supported LLM CLIs, and stores bounded runtime state in supervisor/orchestrator-state.json. run is the autonomous mode: it initializes supervisor state when needed, re-ticks after update_state, retries planner and packet execution through the configured provider/model ladder, and stops only at idle or an explicit human gate (approval, acceptance, blocked, or failure).

Validate

npx tsx .factory/tools/validate.ts

Schema validation + referential integrity + invariant enforcement.

Features

Feature lifecycle:

planned → executing → completed → delivered

Packet lifecycle:

Dev packets:  draft → ready → implementing → review_requested → changes_requested → review_approved → completed
QA packets:   draft → ready → implementing → completed

Execution protocol:

Run npx tsx .factory/tools/run.ts <intent-id> (preferred — runs everything)
Or manually: run execute.ts <feature-id> to get the work list
Dev agent: start.ts → implement → request-review.ts → code_reviewer runs review.ts --approve → complete.ts
QA agent: start.ts → verify → complete.ts
Re-run execute
Repeat until all_complete
Natural flow per story: dev packet (developer ↔ code_reviewer loop) → QA packet (qa) → acceptance (human, if architectural)

If supervisor mode is enabled, packets must be returned by supervise.ts before they can be started. Supervisor execute_feature actions now include stable dispatch records so an outer orchestrator can treat them as the only legal packet authorizations for that tick.

End-to-End Supervisor Flow

This is the intended automated flow when a human wants the factory to drive a feature through developer and QA agents:

Human creates the feature JSON and dev/QA packet JSON files.
Human approves the feature (status: "approved").
Preferred native option: run npx tsx .factory/tools/orchestrate.ts run
Manual option: initialize supervisor state once with npx tsx .factory/tools/supervise.ts --init, then run npx tsx .factory/tools/supervise.ts --json
If the result is execute_feature, the orchestrator or external runner spawns one agent per dispatch in dispatches
Each spawned agent runs the returned start_command, performs only that packet’s work, then runs complete.ts
QA agents use a distinct qa identity and must satisfy any environment_dependencies evidence requirement
The native orchestrator retries failed planner and packet runs using the configured Codex/Claude ladder before surfacing failure
Supervisor re-runs supervise.ts --json after each state change
If the result is escalate_acceptance, the human runs accept.ts for the listed architectural packet(s)
Repeat until the supervisor returns idle

The key rule is that the outer orchestrator must never invent its own packet assignments. It should only spawn agents from the current tick’s dispatches. A single execute_feature action may contain dispatches for multiple independent features.

End-to-End Planner + Supervisor Flow

This is the full factory-native flow with planning and execution separated:

Human writes intents/<intent-id>.json
Planner agent runs npx tsx .factory/tools/plan.ts <intent-id> --json
If the action is plan_feature, the planner writes:
- one features/<feature-id>.json artifact with status: "planned"
- dev/qa packet pairs in packets/
- packet dependencies, change classes, and acceptance criteria
- feature.intent_id and intent.feature_id linkage
Human approves the intent/spec when it is ready to govern downstream work
Preferred native option: run npx tsx .factory/tools/orchestrate.ts run --intent <intent-id>
The orchestrator invokes the planner if needed
Planned features linked to an approved intent inherit execution authority automatically; standalone/manual planned features may still require direct feature approval
Supervisor dispatches only authorized packet work, potentially across multiple independent features in the same tick
Developer and qa agents execute packets exactly as assigned
Human handles architectural acceptance when escalated
Delivery occurs when the completed feature satisfies the approved intent

Directory Structure

When installed in a host project as a git submodule:

.                            # Host project root
├── factory.config.json      # Project-specific configuration
├── CLAUDE.md                # AI instructions for the project
├── AGENTS.md                # Agent operating constraints
├── .factory/                # Factory submodule (hidden, tooling only)
│   ├── schemas/             # JSON schemas for all artifact types
│   ├── tools/               # Factory tooling
│   │   ├── config.ts        # Configuration loader
│   │   ├── run.ts           # Pipeline entry point
│   │   ├── validate.ts      # Schema + integrity validation
│   │   ├── status.ts        # Status & next action
│   │   ├── plan.ts          # Planner handoff resolver
│   │   ├── execute.ts       # Feature execution resolver
│   │   ├── start.ts         # Packet claim command
│   │   ├── complete.ts      # Completion record generator
│   │   ├── request-review.ts # Code review request
│   │   ├── review.ts        # Code review decision
│   │   ├── completion-gate.ts # Pre-commit FI-7 enforcement
│   │   ├── output.ts        # Terminal output formatting
│   │   └── test/            # Tooling tests
│   ├── hooks/               # Git hooks
│   │   └── pre-commit       # Completion gate + validate
│   ├── templates/           # Setup templates
│   ├── setup.sh             # Installation script (Linux/macOS)
│   ├── setup.ps1            # Installation script (Windows)
│   └── docs/
│       └── integration.md   # Detailed integration guide
├── factory/                 # Factory artifacts (visible, one directory)
│   ├── intents/             # Planner input specs
│   ├── features/            # Planned execution units
│   ├── packets/             # Work unit declarations
│   └── completions/         # Implementation evidence
└── src/                     # Host project source (any language)

Key separation: Tooling lives in .factory/ (hidden submodule). Artifacts live in factory/ (visible, single directory). The factory_dir config field points to the tooling submodule, artifact_dir points to the artifact directory. Tools resolve paths via resolveArtifactRoot() and resolveFactoryRoot().

Installation

# From your project root
git submodule add https://github.com/custodyzero/factory.git .factory
./.factory/setup.sh

The setup script:

Installs factory dependencies (isolated in .factory/node_modules/)
Copies template factory.config.json, CLAUDE.md, and AGENTS.md to your project root (no-clobber)
Creates factory/ directory with artifact subdirectories
Configures git config core.hooksPath .factory/hooks

See docs/integration.md for detailed integration guide.

Licensing Commitment

Factory is open source under Apache 2.0 and will remain so permanently.

The Apache 2.0 license governs the source code. It does not grant rights to use Factory brand assets. See the CustodyZero brand repository for brand usage policy.

Name		Name	Last commit message	Last commit date
Latest commit History 48 Commits
acceptances		acceptances
completions		completions
docs		docs
evidence		evidence
features		features
hooks		hooks
packets		packets
rejections		rejections
reports		reports
schemas		schemas
templates		templates
tools		tools
.gitignore		.gitignore
AGENTS.md		AGENTS.md
CLAUDE.md		CLAUDE.md
LICENSE		LICENSE
README.md		README.md
factory.config.json		factory.config.json
package-lock.json		package-lock.json
package.json		package.json
pnpm-lock.yaml		pnpm-lock.yaml
setup.ps1		setup.ps1
setup.sh		setup.sh
tsconfig.json		tsconfig.json
vitest.config.ts		vitest.config.ts

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Why

Quick Start

Prerequisites

Add to an Existing Project

Configure for Your Project

Model Tiers

Providers

Pipeline Flow

Idempotency

Identity Separation

Your First Change

1. Create a dev packet

2. Create its QA counterpart

3. Check factory status

4. Implement the dev packet

5. Code review

6. Run the QA packet

7. Commit

Using features for larger work

Using intents for planner-native work

Artifact Types

Intent

Packet

Completion

Feature

Lifecycle

Pipeline lifecycle (preferred)

Manual packet lifecycle

Factory Invariants

Schema Invariants (enforced at schema and validation levels)

Tooling

Run (Pipeline)

Status

Start

Request Review

Review

Complete

Execute

Plan

Supervise

Orchestrate

Validate

Features

End-to-End Supervisor Flow

End-to-End Planner + Supervisor Flow

Directory Structure

Installation

Licensing Commitment

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