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azalio/map-framework: Plan-then-build AI coding for Claude Code & Codex CLI — you approve the plan before the model writes a line of code. SPEC → PLAN → TEST → CODE → REVIEW → LEARN

azalio/map-framework: Plan-then-build AI coding for Claude Code & Codex CLI — you approve the plan before the model writes a line of code. SPEC → PLAN → TEST → CODE → REVIEW → LEARN

6 hours ago

MAP Framework — Plan-then-build AI coding. You approve the plan before the model writes a line of code.

PyPI version Python 3.11+ License: MIT GitHub stars

After mapify upgrade, Claude can invoke any MAP skill through the Skill tool on your behalf except /map-release, which remains manual-only. Workflow confirmation gates still apply; /map-upgrade requires explicit consent for a major version.

Why MAP Exists

Most AI agents rush straight to code — fast wrong answers, silent rework.

Without MAP: idea, prompt, code, hope. With MAP: SPEC, PLAN, TEST, CODE, REVIEW, LEARN — a closed loop.

Common failure modes MAP eliminates:

  • AI silently makes architecture decisions you did not approve.
  • One prompt produces a large diff that is hard to review.
  • Tests are written around the generated implementation, including its mistakes.
  • The output compiles, but you cannot explain why the design is correct.
  • The next session forgets the gotchas you already paid to discover.
MAP moves engineering judgment earlier: write down the behavior, split the work into small contracts, verify each stage, review against the spec, and save lessons for the next run.

Skill maintainers can use mapify skill-eval optimize --provider claude|codex --apply to update only the selected provider's description in the shared template source; the opposite provider stays unchanged (details).

Quick Start

Quick Start — install, init, run the loop

1. Install

uv tool install mapify-cli

or with pip

pip install mapify-cli

Requires Python 3.11+, and python3 on your PATH must be that interpreter — the installed hooks and .map/scripts/ runners execute through a #!/usr/bin/env python3 shebang, not through the interpreter that ran mapify. mapify init checks it up front and tells you what to fix (details). For Go projects requiring build tags, set checks.go.tags: integration,netgo in .map/config.yaml for the Stop hook's build check (configuration).

2. Initialize your project

Claude Code is the default provider. Cross-AI review compares explicit host and reviewer adapter vendors; same-vendor or unknown provenance is not labeled independent (details).

Claude Code:

cd your-project
mapify init
claude

Codex CLI:

cd your-project
mapify init . --provider codex
codex

The generated .codex/config.toml enables hooks. On first use, review and trust the project hook configuration when Codex prompts you; /hooks shows the eight installed lifecycle event groups.

3. Run the loop

Claude Code:

/map-plan → /map-efficient → /map-check → /map-review → /map-learn

Codex CLI:

$map-plan → $map-efficient → $map-check → $map-review → $map-learn

That's the whole golden path.

  • Start with /map-plan for anything non-trivial — it clarifies behavior and splits the work into contract-sized subtasks.
  • Starting from a PRD? Run /map-prd-review directly, or accept /map-plan's optional readiness preflight. A non-ready result shows the gaps and asks whether to revise or continue planning anyway.
  • Already scoped? Go straight to /map-efficient.
  • Tiny edit? /map-plan off-ramps you to a direct edit or /map-fast instead of forcing full planning.
  • Too foggy to plan? /map-wayfind resolves open design decisions on a durable map. Evidence-first research is on by default: factual lookups stay light; uncertain decisions get independent investigations and targeted checks, with no default attempt cap for authorized read-only work. Opt in at task start with configure_research --budget-limit N; existing caps remain binding and extensions require scoped user approval. Consequential or genuinely expensive actions still need separate consent. Stale open-ticket evidence can be explicitly refreshed without erasing history or resetting that budget. Research handoffs are checked before /map-plan; historical decisions retain explicit legacy provenance.
  • Want one entry point? /map-auto routes and drives the chain autonomously; hard-stops only on dangerous_action/safety_guardrail holds.
Codex CLI ships the same 23 MAP skill entry points and invokes them with $:
$map-plan, $map-efficient, $map-check, and so on. See the
Usage Guide.

Framework updates. Automatic stable updates are enabled by default. Normal MAP skills check at most once per project every 24 hours, apply eligible patch and minor releases, and ask before a major release after showing its official feature highlights. Rejecting a major offer is remembered per project for that exact version, so it is not offered again; any different patch, minor, or major version is offered normally. Use these project controls and provider-specific manual skills when needed:

mapify init . --no-auto-update   # persist updates.auto: false
mapify init . --auto-update      # re-enable automatic checks
/map-upgrade                     # Claude manual check/upgrade
$map-upgrade                     # Codex manual check/upgrade

Automatic failures stay silent so they do not block the requested workflow; manual checks report errors explicitly. The public mapify upgrade command is separate and unchanged: it upgrades only the CLI and does not refresh project files. See Automatic and manual framework updates.

If a legacy map-debug skill cannot load its ../../references/ documents, refresh the project after upgrading the CLI: mapify init . --force --no-git --provider codex --refresh-existing (use --provider claude for Claude). This restores missing managed references; upgrading the CLI alone does not.

Case Study: 90 days → 7 days

The DevOpsConf 2026 case study applies this process to a production Kubernetes Project Operator:

  • human estimate: 90 days
  • MAP-style delivery: 7 days
  • workflow: SPEC → PLAN → TEST → CODE → REVIEW → LEARN
  • small reviewable PRs instead of one giant generated diff
  • tests before implementation for critical pieces
  • semantic bugs caught in review before merge
DevOpsConf 2026 case study →

When To Use MAP

| Good fits | Poor fits | |-----------|-----------| | Complex backend features | Typos and tiny edits | | Kubernetes controllers and operators | Small one-off scripts | | Internal platform tooling | Product ideas where behavior is still unknown | | API, CRD, or domain-model changes with invariants | Broad rewrites without clear boundaries | | Refactoring with a meaningful test harness | Tasks cheaper to do directly than to plan |

Core Commands

| Command | Use For | |---------|---------| | /map-auto | Single-entry autonomous autopilot: routes a task through existing MAP workflows and drives the chain to a committed branch | | /map-plan | Start here for non-trivial work; clarify behavior and decompose tasks | | /map-prd-review | Review a PRD with a 0-10 readiness score, strengths, risks, and uncovered edge cases | | /map-wayfind | Too foggy to plan? Resolve design decisions on a durable map before /map-plan | | /map-efficient | Implement an approved plan or already-scoped task | | /map-fast | Small, low-risk changes where full planning is overhead | | /map-check | Quality gates, verification, and artifact checks | | /map-review | Pre-commit semantic review against the plan, tests, and diff | | /map-learn | Capture project memory and reusable lessons | | /map-understand | Interactive teaching and quiz mode for code, diffs, and workflow results | | /map-debug | Bug fixes and debugging | | /map-task | Execute a single subtask from an existing plan | | /map-tdd | Test-first implementation workflow | | /map-release | Package release workflow; Codex $map-release shares the same commit-bound CI gates | | /map-resume | Resume interrupted workflows |

Detailed usage and options →

Why Engineers Stick With It

  • Daily-driver speed — optimized for repeated use, not occasional demos. Structured enough to prevent chaos, lightweight enough to keep token and time cost under control.
  • Reviewable diffs — /map-plan and /map-efficient require per-subtask size, concern, and constraint metadata, then validate blueprint.json before implementation, so oversized or mixed-concern plans fail early.
  • Gates that check the plan, not vibes — /map-check and /map-review validate against the spec, tests, and diff instead of asking whether code "looks fine".
  • Clean-room review — /map-review auto-bundles available spec, plan, tests, verification, and coverage evidence into a single durable input (.map//review-bundle.json); standalone external-PR review needs no Actor blueprint. --detached opens a read-only worktree for inspection without touching your branch.
  • Bounded review/fix cycles — /map-review retains round history and unresolved findings across restarts, suppresses acknowledged repeat publications, and stops after three unsuccessful attempts for reconsideration—not approval. Explicit abandonment recovers stale pending rounds without resetting that budget. Incremental re-review falls back to full review when baseline or dependency coverage is uncertain.
  • Snapshot-bound review receipts — review completeness, code approval, runner-executed checks and human consent are separate records. Missing reviewers, scope gaps or stale evidence cannot approve a changed snapshot. Read-only reviewers receive base/current source and attribution in the bundle; Codex findings remain available with explicit INCOMPLETE status until capability enforcement is verified.
  • Evidence-backed findings — the existing Step A.3 separates confirmed defects, refuted claims and insufficient evidence. Validation checks the failure scenario, reachability and baseline; remediation searches a bounded scope for the same bug class. Adversarial agreement requires independent evidence-backed validations, not votes. Author reactions cannot close findings on their own.
  • Project memory — /map-learn turns hard-won fixes and gotchas into reusable context, so the next session doesn't relearn them.
More under the hood — calibrated effort, mutation boundaries, token budgets, retry quarantine, run-health diagnostics, skill IR audit
  • Calibrated workflow effort — each shipped slash skill declares a thinking_policy and parallel_tool_policy, so lightweight commands stay direct while planning, review, and release workflows reserve deeper reasoning and parallel fan-out for the stages that benefit.
  • Mutation boundary constraints — write-capable Claude and Codex surfaces tell agents not to edit unrelated files, add or upgrade dependencies, or refactor neighboring code unless the current subtask requires it. With worktree.isolation: off, Actor write checks inspect main even when a recovery worktree remains on disk.
  • Live isolation dispatch gate — before concurrent Actor fan-out, auto isolation falls back to sequential on dirty or unsupported checkouts; required isolation stops dispatch instead. Wave guidance forwards the live decision and warning.
  • Context-first prompt envelopes — high-context prompts wrap branch artifacts in XML-style , then state the and , so specs, diffs, logs, and schemas stay separated for the model.
  • Contract-sized subtasks — blueprints require expected_diff_size, concern_type, one_logical_step, hard_constraints, soft_constraints, and coverage_map. Hard constraints must be owned in coverage_map and cited in the owning subtask.
  • Token budget and research ROI reports — Actor and review prompt builders append active-path budget decisions to .map//token_budget.json, while token_accounting.json and /map-tokenreport separate research-agent/researcher cost from Actor/Monitor cost.
  • Clean retry quarantine — after repeated Monitor rejection, write-capable workflows switch the next attempt into clean-retry mode using .map//retry_quarantine.json instead of raw failed-session context.
  • Run health report — workflows write .map//run_health_report.json during closeout: terminal status, step progress, retry counters, artifact presence, hook-injection status, and advisory signals. CI can fail inconsistent closeouts with python3 .map/scripts/map_step_runner.py validate_run_health_report. All runner subcommands support read-only --help / -h; for example, python3 .map/scripts/map_step_runner.py write_run_health_report --help.
  • Lossless serial blocker repair — standalone repositories and linked Git worktrees are supported; independently approved repairs run in a private checkout with their own Monitor and full gate, preserving the paused task's phase, results, retries and dirty files. Concurrent waves and overlapping repair paths fail closed; see the repair protocol.
  • Compact recovery surface — /map-resume keeps the active recovery flow short and moves low-frequency notes to resume-reference.md, so recovery after /clear or context exhaustion gives the next checkpoint action without loading the whole appendix.
  • Skill IR audit — release checks lower shipped Claude and Codex SKILL.md files into a typed SkillIR, verify content hashes, catch unsupported frontmatter, reject missing supporting-file links, and block injection-like instructions before mapify init copies surfaces into user repos.

How It Works

MAP orchestrates specialized roles through slash commands and skills:

TaskDecomposer → breaks goals into subtasks
Actor          → implements scoped tasks
Monitor        → validates quality and blocks invalid output
Predictor      → analyzes impact for risky changes
Learner        → captures reusable project memory

For Claude Code, MAP slash surfaces live in .claude/skills/map-*/SKILL.md files created by mapify init. For Codex CLI, mapify init . --provider codex creates the matching 23 .agents/skills/ entries, nine .codex/agents/*.toml roles, eight lifecycle event groups under .codex/hooks.json, and the same shared .map/scripts/ runtime. The only provider-specific UI exception is Claude's command-driven dynamic status-line renderer. Codex supports project-level [tui].status_line, but only as an ordered list of built-in item identifiers, so MAP does not install the Claude renderer there.

MAP is inspired by the MAP cognitive architecture (Nature Communications, 2025), which reported a 74% improvement on planning tasks. The CLI turns that idea into a practical software-development workflow.

Architecture deep-dive →

What Success Looks Like

After a good first workflow, you should see:

  • a written plan or spec before implementation starts;
  • small implementation contracts instead of one giant AI diff;
  • verification and review artifacts under .map//, including runner-executed acceptance proofs rather than self-reported AC checkboxes;
  • review comments focused on correctness and semantics, not formatting noise;
  • /map-learn preserving project rules, gotchas, and handoffs for future sessions.
MAP review is useful, but it is not a replacement for engineering judgment. Serious changes still need human review. The goal is to make that review smaller, earlier, and better grounded.

Options

Minimality doctrine, context-compression policy, SOFA, and other init flags

Minimality doctrine (controls how strongly MAP pushes Actor/Monitor/Evaluator toward the smallest sufficient safe change):

# .map/config.yaml
minimality: lite   # default for ALL projects; set 'off' to opt out

Allowed values: off, lite, full, ultra. The global default is lite. lite is conservative: Actor prefers the fewest moving parts, Monitor blocks scope drift only when it affects required behavior, and Evaluator scores simplicity without letting it hide missing required work. /map-review also adds an advisory what-to-delete lens when minimality is not off; its net: -N estimate is informational, not a gate. In full/ultra, the decomposer may place speculative omissions in blueprint.deferred_yagni; those items must be shown during plan approval and can be restored with python3 .map/scripts/map_orchestrator.py restore_deferred_yagni YG-NNN. Maintainers can inspect local rollout telemetry with mapify minimality-report --json.

Context-compression policy (controls the /compact nudge; default never — opt-in):

mapify init . --compression never                 # default — no nudge
mapify init . --compression auto                  # nudge at threshold
mapify init . --compression aggressive            # nudge at 0.4 x threshold
mapify init . --compression-threshold 250000      # Opus 1M / 50+ subtask plans

Actor and reviewer prompts always carry the full bundled context — context-block truncation was removed. When a policy other than never is active, MAP offloads large tool outputs to .map//compacted/ before /compact drops them, so a dropped output is re-read from its sidecar instead of re-running broad discovery (these sidecars can hold secrets — they are 0o600 and self-ignored from git; never push .map/). See docs/USAGE.md#context-budget-policy.

Stack Overflow for Agents (SOFA) read-only prior-art search — off by default, no network or credentials unless you enable it:

mapify init . --sofa            # opt-in: enable the map-so-search skill

This writes sofa.enabled: true to .map/config.yaml and adds .sofa/ to your .gitignore. Without the flag, no SOFA code path runs. See the SOFA usage guide.

Autonomy posture (--autonomy, claude provider) — off by default, opt-in "YOLO-minus-git":

mapify init . --autonomy        # auto-approve most tools; keep git commit/push for the human
mapify init . --no-autonomy     # remove the autonomy posture

--autonomy writes a broad auto-approve allowlist plus a git commit/push deny into the per-user, gitignored .claude/settings.local.json (the committed team .claude/settings.json stays the secure baseline). The git block is enforced by the safety-guardrails.py PreToolUse hook. Omit the flag to leave existing local settings untouched on re-init. See the autonomy usage guide.

Documentation

| Guide | Description | |-------|-------------| | Installation | All install methods, PATH setup, troubleshooting | | Usage Guide | Workflows, examples, cost optimization, playbook | | Prompt Library | Copyable prompt recipes by SDLC phase and role | | Architecture | Agents, MCP integration, customization | | Platform Spec | Platform refactor roadmap, codebase analysis |

Trouble?

  • Static analysis reports local: -n: invalid option on macOS → Update MAP and refresh your provider's installed project files (mapify init . --refresh-existing, adding --provider codex for Codex). The Go/mypy diagnostic parser supports system Bash 3.2; upgrading Bash is not required for this parser. Re-run analysis rather than trusting an earlier empty report.
  • Command not found → Run mapify init in your project first.
  • init stops on a Python version → python3 on your PATH is older than 3.11; the hooks run under it. Install 3.11+ (brew install [email protected] / uv python install 3.12), then mapify check. To install anyway, pass --skip-python-check or set MAPIFY_SKIP_PYTHON_CHECK=1 — hooks stay non-functional until python3 is upgraded (details).
  • A hook printed "MAP requires Python 3.11 or newer" → same cause, detected at run time; the message names the interpreter it ran under. Context hooks report and let the session continue; the two PreToolUse gates (safety-guardrails.py, workflow-gate.py) deny the tool call instead of allowing it unguarded, so fix python3 in another terminal to unblock.
  • Agent errors → Check .claude/agents/ has all shipped agent .md files, or run mapify doctor.
  • Poor output on a complex task → Start with /map-plan and feed /map-efficient the approved plan instead of asking it to infer the architecture.
  • More help →

Contributing

Improvements welcome: prompts for specific languages, new agents, provider integrations, and CI/CD workflow support.

License

MIT


Start with /map-plan. Keep the model inside your engineering process, not the other way around.

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