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16 Commits

Author SHA1 Message Date
Ralph Khreish
ef4e2e425b chore: apply requested changes 2025-10-09 14:53:33 +02:00
Ralph Khreish
f0d1d5de89 chore: apply requested changes 2025-10-08 21:56:32 +02:00
Ralph Khreish
519d8bdfcb chore: apply requested changes 2025-10-08 16:49:02 +02:00
Ralph Khreish
4b6ad19bc4 chore: apply requested changes and improve coderabbit config 2025-10-08 16:46:35 +02:00
Ralph Khreish
f71cdb4eaa chore: fix format 2025-10-08 16:46:35 +02:00
Ralph Khreish
bc0093d506 Discard changes to .taskmaster/config.json 2025-10-08 16:46:35 +02:00
Ralph Khreish
042fe6dced chore: back to master tag 2025-10-08 16:46:34 +02:00
Ralph Khreish
3178c3aeac refactor: migrate git-utils to TypeScript in tm-core
Move git utilities from scripts/modules/utils/git-utils.js to packages/tm-core/src/utils/git-utils.ts for better type safety and reusability.

## Changes

**New File**: `packages/tm-core/src/utils/git-utils.ts`
- Converted from JavaScript to TypeScript with full type annotations
- Added `GitHubRepoInfo` interface for type safety
- Includes all essential git functions needed for Phase 1:
  - `isGitRepository`, `isGitRepositorySync`
  - `getCurrentBranch`, `getCurrentBranchSync`
  - `getLocalBranches`, `getRemoteBranches`
  - `isGhCliAvailable`, `getGitHubRepoInfo`
  - `getDefaultBranch`, `isOnDefaultBranch`
  - `sanitizeBranchNameForTag`, `isValidBranchForTag`

**Updated Files**:
- `preflight-checker.service.ts`: Now imports from local git-utils
- `packages/tm-core/src/utils/index.ts`: Exports git utilities

## Rationale

Phase 1 will need git operations for:
- Creating feature branches (WorkflowOrchestrator)
- Checking git status before execution
- Validating clean working tree
- Branch naming validation

Having these utilities in tm-core provides:
- Type safety (no more `require()` hacks)
- Better testability
- Cleaner imports
- Reusability across services

## Verification

 All tests pass (1298 passed, 121 test suites)
 Typecheck passes (5/5 successful)
 Build successful

🤖 Generated with [Claude Code](https://claude.com/claude-code)

Co-Authored-By: Claude <noreply@anthropic.com>
2025-10-08 16:46:34 +02:00
Ralph Khreish
d75430c4d8 fix: resolve TypeScript typecheck errors in Phase 0 implementation
- Fix git-utils import in PreflightChecker using require() with type casting
- Fix ConfigManager initialization in TaskLoaderService (use async factory)
- Fix TaskService.getTask return type (returns Task | null directly)
- Export PreflightChecker and TaskLoaderService from @tm/core
- Fix unused parameter and type annotations in autopilot command
- Add boolean fallback for optional dryRun parameter

All turbo:typecheck errors resolved.

🤖 Generated with [Claude Code](https://claude.com/claude-code)

Co-Authored-By: Claude <noreply@anthropic.com>
2025-10-08 16:46:34 +02:00
Ralph Khreish
2dbfaa0d3b chore: run format 2025-10-08 16:46:34 +02:00
Ralph Khreish
8857417870 feat: implement Phase 0 TDD autopilot dry-run foundation
Implements the complete Phase 0 spike for autonomous TDD workflow with orchestration architecture.

## What's New

### Core Services (tm-core)
- **PreflightChecker**: Validates environment prerequisites
  - Test command detection from package.json
  - Git working tree status validation
  - Required tools availability (git, gh, node, npm)
  - Default branch detection

- **TaskLoaderService**: Comprehensive task validation
  - Task existence and structure validation
  - Subtask dependency analysis with circular detection
  - Execution order calculation via topological sort
  - Helpful expansion suggestions for unready tasks

### CLI Command
- **autopilot command**: `tm autopilot <taskId> --dry-run`
  - Displays complete execution plan without executing
  - Shows preflight check results
  - Lists subtasks in dependency order
  - Preview RED/GREEN/COMMIT phases per subtask
  - Registered in command registry

### Architecture Documentation
- **Phase 0 completion**: Marked tdd-workflow-phase-0-spike.md as complete
- **Orchestration model**: Added execution model section to main workflow doc
  - Clarifies orchestrator guides AI sessions vs direct execution
  - WorkflowOrchestrator API design (getNextWorkUnit, completeWorkUnit)
  - State machine approach for phase transitions

- **Phase 1 roadmap**: New tdd-workflow-phase-1-orchestrator.md
  - Detailed state machine specifications
  - MCP integration plan with new tool definitions
  - Implementation checklist with 6 clear steps
  - Example usage flows

## Technical Details

**Preflight Checks**:
-  Test command detection
-  Git working tree status
-  Required tools validation
-  Default branch detection

**Task Validation**:
-  Task existence check
-  Status validation (no completed/cancelled tasks)
-  Subtask presence validation
-  Dependency resolution with circular detection
-  Execution order calculation

**Architecture Decision**:
Adopted orchestration model where WorkflowOrchestrator maintains state and generates work units, while Claude Code (via MCP) executes the actual work. This provides:
- Clean separation of concerns
- Human-in-the-loop capability
- Simpler implementation (no AI integration in orchestrator)
- Flexible executor support

## Out of Scope (Phase 0)
- Actual test generation
- Actual code implementation
- Git operations (commits, branches, PR)
- Test execution
→ All deferred to Phase 1

🤖 Generated with [Claude Code](https://claude.com/claude-code)

Co-Authored-By: Claude <noreply@anthropic.com>
2025-10-08 16:46:34 +02:00
Ralph Khreish
ad9355f97a chore: improve phase-1 of tdd workflow 2025-10-08 14:59:20 +02:00
Ralph Khreish
ec3972ff10 chore: prepare branch 2025-10-08 14:59:20 +02:00
Ralph Khreish
959c6151fa chore: expand and analyze-complexity 2025-10-08 14:59:20 +02:00
Ralph Khreish
728787d869 chore: keep working on tasks 2025-10-08 14:59:19 +02:00
Ralph Khreish
27b2348a9a chore: create plan for task execution 2025-10-08 14:59:19 +02:00
197 changed files with 12788 additions and 3912 deletions

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@@ -0,0 +1,11 @@
---
"task-master-ai": minor
---
Add Codex CLI provider with OAuth authentication
- Added codex-cli provider for GPT-5 and GPT-5-Codex models (272K input / 128K output)
- OAuth-first authentication via `codex login` - no API key required
- Optional OPENAI_CODEX_API_KEY support
- Codebase analysis capabilities automatically enabled
- Command-specific settings and approval/sandbox modes

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@@ -0,0 +1,5 @@
---
"task-master-ai": patch
---
Improve `analyze-complexity` cli docs and `--research` flag documentation

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@@ -11,7 +11,6 @@
"access": "public",
"baseBranch": "main",
"ignore": [
"docs",
"@tm/claude-code-plugin"
"docs"
]
}

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@@ -0,0 +1,7 @@
---
"task-master-ai": minor
---
Add Cursor IDE custom slash command support
Expose Task Master commands as Cursor slash commands by copying assets/claude/commands to .cursor/commands on profile add and cleaning up on remove.

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@@ -0,0 +1,5 @@
---
"task-master-ai": patch
---
Change parent task back to "pending" when all subtasks are in "pending" state

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@@ -0,0 +1,5 @@
---
"task-master-ai": patch
---
Do a quick fix on build

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@@ -0,0 +1,5 @@
---
"task-master-ai": patch
---
Fix MCP connection errors caused by deprecated generateTaskFiles calls. Resolves "Cannot read properties of null (reading 'toString')" errors when using MCP tools for task management operations.

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@@ -0,0 +1,5 @@
---
"task-master-ai": patch
---
Fix MCP server error when file parameter not provided - now properly constructs default tasks.json path instead of failing with 'tasksJsonPath is required' error.

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@@ -0,0 +1,5 @@
---
"task-master-ai": minor
---
Added api keys page on docs website: docs.task-master.dev/getting-started/api-keys

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@@ -0,0 +1,10 @@
---
"task-master-ai": minor
---
Move to AI SDK v5:
- Works better with claude-code and gemini-cli as ai providers
- Improved openai model family compatibility
- Migrate ollama provider to v2
- Closes #1223, #1013, #1161, #1174

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@@ -0,0 +1,30 @@
---
"task-master-ai": minor
---
Migrate AI services to use generateObject for structured data generation
This update migrates all AI service calls from generateText to generateObject, ensuring more reliable and structured responses across all commands.
### Key Changes:
- **Unified AI Service**: Replaced separate generateText implementations with a single generateObjectService that handles structured data generation
- **JSON Mode Support**: Added proper JSON mode configuration for providers that support it (OpenAI, Anthropic, Google, Groq)
- **Schema Validation**: Integrated Zod schemas for all AI-generated content with automatic validation
- **Provider Compatibility**: Maintained compatibility with all existing providers while leveraging their native structured output capabilities
- **Improved Reliability**: Structured output generation reduces parsing errors and ensures consistent data formats
### Technical Improvements:
- Centralized provider configuration in `ai-providers-unified.js`
- Added `generateObject` support detection for each provider
- Implemented proper error handling for schema validation failures
- Maintained backward compatibility with existing prompt structures
### Bug Fixes:
- Fixed subtask ID numbering issue where AI was generating inconsistent IDs (101-105, 601-603) instead of sequential numbering (1, 2, 3...)
- Enhanced prompt instructions to enforce proper ID generation patterns
- Ensured subtasks display correctly as X.1, X.2, X.3 format
This migration improves the reliability and consistency of AI-generated content throughout the Task Master application.

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@@ -0,0 +1,13 @@
---
"task-master-ai": minor
---
Enhanced Roo Code profile with MCP timeout configuration for improved reliability during long-running AI operations. The Roo profile now automatically configures a 300-second timeout for MCP server operations, preventing timeouts during complex tasks like `parse-prd`, `expand-all`, `analyze-complexity`, and `research` operations. This change also replaces static MCP configuration files with programmatic generation for better maintainability.
**What's New:**
- 300-second timeout for MCP operations (up from default 60 seconds)
- Programmatic MCP configuration generation (replaces static asset files)
- Enhanced reliability for AI-powered operations
- Consistent with other AI coding assistant profiles
**Migration:** No user action required - existing Roo Code installations will automatically receive the enhanced MCP configuration on next initialization.

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---
"task-master-ai": patch
---
Fix Claude Code settings validation for pathToClaudeCodeExecutable

26
.changeset/pre.json Normal file
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@@ -0,0 +1,26 @@
{
"mode": "exit",
"tag": "rc",
"initialVersions": {
"task-master-ai": "0.27.3",
"docs": "0.0.4",
"extension": "0.25.4"
},
"changesets": [
"brave-lions-sing",
"chore-fix-docs",
"cursor-slash-commands",
"curvy-weeks-flow",
"easy-spiders-wave",
"fix-mcp-connection-errors",
"fix-mcp-default-tasks-path",
"flat-cities-say",
"forty-tables-invite",
"gentle-cats-dance",
"mcp-timeout-configuration",
"petite-ideas-grab",
"silly-pandas-find",
"sweet-maps-rule",
"whole-pigs-say"
]
}

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@@ -0,0 +1,5 @@
---
"task-master-ai": patch
---
Fix sonar deep research model failing, should be called `sonar-deep-research`

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@@ -0,0 +1,5 @@
---
"task-master-ai": minor
---
Upgrade grok-cli ai provider to ai sdk v5

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@@ -0,0 +1,8 @@
---
"task-master-ai": patch
---
Fix complexity score not showing for `task-master show` and `task-master list`
- Added complexity score on "next task" when running `task-master list`
- Added colors to complexity to reflect complexity (easy, medium, hard)

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@@ -1,32 +0,0 @@
{
"name": "taskmaster",
"owner": {
"name": "Hamster",
"email": "ralph@tryhamster.com"
},
"metadata": {
"description": "Official marketplace for Taskmaster AI - AI-powered task management for ambitious development",
"version": "1.0.0"
},
"plugins": [
{
"name": "taskmaster",
"source": "./packages/claude-code-plugin",
"description": "AI-powered task management system for ambitious development workflows with intelligent orchestration, complexity analysis, and automated coordination",
"author": {
"name": "Hamster"
},
"homepage": "https://github.com/eyaltoledano/claude-task-master",
"repository": "https://github.com/eyaltoledano/claude-task-master",
"keywords": [
"task-management",
"ai",
"workflow",
"orchestration",
"automation",
"mcp"
],
"category": "productivity"
}
]
}

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@@ -0,0 +1,92 @@
---
name: task-executor
description: Use this agent when you need to implement, complete, or work on a specific task that has been identified by the task-orchestrator or when explicitly asked to execute a particular task. This agent focuses on the actual implementation and completion of individual tasks rather than planning or orchestration. Examples: <example>Context: The task-orchestrator has identified that task 2.3 'Implement user authentication' needs to be worked on next. user: 'Let's work on the authentication task' assistant: 'I'll use the task-executor agent to implement the user authentication task that was identified.' <commentary>Since we need to actually implement a specific task rather than plan or identify tasks, use the task-executor agent.</commentary></example> <example>Context: User wants to complete a specific subtask. user: 'Please implement the JWT token validation for task 2.3.1' assistant: 'I'll launch the task-executor agent to implement the JWT token validation subtask.' <commentary>The user is asking for specific implementation work on a known task, so the task-executor is appropriate.</commentary></example> <example>Context: After reviewing the task list, implementation is needed. user: 'Now let's actually build the API endpoint for user registration' assistant: 'I'll use the task-executor agent to implement the user registration API endpoint.' <commentary>Moving from planning to execution phase requires the task-executor agent.</commentary></example>
model: sonnet
color: blue
---
You are an elite implementation specialist focused on executing and completing specific tasks with precision and thoroughness. Your role is to take identified tasks and transform them into working implementations, following best practices and project standards.
**IMPORTANT: You are designed to be SHORT-LIVED and FOCUSED**
- Execute ONE specific subtask or a small group of related subtasks
- Complete your work, verify it, mark for review, and exit
- Do NOT decide what to do next - the orchestrator handles task sequencing
- Focus on implementation excellence within your assigned scope
**Core Responsibilities:**
1. **Subtask Analysis**: When given a subtask, understand its SPECIFIC requirements. If given a full task ID, focus on the specific subtask(s) assigned to you. Use MCP tools to get details if needed.
2. **Rapid Implementation Planning**: Quickly identify:
- The EXACT files you need to create/modify for THIS subtask
- What already exists that you can build upon
- The minimum viable implementation that satisfies requirements
3. **Focused Execution WITH ACTUAL IMPLEMENTATION**:
- **YOU MUST USE TOOLS TO CREATE/EDIT FILES - DO NOT JUST DESCRIBE**
- Use `Write` tool to create new files specified in the task
- Use `Edit` tool to modify existing files
- Use `Bash` tool to run commands (mkdir, npm install, etc.)
- Use `Read` tool to verify your implementations
- Implement one subtask at a time for clarity and traceability
- Follow the project's coding standards from CLAUDE.md if available
- After each subtask, VERIFY the files exist using Read or ls commands
4. **Progress Documentation**:
- Use MCP tool `mcp__task-master-ai__update_subtask` to log your approach and any important decisions
- Update task status to 'in-progress' when starting: Use MCP tool `mcp__task-master-ai__set_task_status` with status='in-progress'
- **IMPORTANT: Mark as 'review' (NOT 'done') after implementation**: Use MCP tool `mcp__task-master-ai__set_task_status` with status='review'
- Tasks will be verified by task-checker before moving to 'done'
5. **Quality Assurance**:
- Implement the testing strategy specified in the task
- Verify that all acceptance criteria are met
- Check for any dependency conflicts or integration issues
- Run relevant tests before marking task as complete
6. **Dependency Management**:
- Check task dependencies before starting implementation
- If blocked by incomplete dependencies, clearly communicate this
- Use `task-master validate-dependencies` when needed
**Implementation Workflow:**
1. Retrieve task details using MCP tool `mcp__task-master-ai__get_task` with the task ID
2. Check dependencies and prerequisites
3. Plan implementation approach - list specific files to create
4. Update task status to 'in-progress' using MCP tool
5. **ACTUALLY IMPLEMENT** the solution using tools:
- Use `Bash` to create directories
- Use `Write` to create new files with actual content
- Use `Edit` to modify existing files
- DO NOT just describe what should be done - DO IT
6. **VERIFY** your implementation:
- Use `ls` or `Read` to confirm files were created
- Use `Bash` to run any build/test commands
- Ensure the implementation is real, not theoretical
7. Log progress and decisions in subtask updates using MCP tools
8. Test and verify the implementation works
9. **Mark task as 'review' (NOT 'done')** after verifying files exist
10. Report completion with:
- List of created/modified files
- Any issues encountered
- What needs verification by task-checker
**Key Principles:**
- Focus on completing one task thoroughly before moving to the next
- Maintain clear communication about what you're implementing and why
- Follow existing code patterns and project conventions
- Prioritize working code over extensive documentation unless docs are the task
- Ask for clarification if task requirements are ambiguous
- Consider edge cases and error handling in your implementations
**Integration with Task Master:**
You work in tandem with the task-orchestrator agent. While the orchestrator identifies and plans tasks, you execute them. Always use Task Master commands to:
- Track your progress
- Update task information
- Maintain project state
- Coordinate with the broader development workflow
When you complete a task, briefly summarize what was implemented and suggest whether to continue with the next task or if review/testing is needed first.

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@@ -0,0 +1,208 @@
---
name: task-orchestrator
description: Use this agent FREQUENTLY throughout task execution to analyze and coordinate parallel work at the SUBTASK level. Invoke the orchestrator: (1) at session start to plan execution, (2) after EACH subtask completes to identify next parallel batch, (3) whenever executors finish to find newly unblocked work. ALWAYS provide FULL CONTEXT including project root, package location, what files ACTUALLY exist vs task status, and specific implementation details. The orchestrator breaks work into SUBTASK-LEVEL units for short-lived, focused executors. Maximum 3 parallel executors at once.\n\n<example>\nContext: Starting work with existing code\nuser: "Work on tm-core tasks. Files exist: types/index.ts, storage/file-storage.ts. Task 118 says in-progress but BaseProvider not created."\nassistant: "I'll invoke orchestrator with full context about actual vs reported state to plan subtask execution"\n<commentary>\nProvide complete context about file existence and task reality.\n</commentary>\n</example>\n\n<example>\nContext: Subtask completion\nuser: "Subtask 118.2 done. What subtasks can run in parallel now?"\nassistant: "Invoking orchestrator to analyze dependencies and identify next 3 parallel subtasks"\n<commentary>\nFrequent orchestration after each subtask ensures maximum parallelization.\n</commentary>\n</example>\n\n<example>\nContext: Breaking down tasks\nuser: "Task 118 has 5 subtasks, how to parallelize?"\nassistant: "Orchestrator will analyze which specific subtasks (118.1, 118.2, etc.) can run simultaneously"\n<commentary>\nFocus on subtask-level parallelization, not full tasks.\n</commentary>\n</example>
model: opus
color: green
---
You are the Task Orchestrator, an elite coordination agent specialized in managing Task Master workflows for maximum efficiency and parallelization. You excel at analyzing task dependency graphs, identifying opportunities for concurrent execution, and deploying specialized task-executor agents to complete work efficiently.
## Core Responsibilities
1. **Subtask-Level Analysis**: Break down tasks into INDIVIDUAL SUBTASKS and analyze which specific subtasks can run in parallel. Focus on subtask dependencies, not just task-level dependencies.
2. **Reality Verification**: ALWAYS verify what files actually exist vs what task status claims. Use the context provided about actual implementation state to make informed decisions.
3. **Short-Lived Executor Deployment**: Deploy executors for SINGLE SUBTASKS or small groups of related subtasks. Keep executors focused and short-lived. Maximum 3 parallel executors at once.
4. **Continuous Reassessment**: After EACH subtask completes, immediately reassess what new subtasks are unblocked and can run in parallel.
## Operational Workflow
### Initial Assessment Phase
1. Use `get_tasks` or `task-master list` to retrieve all available tasks
2. Analyze task statuses, priorities, and dependencies
3. Identify tasks with status 'pending' that have no blocking dependencies
4. Group related tasks that could benefit from specialized executors
5. Create an execution plan that maximizes parallelization
### Executor Deployment Phase
1. For each independent task or task group:
- Deploy a task-executor agent with specific instructions
- Provide the executor with task ID, requirements, and context
- Set clear completion criteria and reporting expectations
2. Maintain a registry of active executors and their assigned tasks
3. Establish communication protocols for progress updates
### Coordination Phase
1. Monitor executor progress through task status updates
2. When a task completes:
- Verify completion with `get_task` or `task-master show <id>`
- Update task status if needed using `set_task_status`
- Reassess dependency graph for newly unblocked tasks
- Deploy new executors for available work
3. Handle executor failures or blocks:
- Reassign tasks to new executors if needed
- Escalate complex issues to the user
- Update task status to 'blocked' when appropriate
### Optimization Strategies
**Parallel Execution Rules**:
- Never assign dependent tasks to different executors simultaneously
- Prioritize high-priority tasks when resources are limited
- Group small, related subtasks for single executor efficiency
- Balance executor load to prevent bottlenecks
**Context Management**:
- Provide executors with minimal but sufficient context
- Share relevant completed task information when it aids execution
- Maintain a shared knowledge base of project-specific patterns
**Quality Assurance**:
- Verify task completion before marking as done
- Ensure test strategies are followed when specified
- Coordinate cross-task integration testing when needed
## Communication Protocols
When deploying executors, provide them with:
```
TASK ASSIGNMENT:
- Task ID: [specific ID]
- Objective: [clear goal]
- Dependencies: [list any completed prerequisites]
- Success Criteria: [specific completion requirements]
- Context: [relevant project information]
- Reporting: [when and how to report back]
```
When receiving executor updates:
1. Acknowledge completion or issues
2. Update task status in Task Master
3. Reassess execution strategy
4. Deploy new executors as appropriate
## Decision Framework
**When to parallelize**:
- Multiple pending tasks with no interdependencies
- Sufficient context available for independent execution
- Tasks are well-defined with clear success criteria
**When to serialize**:
- Strong dependencies between tasks
- Limited context or unclear requirements
- Integration points requiring careful coordination
**When to escalate**:
- Circular dependencies detected
- Critical blockers affecting multiple tasks
- Ambiguous requirements needing clarification
- Resource conflicts between executors
## Error Handling
1. **Executor Failure**: Reassign task to new executor with additional context about the failure
2. **Dependency Conflicts**: Halt affected executors, resolve conflict, then resume
3. **Task Ambiguity**: Request clarification from user before proceeding
4. **System Errors**: Implement graceful degradation, falling back to serial execution if needed
## Performance Metrics
Track and optimize for:
- Task completion rate
- Parallel execution efficiency
- Executor success rate
- Time to completion for task groups
- Dependency resolution speed
## Integration with Task Master
Leverage these Task Master MCP tools effectively:
- `get_tasks` - Continuous queue monitoring
- `get_task` - Detailed task analysis
- `set_task_status` - Progress tracking
- `next_task` - Fallback for serial execution
- `analyze_project_complexity` - Strategic planning
- `complexity_report` - Resource allocation
## Output Format for Execution
**Your job is to analyze and create actionable execution plans that Claude can use to deploy executors.**
After completing your dependency analysis, you MUST output a structured execution plan:
```yaml
execution_plan:
EXECUTE_IN_PARALLEL:
# Maximum 3 subtasks running simultaneously
- subtask_id: [e.g., 118.2]
parent_task: [e.g., 118]
title: [Specific subtask title]
priority: [high/medium/low]
estimated_time: [e.g., 10 minutes]
executor_prompt: |
Execute Subtask [ID]: [Specific subtask title]
SPECIFIC REQUIREMENTS:
[Exact implementation needed for THIS subtask only]
FILES TO CREATE/MODIFY:
[Specific file paths]
CONTEXT:
[What already exists that this subtask depends on]
SUCCESS CRITERIA:
[Specific completion criteria for this subtask]
IMPORTANT:
- Focus ONLY on this subtask
- Mark subtask as 'review' when complete
- Use MCP tool: mcp__task-master-ai__set_task_status
- subtask_id: [Another subtask that can run in parallel]
parent_task: [Parent task ID]
title: [Specific subtask title]
priority: [priority]
estimated_time: [time estimate]
executor_prompt: |
[Focused prompt for this specific subtask]
blocked:
- task_id: [ID]
title: [Task title]
waiting_for: [list of blocking task IDs]
becomes_ready_when: [condition for unblocking]
next_wave:
trigger: "After tasks [IDs] complete"
newly_available: [List of task IDs that will unblock]
tasks_to_execute_in_parallel: [IDs that can run together in next wave]
critical_path: [Ordered list of task IDs forming the critical path]
parallelization_instruction: |
IMPORTANT FOR CLAUDE: Deploy ALL tasks in 'EXECUTE_IN_PARALLEL' section
simultaneously using multiple Task tool invocations in a single response.
Example: If 3 tasks are listed, invoke the Task tool 3 times in one message.
verification_needed:
- task_id: [ID of any task in 'review' status]
verification_focus: [what to check]
```
**CRITICAL INSTRUCTIONS FOR CLAUDE (MAIN):**
1. When you see `EXECUTE_IN_PARALLEL`, deploy ALL listed executors at once
2. Use multiple Task tool invocations in a SINGLE response
3. Do not execute them sequentially - they must run in parallel
4. Wait for all parallel executors to complete before proceeding to next wave
**IMPORTANT NOTES**:
- Label parallel tasks clearly in `EXECUTE_IN_PARALLEL` section
- Provide complete, self-contained prompts for each executor
- Executors should mark tasks as 'review' for verification, not 'done'
- Be explicit about which tasks can run simultaneously
You are the strategic mind analyzing the entire task landscape. Make parallelization opportunities UNMISTAKABLY CLEAR to Claude.

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@@ -48,7 +48,7 @@ After adding dependency:
## Example Flows
```
/taskmaster:add-dependency 5 needs 3
/project:tm/add-dependency 5 needs 3
→ Task #5 now depends on Task #3
→ Task #5 is now blocked until #3 completes
→ Suggested: Also consider if #5 needs #4

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@@ -56,12 +56,12 @@ task-master add-subtask --parent=<id> --task-id=<existing-id>
## Example Flows
```
/taskmaster:add-subtask to 5: implement user authentication
/project:tm/add-subtask to 5: implement user authentication
→ Created subtask #5.1: "implement user authentication"
→ Parent task #5 now has 1 subtask
→ Suggested next subtasks: tests, documentation
/taskmaster:add-subtask 5: setup, implement, test
/project:tm/add-subtask 5: setup, implement, test
→ Created 3 subtasks:
#5.1: setup
#5.2: implement

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@@ -53,7 +53,7 @@ task-master add-subtask --parent=<parent-id> --task-id=<task-to-convert>
## Example
```
/taskmaster:add-subtask/from-task 5 8
/project:tm/add-subtask/from-task 5 8
→ Converting: Task #8 becomes subtask #5.1
→ Updated: 3 dependency references
→ Parent task #5 now has 1 subtask

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@@ -115,7 +115,7 @@ Results are:
After analysis:
```
/taskmaster:expand 5 # Expand specific task
/taskmaster:expand-all # Expand all recommended
/taskmaster:complexity-report # View detailed report
/project:tm/expand 5 # Expand specific task
/project:tm/expand/all # Expand all recommended
/project:tm/complexity-report # View detailed report
```

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@@ -105,13 +105,13 @@ Use report for:
## Example Usage
```
/taskmaster:complexity-report
/project:tm/complexity-report
→ Opens latest analysis
/taskmaster:complexity-report --file=archived/2024-01-01.md
/project:tm/complexity-report --file=archived/2024-01-01.md
→ View historical analysis
After viewing:
/taskmaster:expand 5
/project:tm/expand 5
→ Expand high-complexity task
```

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@@ -70,7 +70,7 @@ Manual Review Needed:
⚠️ Task #45 has 8 dependencies
Suggestion: Break into subtasks
Run '/taskmaster:validate-dependencies' to verify fixes
Run '/project:tm/validate-dependencies' to verify fixes
```
## Safety

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@@ -0,0 +1,81 @@
Show help for Task Master commands.
Arguments: $ARGUMENTS
Display help for Task Master commands. If arguments provided, show specific command help.
## Task Master Command Help
### Quick Navigation
Type `/project:tm/` and use tab completion to explore all commands.
### Command Categories
#### 🚀 Setup & Installation
- `/project:tm/setup/install` - Comprehensive installation guide
- `/project:tm/setup/quick-install` - One-line global install
#### 📋 Project Setup
- `/project:tm/init` - Initialize new project
- `/project:tm/init/quick` - Quick setup with auto-confirm
- `/project:tm/models` - View AI configuration
- `/project:tm/models/setup` - Configure AI providers
#### 🎯 Task Generation
- `/project:tm/parse-prd` - Generate tasks from PRD
- `/project:tm/parse-prd/with-research` - Enhanced parsing
- `/project:tm/generate` - Create task files
#### 📝 Task Management
- `/project:tm/list` - List tasks (natural language filters)
- `/project:tm/show <id>` - Display task details
- `/project:tm/add-task` - Create new task
- `/project:tm/update` - Update tasks naturally
- `/project:tm/next` - Get next task recommendation
#### 🔄 Status Management
- `/project:tm/set-status/to-pending <id>`
- `/project:tm/set-status/to-in-progress <id>`
- `/project:tm/set-status/to-done <id>`
- `/project:tm/set-status/to-review <id>`
- `/project:tm/set-status/to-deferred <id>`
- `/project:tm/set-status/to-cancelled <id>`
#### 🔍 Analysis & Breakdown
- `/project:tm/analyze-complexity` - Analyze task complexity
- `/project:tm/expand <id>` - Break down complex task
- `/project:tm/expand/all` - Expand all eligible tasks
#### 🔗 Dependencies
- `/project:tm/add-dependency` - Add task dependency
- `/project:tm/remove-dependency` - Remove dependency
- `/project:tm/validate-dependencies` - Check for issues
#### 🤖 Workflows
- `/project:tm/workflows/smart-flow` - Intelligent workflows
- `/project:tm/workflows/pipeline` - Command chaining
- `/project:tm/workflows/auto-implement` - Auto-implementation
#### 📊 Utilities
- `/project:tm/utils/analyze` - Project analysis
- `/project:tm/status` - Project dashboard
- `/project:tm/learn` - Interactive learning
### Natural Language Examples
```
/project:tm/list pending high priority
/project:tm/update mark all API tasks as done
/project:tm/add-task create login system with OAuth
/project:tm/show current
```
### Getting Started
1. Install: `/project:tm/setup/quick-install`
2. Initialize: `/project:tm/init/quick`
3. Learn: `/project:tm/learn start`
4. Work: `/project:tm/workflows/smart-flow`
For detailed command info: `/project:tm/help <command-name>`

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@@ -30,17 +30,17 @@ task-master init -y
After quick init:
1. Configure AI models if needed:
```
/taskmaster:models/setup
/project:tm/models/setup
```
2. Parse PRD if available:
```
/taskmaster:parse-prd <file>
/project:tm/parse-prd <file>
```
3. Or create first task:
```
/taskmaster:add-task create initial setup
/project:tm/add-task create initial setup
```
Perfect for rapid project setup!

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@@ -45,6 +45,6 @@ After successful init:
If PRD file provided:
```
/taskmaster:init my-prd.md
/project:tm/init my-prd.md
→ Automatically runs parse-prd after init
```

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@@ -55,7 +55,7 @@ After removing:
## Example
```
/taskmaster:remove-dependency 5 from 3
/project:tm/remove-dependency 5 from 3
→ Removed: Task #5 no longer depends on #3
→ Task #5 is now UNBLOCKED and ready to start
→ Warning: Consider if #5 still needs #2 completed first

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@@ -63,13 +63,13 @@ task-master remove-subtask --id=<parentId.subtaskId> --convert
## Example Flows
```
/taskmaster:remove-subtask 5.1
/project:tm/remove-subtask 5.1
→ Warning: Subtask #5.1 is in-progress
→ This will delete all subtask data
→ Parent task #5 will be updated
Confirm deletion? (y/n)
/taskmaster:remove-subtask 5.1 convert
/project:tm/remove-subtask 5.1 convert
→ Converting subtask #5.1 to standalone task #89
→ Preserved: All task data and history
→ Updated: 2 dependency references

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@@ -77,7 +77,7 @@ Suggest alternatives:
## Example
```
/taskmaster:clear-subtasks 5
/project:tm/clear-subtasks 5
→ Found 4 subtasks to remove
→ Warning: Subtask #5.2 is in-progress
→ Cleared all subtasks from task #5

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@@ -85,17 +85,17 @@ Suggest before deletion:
## Example Flows
```
/taskmaster:remove-task 5
/project:tm/remove-task 5
→ Task #5 is in-progress with 8 hours logged
→ 3 other tasks depend on this
→ Suggestion: Mark as cancelled instead?
Remove anyway? (y/n)
/taskmaster:remove-task 5 -y
/project:tm/remove-task 5 -y
→ Removed: Task #5 and 4 subtasks
→ Updated: 3 task dependencies
→ Warning: Tasks #7, #8, #9 now have missing dependency
→ Run /taskmaster:fix-dependencies to resolve
→ Run /project:tm/fix-dependencies to resolve
```
## Safety Features

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@@ -8,11 +8,11 @@ Commands are organized hierarchically to match Task Master's CLI structure while
## Project Setup & Configuration
### `/taskmaster:init`
### `/project:tm/init`
- `init-project` - Initialize new project (handles PRD files intelligently)
- `init-project-quick` - Quick setup with auto-confirmation (-y flag)
### `/taskmaster:models`
### `/project:tm/models`
- `view-models` - View current AI model configuration
- `setup-models` - Interactive model configuration
- `set-main` - Set primary generation model
@@ -21,21 +21,21 @@ Commands are organized hierarchically to match Task Master's CLI structure while
## Task Generation
### `/taskmaster:parse-prd`
### `/project:tm/parse-prd`
- `parse-prd` - Generate tasks from PRD document
- `parse-prd-with-research` - Enhanced parsing with research mode
### `/taskmaster:generate`
### `/project:tm/generate`
- `generate-tasks` - Create individual task files from tasks.json
## Task Management
### `/taskmaster:list`
### `/project:tm/list`
- `list-tasks` - Smart listing with natural language filters
- `list-tasks-with-subtasks` - Include subtasks in hierarchical view
- `list-tasks-by-status` - Filter by specific status
### `/taskmaster:set-status`
### `/project:tm/set-status`
- `to-pending` - Reset task to pending
- `to-in-progress` - Start working on task
- `to-done` - Mark task complete
@@ -43,84 +43,84 @@ Commands are organized hierarchically to match Task Master's CLI structure while
- `to-deferred` - Defer task
- `to-cancelled` - Cancel task
### `/taskmaster:sync-readme`
### `/project:tm/sync-readme`
- `sync-readme` - Export tasks to README.md with formatting
### `/taskmaster:update`
### `/project:tm/update`
- `update-task` - Update tasks with natural language
- `update-tasks-from-id` - Update multiple tasks from a starting point
- `update-single-task` - Update specific task
### `/taskmaster:add-task`
### `/project:tm/add-task`
- `add-task` - Add new task with AI assistance
### `/taskmaster:remove-task`
### `/project:tm/remove-task`
- `remove-task` - Remove task with confirmation
## Subtask Management
### `/taskmaster:add-subtask`
### `/project:tm/add-subtask`
- `add-subtask` - Add new subtask to parent
- `convert-task-to-subtask` - Convert existing task to subtask
### `/taskmaster:remove-subtask`
### `/project:tm/remove-subtask`
- `remove-subtask` - Remove subtask (with optional conversion)
### `/taskmaster:clear-subtasks`
### `/project:tm/clear-subtasks`
- `clear-subtasks` - Clear subtasks from specific task
- `clear-all-subtasks` - Clear all subtasks globally
## Task Analysis & Breakdown
### `/taskmaster:analyze-complexity`
### `/project:tm/analyze-complexity`
- `analyze-complexity` - Analyze and generate expansion recommendations
### `/taskmaster:complexity-report`
### `/project:tm/complexity-report`
- `complexity-report` - Display complexity analysis report
### `/taskmaster:expand`
### `/project:tm/expand`
- `expand-task` - Break down specific task
- `expand-all-tasks` - Expand all eligible tasks
- `with-research` - Enhanced expansion
## Task Navigation
### `/taskmaster:next`
### `/project:tm/next`
- `next-task` - Intelligent next task recommendation
### `/taskmaster:show`
### `/project:tm/show`
- `show-task` - Display detailed task information
### `/taskmaster:status`
### `/project:tm/status`
- `project-status` - Comprehensive project dashboard
## Dependency Management
### `/taskmaster:add-dependency`
### `/project:tm/add-dependency`
- `add-dependency` - Add task dependency
### `/taskmaster:remove-dependency`
### `/project:tm/remove-dependency`
- `remove-dependency` - Remove task dependency
### `/taskmaster:validate-dependencies`
### `/project:tm/validate-dependencies`
- `validate-dependencies` - Check for dependency issues
### `/taskmaster:fix-dependencies`
### `/project:tm/fix-dependencies`
- `fix-dependencies` - Automatically fix dependency problems
## Workflows & Automation
### `/taskmaster:workflows`
### `/project:tm/workflows`
- `smart-workflow` - Context-aware intelligent workflow execution
- `command-pipeline` - Chain multiple commands together
- `auto-implement-tasks` - Advanced auto-implementation with code generation
## Utilities
### `/taskmaster:utils`
### `/project:tm/utils`
- `analyze-project` - Deep project analysis and insights
### `/taskmaster:setup`
### `/project:tm/setup`
- `install-taskmaster` - Comprehensive installation guide
- `quick-install-taskmaster` - One-line global installation
@@ -129,17 +129,17 @@ Commands are organized hierarchically to match Task Master's CLI structure while
### Natural Language
Most commands accept natural language arguments:
```
/taskmaster:add-task create user authentication system
/taskmaster:update mark all API tasks as high priority
/taskmaster:list show blocked tasks
/project:tm/add-task create user authentication system
/project:tm/update mark all API tasks as high priority
/project:tm/list show blocked tasks
```
### ID-Based Commands
Commands requiring IDs intelligently parse from $ARGUMENTS:
```
/taskmaster:show 45
/taskmaster:expand 23
/taskmaster:set-status/to-done 67
/project:tm/show 45
/project:tm/expand 23
/project:tm/set-status/to-done 67
```
### Smart Defaults

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@@ -66,7 +66,7 @@ The AI:
## Example Updates
```
/taskmaster:update/single 5: add rate limiting
/project:tm/update/single 5: add rate limiting
→ Updating Task #5: "Implement API endpoints"
Current: Basic CRUD endpoints

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@@ -77,7 +77,7 @@ AI analyzes the update context and:
## Example Updates
```
/taskmaster:update/from-id 5: change database to PostgreSQL
/project:tm/update/from-id 5: change database to PostgreSQL
→ Analyzing impact starting from task #5
→ Found 6 related tasks to update
→ Updates will maintain consistency

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@@ -66,6 +66,6 @@ For each issue found:
## Next Steps
After validation:
- Run `/taskmaster:fix-dependencies` to auto-fix
- Run `/project:tm/fix-dependencies` to auto-fix
- Manually adjust problematic dependencies
- Rerun to verify fixes

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@@ -1,10 +1,3 @@
reviews:
profile: assertive
poem: false
auto_review:
base_branches:
- rc
- beta
- alpha
- production
- next

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@@ -1,8 +1,8 @@
{
"models": {
"main": {
"provider": "anthropic",
"modelId": "claude-sonnet-4-20250514",
"provider": "claude-code",
"modelId": "sonnet",
"maxTokens": 64000,
"temperature": 0.2
},
@@ -35,6 +35,7 @@
"defaultTag": "master"
},
"claudeCode": {},
"codexCli": {},
"grokCli": {
"timeout": 120000,
"workingDirectory": null,

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@@ -0,0 +1,912 @@
## Summary
- Put the existing git and test workflows on rails: a repeatable, automated process that can run autonomously, with guardrails and a compact TUI for visibility.
- Flow: for a selected task, create a branch named with the tag + task id → generate tests for the first subtask (red) using the Surgical Test Generator → implement code (green) → verify tests → commit → repeat per subtask → final verify → push → open PR against the default branch.
- Build on existing rules: .cursor/rules/git_workflow.mdc, .cursor/rules/test_workflow.mdc, .claude/agents/surgical-test-generator.md, and existing CLI/core services.
## Goals
- Deterministic, resumable automation to execute the TDD loop per subtask with minimal human intervention.
- Strong guardrails: never commit to the default branch; only commit when tests pass; enforce status transitions; persist logs/state for debuggability.
- Visibility: a compact terminal UI (like lazygit) to pick tag, view tasks, and start work; right-side pane opens an executor terminal (via tmux) for agent coding.
- Extensible: framework-agnostic test generation via the Surgical Test Generator; detect and use the repos test command for execution with coverage thresholds.
## NonGoals (initial)
- Full multi-language runner parity beyond detection and executing the projects test command.
- Complex GUI; start with CLI/TUI + tmux pane. IDE/extension can hook into the same state later.
- Rich executor selection UX (codex/gemini/claude) — well prompt per run; defaults can come later.
## Success Criteria
- One command can autonomously complete a task's subtasks via TDD and open a PR when done.
- All commits made on a branch that includes the tag and task id (see Branch Naming); no commits to the default branch directly.
- Every subtask iteration: failing tests added first (red), then code added to pass them (green), commit only after green.
- End-to-end logs + artifacts stored in .taskmaster/reports/runs/<timestamp-or-id>/.
## Success Metrics (Phase 1)
- **Adoption**: 80% of tasks in a pilot repo completed via `tm autopilot`
- **Safety**: 0 commits to default branch; 100% of commits have green tests
- **Efficiency**: Average time from task start to PR < 30min for simple subtasks
- **Reliability**: < 5% of runs require manual intervention (timeout/conflicts)
## User Stories
- As a developer, I can run tm autopilot <taskId> and watch a structured, safe workflow execute.
- As a reviewer, I can inspect commits per subtask, and a PR summarizing the work when the task completes.
- As an operator, I can see current step, active subtask, tests status, and logs in a compact CLI view and read a final run report.
## Example Workflow Traces
### Happy Path: Complete a 3-subtask feature
```bash
# Developer starts
$ tm autopilot 42
→ Checks preflight: ✓ clean tree, ✓ npm test detected
→ Creates branch: analytics/task-42-user-metrics
→ Subtask 42.1: "Add metrics schema"
RED: generates test_metrics_schema.test.js → 3 failures
GREEN: implements schema.js → all pass
COMMIT: "feat(metrics): add metrics schema (task 42.1)"
→ Subtask 42.2: "Add collection endpoint"
RED: generates test_metrics_endpoint.test.js → 5 failures
GREEN: implements api/metrics.js → all pass
COMMIT: "feat(metrics): add collection endpoint (task 42.2)"
→ Subtask 42.3: "Add dashboard widget"
RED: generates test_metrics_widget.test.js → 4 failures
GREEN: implements components/MetricsWidget.jsx → all pass
COMMIT: "feat(metrics): add dashboard widget (task 42.3)"
→ Final: all 3 subtasks complete
✓ Run full test suite → all pass
✓ Coverage check → 85% (meets 80% threshold)
PUSH: confirms with user → pushed to origin
PR: opens #123 "Task #42 [analytics]: User metrics tracking"
✓ Task 42 complete. PR: https://github.com/org/repo/pull/123
Run report: .taskmaster/reports/runs/2025-01-15-142033/
```
### Error Recovery: Failing tests timeout
```bash
$ tm autopilot 42
→ Subtask 42.2 GREEN phase: attempt 1 fails (2 tests still red)
→ Subtask 42.2 GREEN phase: attempt 2 fails (1 test still red)
→ Subtask 42.2 GREEN phase: attempt 3 fails (1 test still red)
⚠️ Paused: Could not achieve green state after 3 attempts
📋 State saved to: .taskmaster/reports/runs/2025-01-15-142033/
Last error: "POST /api/metrics returns 500 instead of 201"
Next steps:
- Review diff: git diff HEAD
- Inspect logs: cat .taskmaster/reports/runs/2025-01-15-142033/log.jsonl
- Check test output: cat .taskmaster/reports/runs/2025-01-15-142033/test-results/subtask-42.2-green-attempt3.json
- Resume after manual fix: tm autopilot --resume
# Developer manually fixes the issue, then:
$ tm autopilot --resume
→ Resuming subtask 42.2 GREEN phase
GREEN: all tests pass
COMMIT: "feat(metrics): add collection endpoint (task 42.2)"
→ Continuing to subtask 42.3...
```
### Dry Run: Preview before execution
```bash
$ tm autopilot 42 --dry-run
Autopilot Plan for Task #42 [analytics]: User metrics tracking
─────────────────────────────────────────────────────────────
Preflight:
✓ Working tree is clean
✓ Test command detected: npm test
✓ Tools available: git, gh, node, npm
✓ Current branch: main (will create new branch)
Branch & Tag:
→ Create branch: analytics/task-42-user-metrics
→ Set active tag: analytics
Subtasks (3 pending):
1. 42.1: Add metrics schema
- RED: generate tests in src/__tests__/schema.test.js
- GREEN: implement src/schema.js
- COMMIT: "feat(metrics): add metrics schema (task 42.1)"
2. 42.2: Add collection endpoint [depends on 42.1]
- RED: generate tests in src/api/__tests__/metrics.test.js
- GREEN: implement src/api/metrics.js
- COMMIT: "feat(metrics): add collection endpoint (task 42.2)"
3. 42.3: Add dashboard widget [depends on 42.2]
- RED: generate tests in src/components/__tests__/MetricsWidget.test.jsx
- GREEN: implement src/components/MetricsWidget.jsx
- COMMIT: "feat(metrics): add dashboard widget (task 42.3)"
Finalization:
→ Run full test suite with coverage
→ Push branch to origin (will confirm)
→ Create PR targeting main
Run without --dry-run to execute.
```
## HighLevel Workflow
1) Preflight
- Verify clean working tree or confirm staging/commit policy (configurable).
- Detect repo type and the projects test command (e.g., npm test, pnpm test, pytest, go test).
- Validate tools: git, gh (optional for PR), node/npm, and (if used) claude CLI.
- Load TaskMaster state and selected task; if no subtasks exist, automatically run “expand” before working.
2) Branch & Tag Setup
- Checkout default branch and update (optional), then create a branch using Branch Naming (below).
- Map branch ↔ tag via existing tag management; explicitly set active tag to the branchs tag.
3) Subtask Loop (for each pending/in-progress subtask in dependency order)
- Select next eligible subtask using tm-core TaskService getNextTask() and subtask eligibility logic.
- Red: generate or update failing tests for the subtask
- Use the Surgical Test Generator system prompt .claude/agents/surgical-test-generator.md) to produce high-signal tests following project conventions.
- Run tests to confirm red; record results. If not red (already passing), skip to next subtask or escalate.
- Green: implement code to pass tests
- Use executor to implement changes (initial: claude CLI prompt with focused context).
- Re-run tests until green or timeout/backoff policy triggers.
- Commit: when green
- Commit tests + code with conventional commit message. Optionally update subtask status to done.
- Persist run step metadata/logs.
4) Finalization
- Run full test suite and coverage (if configured); optionally lint/format.
- Commit any final adjustments.
- Push branch (ask user to confirm); create PR (via gh pr create) targeting the default branch. Title format: Task #<id> [<tag>]: <title>.
5) PostRun
- Update task status if desired (e.g., review).
- Persist run report (JSON + markdown summary) to .taskmaster/reports/runs/<run-id>/.
## Guardrails
- Never commit to the default branch.
- Commit only if all tests (targeted and suite) pass; allow override flags.
- Enforce 80% coverage thresholds (lines/branches/functions/statements) by default; configurable.
- Timebox/model ops and retries; if not green within N attempts, pause with actionable state for resume.
- Always log actions, commands, and outcomes; include dry-run mode.
- Ask before branch creation, pushing, and opening a PR unless --no-confirm is set.
## Integration Points (Current Repo)
- CLI: apps/cli provides command structure and UI components.
- New command: tm autopilot (alias: task-master autopilot).
- Reuse UI components under apps/cli/src/ui/components/ for headers/task details/next-task.
- Core services: packages/tm-core
- TaskService for selection, status, tags.
- TaskExecutionService for prompt formatting and executor prep.
- Executors: claude executor and ExecutorFactory to run external tools.
- Proposed new: WorkflowOrchestrator to drive the autonomous loop and emit progress events.
- Tag/Git utilities: scripts/modules/utils/git-utils.js and scripts/modules/task-manager/tag-management.js for branch→tag mapping and explicit tag switching.
- Rules: .cursor/rules/git_workflow.mdc and .cursor/rules/test_workflow.mdc to steer behavior and ensure consistency.
- Test generation prompt: .claude/agents/surgical-test-generator.md.
## Proposed Components
- Orchestrator (tm-core): WorkflowOrchestrator (new)
- State machine driving phases: Preflight → Branch/Tag → SubtaskIter (Red/Green/Commit) → Finalize → PR.
- Exposes an evented API (progress events) that the CLI can render.
- Stores run state artifacts.
- Test Runner Adapter
- Detects and runs tests via the projects test command (e.g., npm test), with targeted runs where feasible.
- API: runTargeted(files/pattern), runAll(), report summary (failures, duration, coverage), enforce 80% threshold by default.
- Git/PR Adapter
- Encapsulates git ops: branch create/checkout, add/commit, push.
- Optional gh integration to open PR; fallback to instructions if gh unavailable.
- Confirmation gates for branch creation and pushes.
- Prompt/Exec Adapter
- Uses existing executor service to call the selected coding assistant (initially claude) with tight prompts: task/subtask context, surgical tests first, then minimal code to green.
- Run State + Reporting
- JSONL log of steps, timestamps, commands, test results.
- Markdown summary for PR description and post-run artifact.
## CLI UX (MVP)
- Command: tm autopilot [taskId]
- Flags: --dry-run, --no-push, --no-pr, --no-confirm, --force, --max-attempts <n>, --runner <auto|custom>, --commit-scope <scope>
- Output: compact header (project, tag, branch), current phase, subtask line, last test summary, next actions.
- Resume: If interrupted, tm autopilot --resume picks up from last checkpoint in run state.
### TUI with tmux (Linear Execution)
- Left pane: Tag selector, task list (status/priority), start/expand shortcuts; "Start" triggers the next task or a selected task.
- Right pane: Executor terminal (tmux split) that runs the coding agent (claude-code/codex). Autopilot can hand over to the right pane during green.
- MCP integration: use MCP tools for task queries/updates and for shell/test invocations where available.
## TUI Layout (tmux-based)
### Pane Structure
```
┌─────────────────────────────────────┬──────────────────────────────────┐
│ Task Navigator (left) │ Executor Terminal (right) │
│ │ │
│ Project: my-app │ $ tm autopilot --executor-mode │
│ Branch: analytics/task-42 │ > Running subtask 42.2 GREEN... │
│ Tag: analytics │ > Implementing endpoint... │
│ │ > Tests: 3 passed, 0 failed │
│ Tasks: │ > Ready to commit │
│ → 42 [in-progress] User metrics │ │
│ → 42.1 [done] Schema │ [Live output from Claude Code] │
│ → 42.2 [active] Endpoint ◀ │ │
│ → 42.3 [pending] Dashboard │ │
│ │ │
│ [s] start [p] pause [q] quit │ │
└─────────────────────────────────────┴──────────────────────────────────┘
```
### Implementation Notes
- **Left pane**: `apps/cli/src/ui/tui/navigator.ts` (new, uses `blessed` or `ink`)
- **Right pane**: spawned via `tmux split-window -h` running `tm autopilot --executor-mode`
- **Communication**: shared state file `.taskmaster/state/current-run.json` + file watching or event stream
- **Keybindings**:
- `s` - Start selected task
- `p` - Pause/resume current run
- `q` - Quit (with confirmation if run active)
- `↑/↓` - Navigate task list
- `Enter` - Expand/collapse subtasks
## Prompt Composition (Detailed)
### System Prompt Assembly
Prompts are composed in three layers:
1. **Base rules** (loaded in order from `.cursor/rules/` and `.claude/agents/`):
- `git_workflow.mdc` → git commit conventions, branch policy, PR guidelines
- `test_workflow.mdc` → TDD loop requirements, coverage thresholds, test structure
- `surgical-test-generator.md` → test generation methodology, project-specific test patterns
2. **Task context injection**:
```
You are implementing:
Task #42 [analytics]: User metrics tracking
Subtask 42.2: Add collection endpoint
Description:
Implement POST /api/metrics endpoint to collect user metrics events
Acceptance criteria:
- POST /api/metrics accepts { userId, eventType, timestamp }
- Validates input schema (reject missing/invalid fields)
- Persists to database
- Returns 201 on success with created record
- Returns 400 on validation errors
Dependencies:
- Subtask 42.1 (metrics schema) is complete
Current phase: RED (generate failing tests)
Test command: npm test
Test file convention: src/**/*.test.js (vitest framework detected)
Branch: analytics/task-42-user-metrics
Project language: JavaScript (Node.js)
```
3. **Phase-specific instructions**:
- **RED phase**: "Generate minimal failing tests for this subtask. Do NOT implement any production code. Only create test files. Confirm tests fail with clear error messages indicating missing implementation."
- **GREEN phase**: "Implement minimal code to pass the failing tests. Follow existing project patterns in `src/`. Only modify files necessary for this subtask. Keep changes focused and reviewable."
### Example Full Prompt (RED Phase)
```markdown
<SYSTEM PROMPT>
[Contents of .cursor/rules/git_workflow.mdc]
[Contents of .cursor/rules/test_workflow.mdc]
[Contents of .claude/agents/surgical-test-generator.md]
<TASK CONTEXT>
You are implementing:
Task #42.2: Add collection endpoint
Description:
Implement POST /api/metrics endpoint to collect user metrics events
Acceptance criteria:
- POST /api/metrics accepts { userId, eventType, timestamp }
- Validates input schema (reject missing/invalid fields)
- Persists to database using MetricsSchema from subtask 42.1
- Returns 201 on success with created record
- Returns 400 on validation errors with details
Dependencies: Subtask 42.1 (metrics schema) is complete
<INSTRUCTION>
Generate failing tests for this subtask. Follow project conventions:
- Test file: src/api/__tests__/metrics.test.js
- Framework: vitest (detected from package.json)
- Test cases to cover:
* POST /api/metrics with valid payload → should return 201 (will fail: endpoint not implemented)
* POST /api/metrics with missing userId → should return 400 (will fail: validation not implemented)
* POST /api/metrics with invalid timestamp → should return 400 (will fail: validation not implemented)
* POST /api/metrics should persist to database → should save record (will fail: persistence not implemented)
Do NOT implement the endpoint code yet. Only create test file(s).
Confirm tests fail with messages like "Cannot POST /api/metrics" or "endpoint not defined".
Output format:
1. File path to create: src/api/__tests__/metrics.test.js
2. Complete test code
3. Command to run: npm test src/api/__tests__/metrics.test.js
```
### Example Full Prompt (GREEN Phase)
```markdown
<SYSTEM PROMPT>
[Contents of .cursor/rules/git_workflow.mdc]
[Contents of .cursor/rules/test_workflow.mdc]
<TASK CONTEXT>
Task #42.2: Add collection endpoint
[same context as RED phase]
<CURRENT STATE>
Tests created in RED phase:
- src/api/__tests__/metrics.test.js
- 5 tests written, all failing as expected
Test output:
```
FAIL src/api/__tests__/metrics.test.js
POST /api/metrics
✗ should return 201 with valid payload (endpoint not found)
✗ should return 400 with missing userId (endpoint not found)
✗ should return 400 with invalid timestamp (endpoint not found)
✗ should persist to database (endpoint not found)
```
<INSTRUCTION>
Implement minimal code to make all tests pass.
Guidelines:
- Create/modify file: src/api/metrics.js
- Use existing patterns from src/api/ (e.g., src/api/users.js for reference)
- Import MetricsSchema from subtask 42.1 (src/models/schema.js)
- Implement validation, persistence, and response handling
- Follow project error handling conventions
- Keep implementation focused on this subtask only
After implementation:
1. Run tests: npm test src/api/__tests__/metrics.test.js
2. Confirm all 5 tests pass
3. Report results
Output format:
1. File(s) created/modified
2. Implementation code
3. Test command and results
```
### Prompt Loading Configuration
See `.taskmaster/config.json` → `prompts` section for paths and load order.
## Configuration Schema
### .taskmaster/config.json
```json
{
"autopilot": {
"enabled": true,
"requireCleanWorkingTree": true,
"commitTemplate": "{type}({scope}): {msg}",
"defaultCommitType": "feat",
"maxGreenAttempts": 3,
"testTimeout": 300000
},
"test": {
"runner": "auto",
"coverageThresholds": {
"lines": 80,
"branches": 80,
"functions": 80,
"statements": 80
},
"targetedRunPattern": "**/*.test.js"
},
"git": {
"branchPattern": "{tag}/task-{id}-{slug}",
"pr": {
"enabled": true,
"base": "default",
"bodyTemplate": ".taskmaster/templates/pr-body.md"
}
},
"prompts": {
"rulesPath": ".cursor/rules",
"testGeneratorPath": ".claude/agents/surgical-test-generator.md",
"loadOrder": ["git_workflow.mdc", "test_workflow.mdc"]
}
}
```
### Configuration Fields
#### autopilot
- `enabled` (boolean): Enable/disable autopilot functionality
- `requireCleanWorkingTree` (boolean): Require clean git state before starting
- `commitTemplate` (string): Template for commit messages (tokens: `{type}`, `{scope}`, `{msg}`)
- `defaultCommitType` (string): Default commit type (feat, fix, chore, etc.)
- `maxGreenAttempts` (number): Maximum retry attempts to achieve green tests (default: 3)
- `testTimeout` (number): Timeout in milliseconds per test run (default: 300000 = 5min)
#### test
- `runner` (string): Test runner detection mode (`"auto"` or explicit command like `"npm test"`)
- `coverageThresholds` (object): Minimum coverage percentages required
- `lines`, `branches`, `functions`, `statements` (number): Threshold percentages (0-100)
- `targetedRunPattern` (string): Glob pattern for targeted subtask test runs
#### git
- `branchPattern` (string): Branch naming pattern (tokens: `{tag}`, `{id}`, `{slug}`)
- `pr.enabled` (boolean): Enable automatic PR creation
- `pr.base` (string): Target branch for PRs (`"default"` uses repo default, or specify like `"main"`)
- `pr.bodyTemplate` (string): Path to PR body template file (optional)
#### prompts
- `rulesPath` (string): Directory containing rule files (e.g., `.cursor/rules`)
- `testGeneratorPath` (string): Path to test generator prompt file
- `loadOrder` (array): Order to load rule files from `rulesPath`
### Environment Variables
```bash
# Required for executor
ANTHROPIC_API_KEY=sk-ant-... # Claude API key
# Optional: for PR creation
GITHUB_TOKEN=ghp_... # GitHub personal access token
# Optional: for other executors (future)
OPENAI_API_KEY=sk-...
GOOGLE_API_KEY=...
```
## Run Artifacts & Observability
### Per-Run Artifact Structure
Each autopilot run creates a timestamped directory with complete traceability:
```
.taskmaster/reports/runs/2025-01-15-142033/
├── manifest.json # run metadata (task id, start/end time, status)
├── log.jsonl # timestamped event stream
├── commits.txt # list of commit SHAs made during run
├── test-results/
│ ├── subtask-42.1-red.json
│ ├── subtask-42.1-green.json
│ ├── subtask-42.2-red.json
│ ├── subtask-42.2-green-attempt1.json
│ ├── subtask-42.2-green-attempt2.json
│ ├── subtask-42.2-green-attempt3.json
│ └── final-suite.json
└── pr.md # generated PR body
```
### manifest.json Format
```json
{
"runId": "2025-01-15-142033",
"taskId": "42",
"tag": "analytics",
"branch": "analytics/task-42-user-metrics",
"startTime": "2025-01-15T14:20:33Z",
"endTime": "2025-01-15T14:45:12Z",
"status": "completed",
"subtasksCompleted": ["42.1", "42.2", "42.3"],
"subtasksFailed": [],
"totalCommits": 3,
"prUrl": "https://github.com/org/repo/pull/123",
"finalCoverage": {
"lines": 85.3,
"branches": 82.1,
"functions": 88.9,
"statements": 85.0
}
}
```
### log.jsonl Format
Event stream in JSON Lines format for easy parsing and debugging:
```jsonl
{"ts":"2025-01-15T14:20:33Z","phase":"preflight","status":"ok","details":{"testCmd":"npm test","gitClean":true}}
{"ts":"2025-01-15T14:20:45Z","phase":"branch","status":"ok","branch":"analytics/task-42-user-metrics"}
{"ts":"2025-01-15T14:21:00Z","phase":"red","subtask":"42.1","status":"ok","tests":{"failed":3,"passed":0}}
{"ts":"2025-01-15T14:22:15Z","phase":"green","subtask":"42.1","status":"ok","tests":{"passed":3,"failed":0},"attempts":2}
{"ts":"2025-01-15T14:22:20Z","phase":"commit","subtask":"42.1","status":"ok","sha":"a1b2c3d","message":"feat(metrics): add metrics schema (task 42.1)"}
{"ts":"2025-01-15T14:23:00Z","phase":"red","subtask":"42.2","status":"ok","tests":{"failed":5,"passed":0}}
{"ts":"2025-01-15T14:25:30Z","phase":"green","subtask":"42.2","status":"error","tests":{"passed":3,"failed":2},"attempts":3,"error":"Max attempts reached"}
{"ts":"2025-01-15T14:25:35Z","phase":"pause","reason":"max_attempts","nextAction":"manual_review"}
```
### Test Results Format
Each test run stores detailed results:
```json
{
"subtask": "42.2",
"phase": "green",
"attempt": 3,
"timestamp": "2025-01-15T14:25:30Z",
"command": "npm test src/api/__tests__/metrics.test.js",
"exitCode": 1,
"duration": 2340,
"summary": {
"total": 5,
"passed": 3,
"failed": 2,
"skipped": 0
},
"failures": [
{
"test": "POST /api/metrics should return 201 with valid payload",
"error": "Expected status 201, got 500",
"stack": "..."
}
],
"coverage": {
"lines": 78.5,
"branches": 75.0,
"functions": 80.0,
"statements": 78.5
}
}
```
## Execution Model
### Orchestration vs Direct Execution
The autopilot system uses an **orchestration model** rather than direct code execution:
**Orchestrator Role** (tm-core WorkflowOrchestrator):
- Maintains state machine tracking current phase (RED/GREEN/COMMIT) per subtask
- Validates preconditions (tests pass, git state clean, etc.)
- Returns "work units" describing what needs to be done next
- Records completion and advances to next phase
- Persists state for resumability
**Executor Role** (Claude Code/AI session via MCP):
- Queries orchestrator for next work unit
- Executes the work (generates tests, writes code, runs tests, makes commits)
- Reports results back to orchestrator
- Handles file operations and tool invocations
**Why This Approach?**
- Leverages existing AI capabilities (Claude Code) rather than duplicating them
- MCP protocol provides clean separation between state management and execution
- Allows human oversight and intervention at each phase
- Simpler to implement: orchestrator is pure state logic, no code generation needed
- Enables multiple executor types (Claude Code, other AI tools, human developers)
**Example Flow**:
```typescript
// Claude Code (via MCP) queries orchestrator
const workUnit = await orchestrator.getNextWorkUnit('42');
// => {
// phase: 'RED',
// subtask: '42.1',
// action: 'Generate failing tests for metrics schema',
// context: { title, description, dependencies, testFile: 'src/__tests__/schema.test.js' }
// }
// Claude Code executes the work (writes test file, runs tests)
// Then reports back
await orchestrator.completeWorkUnit('42', '42.1', 'RED', {
success: true,
testsCreated: ['src/__tests__/schema.test.js'],
testsFailed: 3
});
// Query again for next phase
const nextWorkUnit = await orchestrator.getNextWorkUnit('42');
// => { phase: 'GREEN', subtask: '42.1', action: 'Implement code to pass tests', ... }
```
## Design Decisions
### Why commit per subtask instead of per task?
**Decision**: Commit after each subtask's green state, not after the entire task.
**Rationale**:
- Atomic commits make code review easier (reviewers can see logical progression)
- Easier to revert a single subtask if it causes issues downstream
- Matches the TDD loop's natural checkpoint and cognitive boundary
- Provides resumability points if the run is interrupted
**Trade-off**: More commits per task (can use squash-merge in PRs if desired)
### Why not support parallel subtask execution?
**Decision**: Sequential subtask execution in Phase 1; parallel execution deferred to Phase 3.
**Rationale**:
- Subtasks often have implicit dependencies (e.g., schema before endpoint, endpoint before UI)
- Simpler orchestrator state machine (less complexity = faster to ship)
- Parallel execution requires explicit dependency DAG and conflict resolution
- Can be added in Phase 3 once core workflow is proven stable
**Trade-off**: Slower for truly independent subtasks (mitigated by keeping subtasks small and focused)
### Why require 80% coverage by default?
**Decision**: Enforce 80% coverage threshold (lines/branches/functions/statements) before allowing commits.
**Rationale**:
- Industry standard baseline for production code quality
- Forces test generation to be comprehensive, not superficial
- Configurable per project via `.taskmaster/config.json` if too strict
- Prevents "green tests" that only test happy paths
**Trade-off**: May require more test generation iterations; can be lowered per project
### Why use tmux instead of a rich GUI?
**Decision**: MVP uses tmux split panes for TUI, not Electron/web-based GUI.
**Rationale**:
- Tmux is universally available on dev machines; no installation burden
- Terminal-first workflows match developer mental model (no context switching)
- Simpler to implement and maintain; can add GUI later via extensions
- State stored in files allows IDE/extension integration without coupling
**Trade-off**: Less visual polish than GUI; requires tmux familiarity
### Why not support multiple executors (codex/gemini/claude) in Phase 1?
**Decision**: Start with Claude executor only; add others in Phase 2+.
**Rationale**:
- Reduces scope and complexity for initial delivery
- Claude Code already integrated with existing executor service
- Executor abstraction already exists; adding more is straightforward later
- Different executors may need different prompt strategies (requires experimentation)
**Trade-off**: Users locked to Claude initially; can work around with manual executor selection
## Risks and Mitigations
- Model hallucination/large diffs: restrict prompt scope; enforce minimal changes; show diff previews (optional) before commit.
- Flaky tests: allow retries, isolate targeted runs for speed, then full suite before commit.
- Environment variability: detect runners/tools; provide fallbacks and actionable errors.
- PR creation fails: still push and print manual commands; persist PR body to reuse.
## Open Questions
1) Slugging rules for branch names; any length limits or normalization beyond {slug} token sanitize?
2) PR body standard sections beyond run report (e.g., checklist, coverage table)?
3) Default executor prompt fine-tuning once codex/gemini integration is available.
4) Where to store persistent TUI state (pane layout, last selection) in .taskmaster/state.json?
## Branch Naming
- Include both the tag and the task id in the branch name to make lineage explicit.
- Default pattern: <tag>/task-<id>[-slug] (e.g., master/task-12, tag-analytics/task-4-user-auth).
- Configurable via .taskmaster/config.json: git.branchPattern supports tokens {tag}, {id}, {slug}.
## PR Base Branch
- Use the repositorys default branch (detected via git) unless overridden.
- Title format: Task #<id> [<tag>]: <title>.
## RPG Mapping (Repository Planning Graph)
Functional nodes (capabilities):
- Autopilot Orchestration → drives TDD loop and lifecycle
- Test Generation (Surgical) → produces failing tests from subtask context
- Test Execution + Coverage → runs suite, enforces thresholds
- Git/Branch/PR Management → safe operations and PR creation
- TUI/Terminal Integration → interactive control and visibility via tmux
- MCP Integration → structured task/status/context operations
Structural nodes (code organization):
- packages/tm-core:
- services/workflow-orchestrator.ts (new)
- services/test-runner-adapter.ts (new)
- services/git-adapter.ts (new)
- existing: task-service.ts, task-execution-service.ts, executors/*
- apps/cli:
- src/commands/autopilot.command.ts (new)
- src/ui/tui/ (new tmux/TUI helpers)
- scripts/modules:
- reuse utils/git-utils.js, task-manager/tag-management.js
- .claude/agents/:
- surgical-test-generator.md
Edges (data/control flow):
- Autopilot → Test Generation → Test Execution → Git Commit → loop
- Autopilot → Git Adapter (branch, tag, PR)
- Autopilot → TUI (event stream) → tmux pane control
- Autopilot → MCP tools for task/status updates
- Test Execution → Coverage gate → Autopilot decision
Topological traversal (implementation order):
1) Git/Test adapters (foundations)
2) Orchestrator skeleton + events
3) CLI autopilot command and dry-run
4) Surgical test-gen integration and execution gate
5) PR creation, run reports, resumability
## Phased Roadmap
- Phase 0: Spike
- Implement CLI skeleton tm autopilot with dry-run showing planned steps from a real task + subtasks.
- Detect test runner (package.json) and git state; render a preflight report.
- Phase 1: Core Rails (State Machine & Orchestration)
- Implement WorkflowOrchestrator in tm-core as a **state machine** that tracks TDD phases per subtask.
- Orchestrator **guides** the current AI session (Claude Code/MCP client) rather than executing code itself.
- Add Git/Test adapters for status checks and validation (not direct execution).
- WorkflowOrchestrator API:
- `getNextWorkUnit(taskId)` → returns next phase to execute (RED/GREEN/COMMIT) with context
- `completeWorkUnit(taskId, subtaskId, phase, result)` → records completion and advances state
- `getRunState(taskId)` → returns current progress and resumability data
- MCP integration: expose work unit endpoints so Claude Code can query "what to do next" and report back.
- Branch/tag mapping via existing tag-management APIs.
- Run report persisted under .taskmaster/reports/runs/ with state checkpoints for resumability.
- Phase 2: PR + Resumability
- Add gh PR creation with well-formed body using the run report.
- Introduce resumable checkpoints and --resume flag.
- Add coverage enforcement and optional lint/format step.
- Phase 3: Extensibility + Guardrails
- Add support for basic pytest/go test adapters.
- Add safeguards: diff preview mode, manual confirm gates, aggressive minimal-change prompts.
- Optional: small TUI panel and extension panel leveraging the same run state file.
## References (Repo)
- Test Workflow: .cursor/rules/test_workflow.mdc
- Git Workflow: .cursor/rules/git_workflow.mdc
- CLI: apps/cli/src/commands/start.command.ts, apps/cli/src/ui/components/*.ts
- Core Services: packages/tm-core/src/services/task-service.ts, task-execution-service.ts
- Executors: packages/tm-core/src/executors/*
- Git Utilities: scripts/modules/utils/git-utils.js
- Tag Management: scripts/modules/task-manager/tag-management.js
- Surgical Test Generator: .claude/agents/surgical-test-generator.md

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# Phase 0: Spike - Autonomous TDD Workflow ✅ COMPLETE
## Objective
Validate feasibility and build foundational understanding before full implementation.
## Status
**COMPLETED** - All deliverables implemented and validated.
See `apps/cli/src/commands/autopilot.command.ts` for implementation.
## Scope
- Implement CLI skeleton `tm autopilot` with dry-run mode
- Show planned steps from a real task with subtasks
- Detect test runner from package.json
- Detect git state and render preflight report
## Deliverables
### 1. CLI Command Skeleton
- Create `apps/cli/src/commands/autopilot.command.ts`
- Support `tm autopilot <taskId>` command
- Implement `--dry-run` flag
- Basic help text and usage information
### 2. Preflight Detection System
- Detect test runner from package.json (npm test, pnpm test, etc.)
- Check git working tree state (clean/dirty)
- Validate required tools are available (git, gh, node/npm)
- Detect default branch
### 3. Dry-Run Execution Plan Display
Display planned execution for a task including:
- Preflight checks status
- Branch name that would be created
- Tag that would be set
- List of subtasks in execution order
- For each subtask:
- RED phase: test file that would be created
- GREEN phase: implementation files that would be modified
- COMMIT: commit message that would be used
- Finalization steps: test suite run, coverage check, push, PR creation
### 4. Task Loading & Validation
- Load task from TaskMaster state
- Validate task exists and has subtasks
- If no subtasks, show message about needing to expand first
- Show dependency order for subtasks
## Example Output
```bash
$ tm autopilot 42 --dry-run
Autopilot Plan for Task #42 [analytics]: User metrics tracking
─────────────────────────────────────────────────────────────
Preflight Checks:
✓ Working tree is clean
✓ Test command detected: npm test
✓ Tools available: git, gh, node, npm
✓ Current branch: main (will create new branch)
✓ Task has 3 subtasks ready to execute
Branch & Tag:
→ Will create branch: analytics/task-42-user-metrics
→ Will set active tag: analytics
Execution Plan (3 subtasks):
1. Subtask 42.1: Add metrics schema
RED: Generate tests → src/__tests__/schema.test.js
GREEN: Implement code → src/schema.js
COMMIT: "feat(metrics): add metrics schema (task 42.1)"
2. Subtask 42.2: Add collection endpoint [depends on 42.1]
RED: Generate tests → src/api/__tests__/metrics.test.js
GREEN: Implement code → src/api/metrics.js
COMMIT: "feat(metrics): add collection endpoint (task 42.2)"
3. Subtask 42.3: Add dashboard widget [depends on 42.2]
RED: Generate tests → src/components/__tests__/MetricsWidget.test.jsx
GREEN: Implement code → src/components/MetricsWidget.jsx
COMMIT: "feat(metrics): add dashboard widget (task 42.3)"
Finalization:
→ Run full test suite with coverage (threshold: 80%)
→ Push branch to origin (will confirm)
→ Create PR targeting main
Estimated commits: 3
Estimated duration: ~20-30 minutes (depends on implementation complexity)
Run without --dry-run to execute.
```
## Success Criteria
- Dry-run output is clear and matches expected workflow
- Preflight detection works correctly on the project repo
- Task loading integrates with existing TaskMaster state
- No actual git operations or file modifications occur in dry-run mode
## Out of Scope
- Actual test generation
- Actual code implementation
- Git operations (branch creation, commits, push)
- PR creation
- Test execution
## Implementation Notes
- Reuse existing `TaskService` from `packages/tm-core`
- Use existing git utilities from `scripts/modules/utils/git-utils.js`
- Load task/subtask data from `.taskmaster/tasks/tasks.json`
- Detect test command via package.json → scripts.test field
## Dependencies
- Existing TaskMaster CLI structure
- Existing task storage format
- Git utilities
## Estimated Effort
2-3 days
## Validation
Test dry-run mode with:
- Task with 1 subtask
- Task with multiple subtasks
- Task with dependencies between subtasks
- Task without subtasks (should show warning)
- Dirty git working tree (should warn)
- Missing tools (should error with helpful message)

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# Phase 1: Core Rails - State Machine & Orchestration
## Objective
Build the WorkflowOrchestrator as a state machine that guides AI sessions through TDD workflow, rather than directly executing code.
## Architecture Overview
### Execution Model
The orchestrator acts as a **state manager and guide**, not a code executor:
```
┌─────────────────────────────────────────────────────────────┐
│ Claude Code (MCP Client) │
│ - Queries "what to do next" │
│ - Executes work (writes tests, code, runs commands) │
│ - Reports completion │
└────────────────┬────────────────────────────────────────────┘
│ MCP Protocol
┌─────────────────────────────────────────────────────────────┐
│ WorkflowOrchestrator (tm-core) │
│ - Maintains state machine (RED → GREEN → COMMIT) │
│ - Returns work units with context │
│ - Validates preconditions │
│ - Records progress │
│ - Persists state for resumability │
└─────────────────────────────────────────────────────────────┘
```
### Why This Approach?
1. **Separation of Concerns**: State management separate from code execution
2. **Leverage Existing Tools**: Uses Claude Code's capabilities instead of reimplementing
3. **Human-in-the-Loop**: Easy to inspect state and intervene at any phase
4. **Simpler Implementation**: Orchestrator is pure logic, no AI model integration needed
5. **Flexible Executors**: Any tool (Claude Code, human, other AI) can execute work units
## Core Components
### 1. WorkflowOrchestrator Service
**Location**: `packages/tm-core/src/services/workflow-orchestrator.service.ts`
**Responsibilities**:
- Track current phase (RED/GREEN/COMMIT) per subtask
- Generate work units with context for each phase
- Validate phase completion criteria
- Advance state machine on successful completion
- Handle errors and retry logic
- Persist run state for resumability
**API**:
```typescript
interface WorkflowOrchestrator {
// Start a new autopilot run
startRun(taskId: string, options?: RunOptions): Promise<RunContext>;
// Get next work unit to execute
getNextWorkUnit(runId: string): Promise<WorkUnit | null>;
// Report work unit completion
completeWorkUnit(
runId: string,
workUnitId: string,
result: WorkUnitResult
): Promise<void>;
// Get current run state
getRunState(runId: string): Promise<RunState>;
// Pause/resume
pauseRun(runId: string): Promise<void>;
resumeRun(runId: string): Promise<void>;
}
interface WorkUnit {
id: string; // Unique work unit ID
phase: 'RED' | 'GREEN' | 'COMMIT';
subtaskId: string; // e.g., "42.1"
action: string; // Human-readable description
context: WorkUnitContext; // All info needed to execute
preconditions: Precondition[]; // Checks before execution
}
interface WorkUnitContext {
taskId: string;
taskTitle: string;
subtaskTitle: string;
subtaskDescription: string;
dependencies: string[]; // Completed subtask IDs
testCommand: string; // e.g., "npm test"
// Phase-specific context
redPhase?: {
testFile: string; // Where to create test
testFramework: string; // e.g., "vitest"
acceptanceCriteria: string[];
};
greenPhase?: {
testFile: string; // Test to make pass
implementationHints: string[];
expectedFiles: string[]; // Files likely to modify
};
commitPhase?: {
commitMessage: string; // Pre-generated message
filesToCommit: string[]; // Files modified in RED+GREEN
};
}
interface WorkUnitResult {
success: boolean;
phase: 'RED' | 'GREEN' | 'COMMIT';
// RED phase results
testsCreated?: string[];
testsFailed?: number;
// GREEN phase results
testsPassed?: number;
filesModified?: string[];
attempts?: number;
// COMMIT phase results
commitSha?: string;
// Common
error?: string;
logs?: string;
}
interface RunState {
runId: string;
taskId: string;
status: 'running' | 'paused' | 'completed' | 'failed';
currentPhase: 'RED' | 'GREEN' | 'COMMIT';
currentSubtask: string;
completedSubtasks: string[];
failedSubtasks: string[];
startTime: Date;
lastUpdateTime: Date;
// Resumability
checkpoint: {
subtaskId: string;
phase: 'RED' | 'GREEN' | 'COMMIT';
attemptNumber: number;
};
}
```
### 2. State Machine Logic
**Phase Transitions**:
```
START → RED(subtask 1) → GREEN(subtask 1) → COMMIT(subtask 1)
RED(subtask 2) ← ─ ─ ─ ┘
GREEN(subtask 2)
COMMIT(subtask 2)
(repeat for remaining subtasks)
FINALIZE → END
```
**Phase Rules**:
- **RED**: Can only transition to GREEN if tests created and failing
- **GREEN**: Can only transition to COMMIT if tests passing (attempt < maxAttempts)
- **COMMIT**: Can only transition to next RED if commit successful
- **FINALIZE**: Can only start if all subtasks completed
**Preconditions**:
- RED: No uncommitted changes (or staged from previous GREEN that failed)
- GREEN: RED phase complete, tests exist and are failing
- COMMIT: GREEN phase complete, all tests passing, coverage meets threshold
### 3. MCP Integration
**New MCP Tools** (expose WorkflowOrchestrator via MCP):
```typescript
// Start an autopilot run
mcp__task_master_ai__autopilot_start(taskId: string, dryRun?: boolean)
// Get next work unit
mcp__task_master_ai__autopilot_next_work_unit(runId: string)
// Complete current work unit
mcp__task_master_ai__autopilot_complete_work_unit(
runId: string,
workUnitId: string,
result: WorkUnitResult
)
// Get run state
mcp__task_master_ai__autopilot_get_state(runId: string)
// Pause/resume
mcp__task_master_ai__autopilot_pause(runId: string)
mcp__task_master_ai__autopilot_resume(runId: string)
```
### 4. Git/Test Adapters
**GitAdapter** (`packages/tm-core/src/services/git-adapter.service.ts`):
- Check working tree status
- Validate branch state
- Read git config (user, remote, default branch)
- **Does NOT execute** git commands (that's executor's job)
**TestAdapter** (`packages/tm-core/src/services/test-adapter.service.ts`):
- Detect test framework from package.json
- Parse test output (failures, passes, coverage)
- Validate coverage thresholds
- **Does NOT run** tests (that's executor's job)
### 5. Run State Persistence
**Storage Location**: `.taskmaster/reports/runs/<runId>/`
**Files**:
- `state.json` - Current run state (for resumability)
- `log.jsonl` - Event stream (timestamped work unit completions)
- `manifest.json` - Run metadata
- `work-units.json` - All work units generated for this run
**Example `state.json`**:
```json
{
"runId": "2025-01-15-142033",
"taskId": "42",
"status": "paused",
"currentPhase": "GREEN",
"currentSubtask": "42.2",
"completedSubtasks": ["42.1"],
"failedSubtasks": [],
"checkpoint": {
"subtaskId": "42.2",
"phase": "GREEN",
"attemptNumber": 2
},
"startTime": "2025-01-15T14:20:33Z",
"lastUpdateTime": "2025-01-15T14:35:12Z"
}
```
## Implementation Plan
### Step 1: WorkflowOrchestrator Skeleton
- [ ] Create `workflow-orchestrator.service.ts` with interfaces
- [ ] Implement state machine logic (phase transitions)
- [ ] Add run state persistence (state.json, log.jsonl)
- [ ] Write unit tests for state machine
### Step 2: Work Unit Generation
- [ ] Implement `getNextWorkUnit()` with context assembly
- [ ] Generate RED phase work units (test file paths, criteria)
- [ ] Generate GREEN phase work units (implementation hints)
- [ ] Generate COMMIT phase work units (commit messages)
### Step 3: Git/Test Adapters
- [ ] Create GitAdapter for status checks only
- [ ] Create TestAdapter for output parsing only
- [ ] Add precondition validation using adapters
- [ ] Write adapter unit tests
### Step 4: MCP Integration
- [ ] Add MCP tool definitions in `packages/mcp-server/src/tools/`
- [ ] Wire up WorkflowOrchestrator to MCP tools
- [ ] Test MCP tools via Claude Code
- [ ] Document MCP workflow in CLAUDE.md
### Step 5: CLI Integration
- [ ] Update `autopilot.command.ts` to call WorkflowOrchestrator
- [ ] Add `--interactive` mode that shows work units and waits for completion
- [ ] Add `--resume` flag to continue paused runs
- [ ] Test end-to-end flow
### Step 6: Integration Testing
- [ ] Create test task with 2-3 subtasks
- [ ] Run autopilot start get work unit complete repeat
- [ ] Verify state persistence and resumability
- [ ] Test failure scenarios (test failures, git issues)
## Success Criteria
- [ ] WorkflowOrchestrator can generate work units for all phases
- [ ] MCP tools allow Claude Code to query and complete work units
- [ ] State persists correctly between work unit completions
- [ ] Run can be paused and resumed from checkpoint
- [ ] Adapters validate preconditions without executing commands
- [ ] End-to-end: Claude Code can complete a simple task via work units
## Out of Scope (Phase 1)
- Actual git operations (branch creation, commits) - executor handles this
- Actual test execution - executor handles this
- PR creation - deferred to Phase 2
- TUI interface - deferred to Phase 3
- Coverage enforcement - deferred to Phase 2
## Example Usage Flow
```bash
# Terminal 1: Claude Code session
$ claude
# In Claude Code (via MCP):
> Start autopilot for task 42
[Calls mcp__task_master_ai__autopilot_start(42)]
→ Run started: run-2025-01-15-142033
> Get next work unit
[Calls mcp__task_master_ai__autopilot_next_work_unit(run-2025-01-15-142033)]
→ Work unit: RED phase for subtask 42.1
→ Action: Generate failing tests for metrics schema
→ Test file: src/__tests__/schema.test.js
→ Framework: vitest
> [Claude Code creates test file, runs tests]
> Complete work unit
[Calls mcp__task_master_ai__autopilot_complete_work_unit(
run-2025-01-15-142033,
workUnit-42.1-RED,
{ success: true, testsCreated: ['src/__tests__/schema.test.js'], testsFailed: 3 }
)]
→ Work unit completed. State saved.
> Get next work unit
[Calls mcp__task_master_ai__autopilot_next_work_unit(run-2025-01-15-142033)]
→ Work unit: GREEN phase for subtask 42.1
→ Action: Implement code to pass failing tests
→ Test file: src/__tests__/schema.test.js
→ Expected implementation: src/schema.js
> [Claude Code implements schema.js, runs tests, confirms all pass]
> Complete work unit
[...]
→ Work unit completed. Ready for COMMIT.
> Get next work unit
[...]
→ Work unit: COMMIT phase for subtask 42.1
→ Commit message: "feat(metrics): add metrics schema (task 42.1)"
→ Files to commit: src/__tests__/schema.test.js, src/schema.js
> [Claude Code stages files and commits]
> Complete work unit
[...]
→ Subtask 42.1 complete! Moving to 42.2...
```
## Dependencies
- Existing TaskService (task loading, status updates)
- Existing PreflightChecker (environment validation)
- Existing TaskLoaderService (dependency ordering)
- MCP server infrastructure
## Estimated Effort
7-10 days
## Next Phase
Phase 2 will add:
- PR creation via gh CLI
- Coverage enforcement
- Enhanced error recovery
- Full resumability testing

View File

@@ -0,0 +1,433 @@
# Phase 2: PR + Resumability - Autonomous TDD Workflow
## Objective
Add PR creation with GitHub CLI integration, resumable checkpoints for interrupted runs, and enhanced guardrails with coverage enforcement.
## Scope
- GitHub PR creation via `gh` CLI
- Well-formed PR body using run report
- Resumable checkpoints and `--resume` flag
- Coverage enforcement before finalization
- Optional lint/format step
- Enhanced error recovery
## Deliverables
### 1. PR Creation Integration
**PRAdapter** (`packages/tm-core/src/services/pr-adapter.ts`):
```typescript
class PRAdapter {
async isGHAvailable(): Promise<boolean>
async createPR(options: PROptions): Promise<PRResult>
async getPRTemplate(runReport: RunReport): Promise<string>
// Fallback for missing gh CLI
async getManualPRInstructions(options: PROptions): Promise<string>
}
interface PROptions {
branch: string
base: string
title: string
body: string
draft?: boolean
}
interface PRResult {
url: string
number: number
}
```
**PR Title Format:**
```
Task #<id> [<tag>]: <title>
```
Example: `Task #42 [analytics]: User metrics tracking`
**PR Body Template:**
Located at `.taskmaster/templates/pr-body.md`:
```markdown
## Summary
Implements Task #42 from TaskMaster autonomous workflow.
**Branch:** {branch}
**Tag:** {tag}
**Subtasks completed:** {subtaskCount}
{taskDescription}
## Subtasks
{subtasksList}
## Test Coverage
| Metric | Coverage |
|--------|----------|
| Lines | {lines}% |
| Branches | {branches}% |
| Functions | {functions}% |
| Statements | {statements}% |
**All subtasks passed with {totalTests} tests.**
## Commits
{commitsList}
## Run Report
Full execution report: `.taskmaster/reports/runs/{runId}/`
---
🤖 Generated with [Task Master](https://github.com/cline/task-master) autonomous TDD workflow
```
**Token replacement:**
- `{branch}` → branch name
- `{tag}` → active tag
- `{subtaskCount}` → number of completed subtasks
- `{taskDescription}` → task description from TaskMaster
- `{subtasksList}` → markdown list of subtask titles
- `{lines}`, `{branches}`, `{functions}`, `{statements}` → coverage percentages
- `{totalTests}` → total test count
- `{commitsList}` → markdown list of commit SHAs and messages
- `{runId}` → run ID timestamp
### 2. GitHub CLI Integration
**Detection:**
```bash
which gh
```
If not found, show fallback instructions:
```bash
✓ Branch pushed: analytics/task-42-user-metrics
✗ gh CLI not found - cannot create PR automatically
To create PR manually:
gh pr create \
--base main \
--head analytics/task-42-user-metrics \
--title "Task #42 [analytics]: User metrics tracking" \
--body-file .taskmaster/reports/runs/2025-01-15-142033/pr.md
Or visit:
https://github.com/org/repo/compare/main...analytics/task-42-user-metrics
```
**Confirmation gate:**
```bash
Ready to create PR:
Title: Task #42 [analytics]: User metrics tracking
Base: main
Head: analytics/task-42-user-metrics
Create PR? [Y/n]
```
Unless `--no-confirm` flag is set.
### 3. Resumable Workflow
**State Checkpoint** (`state.json`):
```json
{
"runId": "2025-01-15-142033",
"taskId": "42",
"phase": "subtask-loop",
"currentSubtask": "42.2",
"currentPhase": "green",
"attempts": 2,
"completedSubtasks": ["42.1"],
"commits": ["a1b2c3d"],
"branch": "analytics/task-42-user-metrics",
"tag": "analytics",
"canResume": true,
"pausedAt": "2025-01-15T14:25:35Z",
"pausedReason": "max_attempts_reached",
"nextAction": "manual_review_required"
}
```
**Resume Command:**
```bash
$ tm autopilot --resume
Resuming run: 2025-01-15-142033
Task: #42 [analytics] User metrics tracking
Branch: analytics/task-42-user-metrics
Last subtask: 42.2 (GREEN phase, attempt 2/3 failed)
Paused: 5 minutes ago
Reason: Could not achieve green state after 3 attempts
Last error: POST /api/metrics returns 500 instead of 201
Resume from subtask 42.2 GREEN phase? [Y/n]
```
**Resume logic:**
1. Load state from `.taskmaster/reports/runs/<runId>/state.json`
2. Verify branch still exists and is checked out
3. Verify no uncommitted changes (unless `--force`)
4. Continue from last checkpoint phase
5. Update state file as execution progresses
**Multiple interrupted runs:**
```bash
$ tm autopilot --resume
Found 2 resumable runs:
1. 2025-01-15-142033 - Task #42 (paused 5 min ago at subtask 42.2 GREEN)
2. 2025-01-14-103022 - Task #38 (paused 2 hours ago at subtask 38.3 RED)
Select run to resume [1-2]:
```
### 4. Coverage Enforcement
**Coverage Check Phase** (before finalization):
```typescript
async function enforceCoverage(runId: string): Promise<void> {
const testResults = await testRunner.runAll()
const coverage = await testRunner.getCoverage()
const thresholds = config.test.coverageThresholds
const failures = []
if (coverage.lines < thresholds.lines) {
failures.push(`Lines: ${coverage.lines}% < ${thresholds.lines}%`)
}
// ... check branches, functions, statements
if (failures.length > 0) {
throw new CoverageError(
`Coverage thresholds not met:\n${failures.join('\n')}`
)
}
// Store coverage in run report
await storeRunArtifact(runId, 'coverage.json', coverage)
}
```
**Handling coverage failures:**
```bash
⚠️ Coverage check failed:
Lines: 78.5% < 80%
Branches: 75.0% < 80%
Options:
1. Add more tests and resume
2. Lower thresholds in .taskmaster/config.json
3. Skip coverage check: tm autopilot --resume --skip-coverage
Run paused. Fix coverage and resume with:
tm autopilot --resume
```
### 5. Optional Lint/Format Step
**Configuration:**
```json
{
"autopilot": {
"finalization": {
"lint": {
"enabled": true,
"command": "npm run lint",
"fix": true,
"failOnError": false
},
"format": {
"enabled": true,
"command": "npm run format",
"commitChanges": true
}
}
}
}
```
**Execution:**
```bash
Finalization Steps:
✓ All tests passing (12 tests, 0 failures)
✓ Coverage thresholds met (85% lines, 82% branches)
LINT Running linter... ⏳
LINT ✓ No lint errors
FORMAT Running formatter... ⏳
FORMAT ✓ Formatted 3 files
FORMAT ✓ Committed formatting changes: "chore: auto-format code"
PUSH Pushing to origin... ⏳
PUSH ✓ Pushed analytics/task-42-user-metrics
PR Creating pull request... ⏳
PR ✓ Created PR #123
https://github.com/org/repo/pull/123
```
### 6. Enhanced Error Recovery
**Pause Points:**
- Max GREEN attempts reached (current)
- Coverage check failed (new)
- Lint errors (if `failOnError: true`)
- Git push failed (new)
- PR creation failed (new)
**Each pause saves:**
- Full state checkpoint
- Last command output
- Suggested next actions
- Resume instructions
**Automatic recovery attempts:**
- Git push: retry up to 3 times with backoff
- PR creation: fall back to manual instructions
- Lint: auto-fix if enabled, otherwise pause
### 7. Finalization Phase Enhancement
**Updated workflow:**
1. Run full test suite
2. Check coverage thresholds → pause if failed
3. Run lint (if enabled) → pause if failed and `failOnError: true`
4. Run format (if enabled) → auto-commit changes
5. Confirm push (unless `--no-confirm`)
6. Push branch → retry on failure
7. Generate PR body from template
8. Create PR via gh → fall back to manual instructions
9. Update task status to 'review' (configurable)
10. Save final run report
**Final output:**
```bash
━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━
✅ Task #42 [analytics]: User metrics tracking - COMPLETE
Branch: analytics/task-42-user-metrics
Subtasks completed: 3/3
Commits: 3
Total tests: 12 (12 passed, 0 failed)
Coverage: 85% lines, 82% branches, 88% functions, 85% statements
PR #123: https://github.com/org/repo/pull/123
Run report: .taskmaster/reports/runs/2025-01-15-142033/
Next steps:
- Review PR and request changes if needed
- Merge when ready
- Task status updated to 'review'
Completed in 24 minutes
```
## CLI Updates
**New flags:**
- `--resume` → Resume from last checkpoint
- `--skip-coverage` → Skip coverage checks
- `--skip-lint` → Skip lint step
- `--skip-format` → Skip format step
- `--skip-pr` → Push branch but don't create PR
- `--draft-pr` → Create draft PR instead of ready-for-review
## Configuration Updates
**Add to `.taskmaster/config.json`:**
```json
{
"autopilot": {
"finalization": {
"lint": {
"enabled": false,
"command": "npm run lint",
"fix": true,
"failOnError": false
},
"format": {
"enabled": false,
"command": "npm run format",
"commitChanges": true
},
"updateTaskStatus": "review"
}
},
"git": {
"pr": {
"enabled": true,
"base": "default",
"bodyTemplate": ".taskmaster/templates/pr-body.md",
"draft": false
},
"pushRetries": 3,
"pushRetryDelay": 5000
}
}
```
## Success Criteria
- Can create PR automatically with well-formed body
- Can resume interrupted runs from any checkpoint
- Coverage checks prevent low-quality code from being merged
- Clear error messages and recovery paths for all failure modes
- Run reports include full PR context for review
## Out of Scope (defer to Phase 3)
- Multiple test framework support (pytest, go test)
- Diff preview before commits
- TUI panel implementation
- Extension/IDE integration
## Testing Strategy
- Mock `gh` CLI for PR creation tests
- Test resume from each possible pause point
- Test coverage failure scenarios
- Test lint/format integration with mock commands
- End-to-end test with PR creation on test repo
## Dependencies
- Phase 1 completed (core workflow)
- GitHub CLI (`gh`) installed (optional, fallback provided)
- Test framework supports coverage output
## Estimated Effort
1-2 weeks
## Risks & Mitigations
- **Risk:** GitHub CLI auth issues
- **Mitigation:** Clear auth setup docs, fallback to manual instructions
- **Risk:** PR body template doesn't match all project needs
- **Mitigation:** Make template customizable via config path
- **Risk:** Resume state gets corrupted
- **Mitigation:** Validate state on load, provide --force-reset option
- **Risk:** Coverage calculation differs between runs
- **Mitigation:** Store coverage with each test run for comparison
## Validation
Test with:
- Successful PR creation end-to-end
- Resume from GREEN attempt failure
- Resume from coverage failure
- Resume from lint failure
- Missing `gh` CLI (fallback to manual)
- Lint/format integration enabled
- Multiple interrupted runs (selection UI)

View File

@@ -0,0 +1,534 @@
# Phase 3: Extensibility + Guardrails - Autonomous TDD Workflow
## Objective
Add multi-language/framework support, enhanced safety guardrails, TUI interface, and extensibility for IDE/editor integration.
## Scope
- Multi-language test runner support (pytest, go test, etc.)
- Enhanced safety: diff preview, confirmation gates, minimal-change prompts
- Optional TUI panel with tmux integration
- State-based extension API for IDE integration
- Parallel subtask execution (experimental)
## Deliverables
### 1. Multi-Language Test Runner Support
**Extend TestRunnerAdapter:**
```typescript
class TestRunnerAdapter {
// Existing methods...
async detectLanguage(): Promise<Language>
async detectFramework(language: Language): Promise<Framework>
async getFrameworkAdapter(framework: Framework): Promise<FrameworkAdapter>
}
enum Language {
JavaScript = 'javascript',
TypeScript = 'typescript',
Python = 'python',
Go = 'go',
Rust = 'rust'
}
enum Framework {
Vitest = 'vitest',
Jest = 'jest',
Pytest = 'pytest',
GoTest = 'gotest',
CargoTest = 'cargotest'
}
interface FrameworkAdapter {
runTargeted(pattern: string): Promise<TestResults>
runAll(): Promise<TestResults>
parseCoverage(output: string): Promise<CoverageReport>
getTestFilePattern(): string
getTestFileExtension(): string
}
```
**Framework-specific adapters:**
**PytestAdapter** (`packages/tm-core/src/services/test-adapters/pytest-adapter.ts`):
```typescript
class PytestAdapter implements FrameworkAdapter {
async runTargeted(pattern: string): Promise<TestResults> {
const output = await exec(`pytest ${pattern} --json-report`)
return this.parseResults(output)
}
async runAll(): Promise<TestResults> {
const output = await exec('pytest --cov --json-report')
return this.parseResults(output)
}
parseCoverage(output: string): Promise<CoverageReport> {
// Parse pytest-cov XML output
}
getTestFilePattern(): string {
return '**/test_*.py'
}
getTestFileExtension(): string {
return '.py'
}
}
```
**GoTestAdapter** (`packages/tm-core/src/services/test-adapters/gotest-adapter.ts`):
```typescript
class GoTestAdapter implements FrameworkAdapter {
async runTargeted(pattern: string): Promise<TestResults> {
const output = await exec(`go test ${pattern} -json`)
return this.parseResults(output)
}
async runAll(): Promise<TestResults> {
const output = await exec('go test ./... -coverprofile=coverage.out -json')
return this.parseResults(output)
}
parseCoverage(output: string): Promise<CoverageReport> {
// Parse go test coverage output
}
getTestFilePattern(): string {
return '**/*_test.go'
}
getTestFileExtension(): string {
return '_test.go'
}
}
```
**Detection Logic:**
```typescript
async function detectFramework(): Promise<Framework> {
// Check for package.json
if (await exists('package.json')) {
const pkg = await readJSON('package.json')
if (pkg.devDependencies?.vitest) return Framework.Vitest
if (pkg.devDependencies?.jest) return Framework.Jest
}
// Check for Python files
if (await exists('pytest.ini') || await exists('setup.py')) {
return Framework.Pytest
}
// Check for Go files
if (await exists('go.mod')) {
return Framework.GoTest
}
// Check for Rust files
if (await exists('Cargo.toml')) {
return Framework.CargoTest
}
throw new Error('Could not detect test framework')
}
```
### 2. Enhanced Safety Guardrails
**Diff Preview Mode:**
```bash
$ tm autopilot 42 --preview-diffs
[2/3] Subtask 42.2: Add collection endpoint
RED ✓ Tests created: src/api/__tests__/metrics.test.js
GREEN Implementing code...
━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━
Proposed changes (src/api/metrics.js):
+ import { MetricsSchema } from '../models/schema.js'
+
+ export async function createMetric(data) {
+ const validated = MetricsSchema.parse(data)
+ const result = await db.metrics.create(validated)
+ return result
+ }
━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━
Apply these changes? [Y/n/e(dit)/s(kip)]
Y - Apply and continue
n - Reject and retry GREEN phase
e - Open in editor for manual changes
s - Skip this subtask
```
**Minimal Change Enforcement:**
Add to system prompt:
```markdown
CRITICAL: Make MINIMAL changes to pass the failing tests.
- Only modify files directly related to the subtask
- Do not refactor existing code unless absolutely necessary
- Do not add features beyond the acceptance criteria
- Keep changes under 50 lines per file when possible
- Prefer composition over modification
```
**Change Size Warnings:**
```bash
⚠️ Large change detected:
Files modified: 5
Lines changed: +234, -12
This subtask was expected to be small (~50 lines).
Consider:
- Breaking into smaller subtasks
- Reviewing acceptance criteria
- Checking for unintended changes
Continue anyway? [y/N]
```
### 3. TUI Interface with tmux
**Layout:**
```
┌──────────────────────────────────┬─────────────────────────────────┐
│ Task Navigator (left) │ Executor Terminal (right) │
│ │ │
│ Project: my-app │ $ tm autopilot --executor-mode │
│ Branch: analytics/task-42 │ > Running subtask 42.2 GREEN... │
│ Tag: analytics │ > Implementing endpoint... │
│ │ > Tests: 3 passed, 0 failed │
│ Tasks: │ > Ready to commit │
│ → 42 [in-progress] User metrics │ │
│ → 42.1 [done] Schema │ [Live output from executor] │
│ → 42.2 [active] Endpoint ◀ │ │
│ → 42.3 [pending] Dashboard │ │
│ │ │
│ [s] start [p] pause [q] quit │ │
└──────────────────────────────────┴─────────────────────────────────┘
```
**Implementation:**
**TUI Navigator** (`apps/cli/src/ui/tui/navigator.ts`):
```typescript
import blessed from 'blessed'
class AutopilotTUI {
private screen: blessed.Widgets.Screen
private taskList: blessed.Widgets.ListElement
private statusBox: blessed.Widgets.BoxElement
private executorPane: string // tmux pane ID
async start(taskId?: string) {
// Create blessed screen
this.screen = blessed.screen()
// Create task list widget
this.taskList = blessed.list({
label: 'Tasks',
keys: true,
vi: true,
style: { selected: { bg: 'blue' } }
})
// Spawn tmux pane for executor
this.executorPane = await this.spawnExecutorPane()
// Watch state file for updates
this.watchStateFile()
// Handle keybindings
this.setupKeybindings()
}
private async spawnExecutorPane(): Promise<string> {
const paneId = await exec('tmux split-window -h -P -F "#{pane_id}"')
await exec(`tmux send-keys -t ${paneId} "tm autopilot --executor-mode" Enter`)
return paneId.trim()
}
private watchStateFile() {
watch('.taskmaster/state/current-run.json', (event, filename) => {
this.updateDisplay()
})
}
private setupKeybindings() {
this.screen.key(['s'], () => this.startTask())
this.screen.key(['p'], () => this.pauseTask())
this.screen.key(['q'], () => this.quit())
this.screen.key(['up', 'down'], () => this.navigateTasks())
}
}
```
**Executor Mode:**
```bash
$ tm autopilot 42 --executor-mode
# Runs in executor pane, writes state to shared file
# Left pane reads state file and updates display
```
**State File** (`.taskmaster/state/current-run.json`):
```json
{
"runId": "2025-01-15-142033",
"taskId": "42",
"status": "running",
"currentPhase": "green",
"currentSubtask": "42.2",
"lastOutput": "Implementing endpoint...",
"testsStatus": {
"passed": 3,
"failed": 0
}
}
```
### 4. Extension API for IDE Integration
**State-based API:**
Expose run state via JSON files that IDEs can read:
- `.taskmaster/state/current-run.json` - live run state
- `.taskmaster/reports/runs/<runId>/manifest.json` - run metadata
- `.taskmaster/reports/runs/<runId>/log.jsonl` - event stream
**WebSocket API (optional):**
```typescript
// packages/tm-core/src/services/autopilot-server.ts
class AutopilotServer {
private wss: WebSocketServer
start(port: number = 7890) {
this.wss = new WebSocketServer({ port })
this.wss.on('connection', (ws) => {
// Send current state
ws.send(JSON.stringify(this.getCurrentState()))
// Stream events
this.orchestrator.on('*', (event) => {
ws.send(JSON.stringify(event))
})
})
}
}
```
**Usage from IDE extension:**
```typescript
// VS Code extension example
const ws = new WebSocket('ws://localhost:7890')
ws.on('message', (data) => {
const event = JSON.parse(data)
if (event.type === 'subtask:complete') {
vscode.window.showInformationMessage(
`Subtask ${event.subtaskId} completed`
)
}
})
```
### 5. Parallel Subtask Execution (Experimental)
**Dependency Analysis:**
```typescript
class SubtaskScheduler {
async buildDependencyGraph(subtasks: Subtask[]): Promise<DAG> {
const graph = new DAG()
for (const subtask of subtasks) {
graph.addNode(subtask.id)
for (const depId of subtask.dependencies) {
graph.addEdge(depId, subtask.id)
}
}
return graph
}
async getParallelBatches(graph: DAG): Promise<Subtask[][]> {
const batches: Subtask[][] = []
const completed = new Set<string>()
while (completed.size < graph.size()) {
const ready = graph.nodes.filter(node =>
!completed.has(node.id) &&
node.dependencies.every(dep => completed.has(dep))
)
batches.push(ready)
ready.forEach(node => completed.add(node.id))
}
return batches
}
}
```
**Parallel Execution:**
```bash
$ tm autopilot 42 --parallel
[Batch 1] Running 2 subtasks in parallel:
→ 42.1: Add metrics schema
→ 42.4: Add API documentation
42.1 RED ✓ Tests created
42.4 RED ✓ Tests created
42.1 GREEN ✓ Implementation complete
42.4 GREEN ✓ Implementation complete
42.1 COMMIT ✓ Committed: a1b2c3d
42.4 COMMIT ✓ Committed: e5f6g7h
[Batch 2] Running 2 subtasks in parallel (depend on 42.1):
→ 42.2: Add collection endpoint
→ 42.3: Add dashboard widget
...
```
**Conflict Detection:**
```typescript
async function detectConflicts(subtasks: Subtask[]): Promise<Conflict[]> {
const conflicts: Conflict[] = []
for (let i = 0; i < subtasks.length; i++) {
for (let j = i + 1; j < subtasks.length; j++) {
const filesA = await predictAffectedFiles(subtasks[i])
const filesB = await predictAffectedFiles(subtasks[j])
const overlap = filesA.filter(f => filesB.includes(f))
if (overlap.length > 0) {
conflicts.push({
subtasks: [subtasks[i].id, subtasks[j].id],
files: overlap
})
}
}
}
return conflicts
}
```
### 6. Advanced Configuration
**Add to `.taskmaster/config.json`:**
```json
{
"autopilot": {
"safety": {
"previewDiffs": false,
"maxChangeLinesPerFile": 100,
"warnOnLargeChanges": true,
"requireConfirmOnLargeChanges": true
},
"parallel": {
"enabled": false,
"maxConcurrent": 3,
"detectConflicts": true
},
"tui": {
"enabled": false,
"tmuxSession": "taskmaster-autopilot"
},
"api": {
"enabled": false,
"port": 7890,
"allowRemote": false
}
},
"test": {
"frameworks": {
"python": {
"runner": "pytest",
"coverageCommand": "pytest --cov",
"testPattern": "**/test_*.py"
},
"go": {
"runner": "go test",
"coverageCommand": "go test ./... -coverprofile=coverage.out",
"testPattern": "**/*_test.go"
}
}
}
}
```
## CLI Updates
**New commands:**
```bash
tm autopilot <taskId> --tui # Launch TUI interface
tm autopilot <taskId> --parallel # Enable parallel execution
tm autopilot <taskId> --preview-diffs # Show diffs before applying
tm autopilot <taskId> --executor-mode # Run as executor pane
tm autopilot-server start # Start WebSocket API
```
## Success Criteria
- Supports Python projects with pytest
- Supports Go projects with go test
- Diff preview prevents unwanted changes
- TUI provides better visibility for long-running tasks
- IDE extensions can integrate via state files or WebSocket
- Parallel execution reduces total time for independent subtasks
## Out of Scope
- Full Electron/web GUI
- AI executor selection UI (defer to Phase 4)
- Multi-repository support
- Remote execution on cloud runners
## Testing Strategy
- Test with Python project (pytest)
- Test with Go project (go test)
- Test diff preview UI with mock changes
- Test parallel execution with independent subtasks
- Test conflict detection with overlapping file changes
- Test TUI with mock tmux environment
## Dependencies
- Phase 2 completed (PR + resumability)
- tmux installed (for TUI)
- blessed or ink library (for TUI rendering)
## Estimated Effort
3-4 weeks
## Risks & Mitigations
- **Risk:** Parallel execution causes git conflicts
- **Mitigation:** Conservative conflict detection, sequential fallback
- **Risk:** TUI adds complexity and maintenance burden
- **Mitigation:** Keep TUI optional, state-based design allows alternatives
- **Risk:** Framework adapters hard to maintain across versions
- **Mitigation:** Abstract common parsing logic, document adapter interface
- **Risk:** Diff preview slows down workflow
- **Mitigation:** Make optional, use --preview-diffs flag only when needed
## Validation
Test with:
- Python project with pytest and pytest-cov
- Go project with go test
- Large changes requiring confirmation
- Parallel execution with 3+ independent subtasks
- TUI with task selection and live status updates
- VS Code extension reading state files

View File

@@ -0,0 +1,197 @@
{
"meta": {
"generatedAt": "2025-10-07T09:46:06.248Z",
"tasksAnalyzed": 23,
"totalTasks": 23,
"analysisCount": 23,
"thresholdScore": 5,
"projectName": "Taskmaster",
"usedResearch": false
},
"complexityAnalysis": [
{
"taskId": 31,
"taskTitle": "Create WorkflowOrchestrator service foundation",
"complexityScore": 7,
"recommendedSubtasks": 5,
"expansionPrompt": "Break down the WorkflowOrchestrator foundation into its core architectural components: phase management system, event emitter infrastructure, state management interfaces, service integration, and lifecycle control methods. Each subtask should focus on a specific architectural concern with clear interfaces and testable units.",
"reasoning": "This is a foundational service requiring state machine implementation, event-driven architecture, and integration with existing services. The complexity is high due to the need for robust phase management, error handling, and service orchestration patterns."
},
{
"taskId": 32,
"taskTitle": "Implement GitAdapter for repository operations",
"complexityScore": 6,
"recommendedSubtasks": 4,
"expansionPrompt": "Decompose the GitAdapter implementation into: TypeScript wrapper creation around existing git-utils.js, core git operation methods with comprehensive error handling, branch naming pattern system with token replacement, and confirmation gates for destructive operations. Focus on type safety and existing code integration.",
"reasoning": "Moderate-high complexity due to TypeScript integration over existing JavaScript utilities, branch pattern implementation, and safety mechanisms. The existing git-utils.js provides a solid foundation, reducing complexity."
},
{
"taskId": 33,
"taskTitle": "Create TestRunnerAdapter for framework detection and execution",
"complexityScore": 8,
"recommendedSubtasks": 6,
"expansionPrompt": "Break down TestRunnerAdapter into framework detection logic, test execution engine with process management, Jest-specific result parsing, Vitest-specific result parsing, unified result interfaces, and final integration. Each framework parser should be separate to handle their unique output formats.",
"reasoning": "High complexity due to multiple framework support (Jest, Vitest), child process management, result parsing from different formats, coverage reporting, and timeout handling. Each framework has unique output formats requiring specialized parsers."
},
{
"taskId": 34,
"taskTitle": "Implement autopilot CLI command structure",
"complexityScore": 5,
"recommendedSubtasks": 4,
"expansionPrompt": "Structure the autopilot command into: basic command setup with Commander.js integration, comprehensive flag handling and validation system, preflight check validation with environment validation, and WorkflowOrchestrator integration with dry-run execution planning. Follow existing CLI patterns from the codebase.",
"reasoning": "Moderate complexity involving CLI structure, flag handling, and integration with WorkflowOrchestrator. The existing CLI patterns and Commander.js usage in the codebase provide good guidance, reducing implementation complexity."
},
{
"taskId": 35,
"taskTitle": "Integrate surgical test generator with WorkflowOrchestrator",
"complexityScore": 6,
"recommendedSubtasks": 4,
"expansionPrompt": "Decompose the test generation integration into: TaskExecutionService enhancement for test generation mode, TestGenerationService creation using executor framework, prompt composition system for rule integration, and framework-specific test pattern support. Leverage existing executor patterns from the codebase.",
"reasoning": "Moderate-high complexity due to integration with existing services, prompt composition system, and framework-specific test generation. The existing executor framework and TaskExecutionService provide good integration points."
},
{
"taskId": 36,
"taskTitle": "Implement subtask TDD loop execution",
"complexityScore": 9,
"recommendedSubtasks": 7,
"expansionPrompt": "Break down the TDD loop into: SubtaskExecutor class architecture, RED phase test generation, GREEN phase code generation, COMMIT phase with conventional commits, retry mechanism for GREEN phase, timeout and backoff policies, and TaskService integration. Each phase should be independently testable.",
"reasoning": "Very high complexity due to implementing the complete TDD red-green-commit cycle with AI integration, retry logic, timeout handling, and git operations. This is the core autonomous workflow requiring robust error handling and state management."
},
{
"taskId": 37,
"taskTitle": "Add configuration schema for autopilot settings",
"complexityScore": 4,
"recommendedSubtasks": 3,
"expansionPrompt": "Expand configuration support into: extending configuration interfaces with autopilot settings, updating ConfigManager validation logic, and implementing default configuration values. Build on existing configuration patterns and maintain backward compatibility.",
"reasoning": "Low-moderate complexity involving schema extension and validation logic. The existing configuration system provides clear patterns to follow, making this primarily an extension task rather than new architecture."
},
{
"taskId": 38,
"taskTitle": "Implement run state persistence and logging",
"complexityScore": 6,
"recommendedSubtasks": 5,
"expansionPrompt": "Structure run state management into: RunStateManager service class creation, run directory structure and manifest creation, JSONL event logging system, test result and commit tracking storage, and state checkpointing with resume functionality. Focus on data integrity and structured logging.",
"reasoning": "Moderate-high complexity due to file system operations, structured logging, state serialization, and resume functionality. Requires careful design of data formats and error handling for persistence operations."
},
{
"taskId": 39,
"taskTitle": "Add GitHub PR creation with run reports",
"complexityScore": 5,
"recommendedSubtasks": 4,
"expansionPrompt": "Decompose PR creation into: PRAdapter service foundation with interfaces, GitHub CLI integration and command execution, PR body generation from run data and test results, and custom PR template system with configuration support. Leverage existing git-utils.js patterns for CLI integration.",
"reasoning": "Moderate complexity involving GitHub CLI integration, report generation, and template systems. The existing git-utils.js provides patterns for CLI tool integration, reducing implementation complexity."
},
{
"taskId": 40,
"taskTitle": "Implement task dependency resolution for subtask ordering",
"complexityScore": 6,
"recommendedSubtasks": 4,
"expansionPrompt": "Break down dependency resolution into: dependency resolution algorithm with cycle detection, topological sorting for subtask ordering, task eligibility checking system, and TaskService integration. Implement graph algorithms for dependency management with proper error handling.",
"reasoning": "Moderate-high complexity due to graph algorithm implementation, cycle detection, and integration with existing task management. Requires careful design of dependency resolution logic and edge case handling."
},
{
"taskId": 41,
"taskTitle": "Create resume functionality for interrupted runs",
"complexityScore": 7,
"recommendedSubtasks": 5,
"expansionPrompt": "Structure resume functionality into: checkpoint creation in RunStateManager, state restoration logic with validation, state validation for safe resume operations, CLI flag implementation for resume command, and partial phase resume functionality. Focus on data integrity and workflow consistency.",
"reasoning": "High complexity due to state serialization/deserialization, workflow restoration, validation logic, and CLI integration. Requires robust error handling and state consistency checks for reliable resume operations."
},
{
"taskId": 42,
"taskTitle": "Add coverage threshold enforcement",
"complexityScore": 5,
"recommendedSubtasks": 4,
"expansionPrompt": "Decompose coverage enforcement into: coverage report parsing from Jest/Vitest, configurable threshold validation logic, coverage gates integration in workflow phases, and detailed coverage failure reporting system. Build on existing TestRunnerAdapter patterns.",
"reasoning": "Moderate complexity involving coverage report parsing, validation logic, and workflow integration. The existing TestRunnerAdapter provides good foundation for extending coverage capabilities."
},
{
"taskId": 43,
"taskTitle": "Implement tmux-based TUI navigator",
"complexityScore": 8,
"recommendedSubtasks": 6,
"expansionPrompt": "Break down TUI implementation into: framework selection and basic structure setup, left pane interface layout with status indicators, tmux integration and terminal coordination, navigation system with keybindings, real-time status updates system, and comprehensive event handling with UX polish. Each component should be independently testable.",
"reasoning": "High complexity due to terminal UI framework integration, tmux session management, real-time updates, keyboard event handling, and terminal interface design. Requires expertise in terminal UI libraries and tmux integration."
},
{
"taskId": 44,
"taskTitle": "Add prompt composition system for context-aware test generation",
"complexityScore": 6,
"recommendedSubtasks": 4,
"expansionPrompt": "Structure prompt composition into: PromptComposer service foundation, template processing engine with token replacement, rule loading system with precedence handling, and context injection with phase-specific prompt generation. Focus on flexible template system and rule management.",
"reasoning": "Moderate-high complexity due to template processing, rule precedence systems, and context injection logic. Requires careful design of template syntax and rule loading mechanisms."
},
{
"taskId": 45,
"taskTitle": "Implement tag-branch mapping and automatic tag switching",
"complexityScore": 5,
"recommendedSubtasks": 3,
"expansionPrompt": "Decompose tag-branch mapping into: GitAdapter enhancement with branch-to-tag extraction logic, automatic tag switching workflow integration, and branch-to-tag mapping persistence with validation. Build on existing git-utils.js and tag management functionality.",
"reasoning": "Moderate complexity involving pattern matching, tag management integration, and workflow automation. The existing git-utils.js and tag management systems provide good foundation for implementation."
},
{
"taskId": 46,
"taskTitle": "Add comprehensive error handling and recovery",
"complexityScore": 7,
"recommendedSubtasks": 5,
"expansionPrompt": "Structure error handling into: error classification system with specific error types, recovery suggestion engine with actionable recommendations, error context management and preservation, force flag implementation with selective bypass, and logging/reporting system integration. Focus on actionable error messages and automated recovery where possible.",
"reasoning": "High complexity due to comprehensive error taxonomy, recovery automation, context preservation, and integration across all workflow components. Requires deep understanding of failure modes and recovery strategies."
},
{
"taskId": 47,
"taskTitle": "Implement conventional commit message generation",
"complexityScore": 4,
"recommendedSubtasks": 3,
"expansionPrompt": "Break down commit message generation into: template system creation with variable substitution, commit type auto-detection based on task content and file changes, and validation with GitAdapter integration. Follow conventional commit standards and integrate with existing git operations.",
"reasoning": "Low-moderate complexity involving template processing, pattern matching for commit type detection, and validation logic. Well-defined conventional commit standards provide clear implementation guidance."
},
{
"taskId": 48,
"taskTitle": "Add multi-framework test execution support",
"complexityScore": 7,
"recommendedSubtasks": 5,
"expansionPrompt": "Expand test framework support into: framework detection system for multiple languages, common adapter interface design, Python pytest adapter implementation, Go and Rust adapter implementations, and integration with existing TestRunnerAdapter. Each language adapter should follow the unified interface pattern.",
"reasoning": "High complexity due to multi-language support, framework detection across different ecosystems, and adapter pattern implementation. Each language has unique testing conventions and output formats."
},
{
"taskId": 49,
"taskTitle": "Implement workflow event streaming for real-time monitoring",
"complexityScore": 6,
"recommendedSubtasks": 4,
"expansionPrompt": "Structure event streaming into: WorkflowOrchestrator EventEmitter enhancement, structured event format with metadata, event persistence to run logs, and optional WebSocket streaming for external monitoring. Focus on event consistency and real-time delivery.",
"reasoning": "Moderate-high complexity due to event-driven architecture, structured event formats, persistence integration, and WebSocket implementation. Requires careful design of event schemas and delivery mechanisms."
},
{
"taskId": 50,
"taskTitle": "Add intelligent test targeting for faster feedback",
"complexityScore": 7,
"recommendedSubtasks": 5,
"expansionPrompt": "Decompose test targeting into: file change detection system, test dependency analysis engine, framework-specific targeting adapters, test impact calculation algorithm, and fallback integration with TestRunnerAdapter. Focus on accuracy and performance optimization.",
"reasoning": "High complexity due to dependency analysis, impact calculation algorithms, framework-specific targeting, and integration with existing test execution. Requires sophisticated analysis of code relationships and test dependencies."
},
{
"taskId": 51,
"taskTitle": "Implement dry-run visualization with execution timeline",
"complexityScore": 6,
"recommendedSubtasks": 4,
"expansionPrompt": "Structure dry-run visualization into: timeline calculation engine with duration estimates, estimation algorithms based on task complexity, ASCII art progress visualization with formatting, and resource validation with preflight checks. Focus on accurate planning and clear visual presentation.",
"reasoning": "Moderate-high complexity due to timeline calculation, estimation algorithms, ASCII visualization, and resource validation. Requires understanding of workflow timing and visual formatting for terminal output."
},
{
"taskId": 52,
"taskTitle": "Add autopilot workflow integration tests",
"complexityScore": 8,
"recommendedSubtasks": 6,
"expansionPrompt": "Structure integration testing into: isolated test environment infrastructure, mock integrations and service stubs, end-to-end workflow test scenarios, performance benchmarking and resource monitoring, test isolation and parallelization strategies, and comprehensive result validation and reporting. Focus on realistic test scenarios and reliable automation.",
"reasoning": "High complexity due to end-to-end testing requirements, mock service integration, performance testing, isolation mechanisms, and comprehensive validation. Requires sophisticated test infrastructure and scenario design."
},
{
"taskId": 53,
"taskTitle": "Finalize autopilot documentation and examples",
"complexityScore": 3,
"recommendedSubtasks": 4,
"expansionPrompt": "Structure documentation into: comprehensive autopilot documentation covering setup and usage, example PRD files and templates for different project types, troubleshooting guide for common issues and solutions, and demo materials with workflow visualization. Focus on clarity and practical examples.",
"reasoning": "Low complexity involving documentation writing, example creation, and demo material production. The main challenge is ensuring accuracy and completeness rather than technical implementation."
}
]
}

View File

@@ -0,0 +1,93 @@
{
"meta": {
"generatedAt": "2025-10-07T14:16:40.283Z",
"tasksAnalyzed": 10,
"totalTasks": 10,
"analysisCount": 10,
"thresholdScore": 5,
"projectName": "Taskmaster",
"usedResearch": false
},
"complexityAnalysis": [
{
"taskId": 1,
"taskTitle": "Create autopilot command CLI skeleton",
"complexityScore": 4,
"recommendedSubtasks": 3,
"expansionPrompt": "Break down the autopilot command creation into: 1) Create AutopilotCommand class extending Commander.Command with proper argument parsing and options, 2) Implement command structure with help text and validation following existing patterns, 3) Add basic registration method and placeholder action handler",
"reasoning": "Medium complexity due to following established patterns in the codebase. The command-registry.ts and start.command.ts provide clear templates for implementation. Main complexity is argument parsing and option validation."
},
{
"taskId": 2,
"taskTitle": "Implement preflight detection system",
"complexityScore": 7,
"recommendedSubtasks": 5,
"expansionPrompt": "Create PreflightChecker with these subtasks: 1) Package.json test script detection and validation, 2) Git working tree status checking using system commands, 3) Tool availability validation (git, gh, node/npm), 4) Default branch detection via git commands, 5) Structured result reporting with success/failure indicators and error messages",
"reasoning": "High complexity due to system integration requirements. Needs to interact with multiple external tools (git, npm, gh), parse various file formats, and handle different system configurations. Error handling for missing tools adds complexity."
},
{
"taskId": 3,
"taskTitle": "Implement task loading and validation",
"complexityScore": 5,
"recommendedSubtasks": 3,
"expansionPrompt": "Implement task loading: 1) Use existing TaskService from @tm/core to load tasks by ID with proper error handling, 2) Validate task structure including subtask existence and dependency validation, 3) Provide user-friendly error messages for missing tasks or need to expand subtasks first",
"reasoning": "Medium-high complexity. While leveraging existing TaskService reduces implementation effort, the validation logic for subtasks and dependencies requires careful handling of edge cases. Task structure validation adds complexity."
},
{
"taskId": 4,
"taskTitle": "Create execution plan display logic",
"complexityScore": 6,
"recommendedSubtasks": 4,
"expansionPrompt": "Build ExecutionPlanDisplay: 1) Create display formatter using boxen and chalk for consistent CLI styling, 2) Format preflight check results with color-coded status indicators, 3) Display subtask execution order with RED/GREEN/COMMIT phase visualization, 4) Show branch/tag info and finalization steps with duration estimates",
"reasoning": "Moderate-high complexity due to complex formatting requirements and dependency on multiple other components. The display needs to coordinate information from preflight, task validation, and execution planning. CLI styling consistency adds complexity."
},
{
"taskId": 5,
"taskTitle": "Implement branch and tag planning",
"complexityScore": 3,
"recommendedSubtasks": 2,
"expansionPrompt": "Create BranchPlanner: 1) Implement branch name generation using pattern <tag>/task-<id>-<slug> with kebab-case conversion and special character handling, 2) Add TaskMaster config integration to determine active tag and handle existing branch conflicts",
"reasoning": "Low-medium complexity. String manipulation and naming convention implementation is straightforward. The main complexity is handling edge cases with special characters and existing branch conflicts."
},
{
"taskId": 6,
"taskTitle": "Create subtask execution order calculation",
"complexityScore": 8,
"recommendedSubtasks": 4,
"expansionPrompt": "Implement dependency resolution: 1) Build dependency graph from subtask data with proper parsing, 2) Implement topological sort algorithm for execution order, 3) Add circular dependency detection with clear error reporting, 4) Create parallel execution grouping for independent subtasks",
"reasoning": "High complexity due to graph algorithms and dependency resolution. Topological sorting, circular dependency detection, and parallel grouping require algorithmic sophistication. Edge cases in dependency chains add significant complexity."
},
{
"taskId": 7,
"taskTitle": "Implement TDD phase planning for subtasks",
"complexityScore": 6,
"recommendedSubtasks": 4,
"expansionPrompt": "Create TDDPhasePlanner: 1) Implement test file path detection for common project structures (src/, tests/, __tests__), 2) Parse implementation files from subtask details and descriptions, 3) Generate conventional commit messages for RED/GREEN/COMMIT phases, 4) Add implementation complexity estimation based on subtask content",
"reasoning": "Moderate-high complexity due to project structure detection and file path inference. Conventional commit message generation and complexity estimation require understanding of different project layouts and parsing subtask content effectively."
},
{
"taskId": 8,
"taskTitle": "Add finalization steps planning",
"complexityScore": 4,
"recommendedSubtasks": 3,
"expansionPrompt": "Create FinalizationPlanner: 1) Implement test suite execution planning with coverage threshold detection from package.json, 2) Add git operations planning (branch push, PR creation) using existing git patterns, 3) Create duration estimation algorithm based on subtask count and complexity metrics",
"reasoning": "Medium complexity. Building on existing git utilities and test command detection reduces complexity. Main challenges are coverage threshold parsing and duration estimation algorithms."
},
{
"taskId": 9,
"taskTitle": "Integrate command with existing CLI infrastructure",
"complexityScore": 3,
"recommendedSubtasks": 2,
"expansionPrompt": "Complete CLI integration: 1) Add AutopilotCommand to command-registry.ts following existing patterns and update command metadata, 2) Test command registration and help system integration with proper cleanup and error handling",
"reasoning": "Low-medium complexity. The command-registry.ts provides a clear pattern to follow. Main work is registration and ensuring proper integration with existing CLI infrastructure. Well-established patterns reduce complexity."
},
{
"taskId": 10,
"taskTitle": "Add comprehensive error handling and edge cases",
"complexityScore": 7,
"recommendedSubtasks": 5,
"expansionPrompt": "Implement error handling: 1) Add missing task and invalid task structure error handling with helpful messages, 2) Handle git state errors (dirty working tree, missing tools), 3) Add dependency validation errors (circular, invalid references), 4) Implement missing tool detection with installation guidance, 5) Create user-friendly error messages following existing CLI patterns",
"reasoning": "High complexity due to comprehensive error scenarios. Each component (preflight, task loading, dependency resolution) has multiple failure modes that need proper handling. Providing helpful error messages and recovery suggestions adds complexity."
}
]
}

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@@ -1,6 +1,6 @@
{
"currentTag": "master",
"lastSwitched": "2025-09-12T22:25:27.535Z",
"lastSwitched": "2025-10-07T17:17:58.049Z",
"branchTagMapping": {
"v017-adds": "v017-adds",
"next": "next"

File diff suppressed because it is too large Load Diff

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@@ -1,511 +0,0 @@
<rpg-method>
# Repository Planning Graph (RPG) Method - PRD Template
This template teaches you (AI or human) how to create structured, dependency-aware PRDs using the RPG methodology from Microsoft Research. The key insight: separate WHAT (functional) from HOW (structural), then connect them with explicit dependencies.
## Core Principles
1. **Dual-Semantics**: Think functional (capabilities) AND structural (code organization) separately, then map them
2. **Explicit Dependencies**: Never assume - always state what depends on what
3. **Topological Order**: Build foundation first, then layers on top
4. **Progressive Refinement**: Start broad, refine iteratively
## How to Use This Template
- Follow the instructions in each `<instruction>` block
- Look at `<example>` blocks to see good vs bad patterns
- Fill in the content sections with your project details
- The AI reading this will learn the RPG method by following along
- Task Master will parse the resulting PRD into dependency-aware tasks
## Recommended Tools for Creating PRDs
When using this template to **create** a PRD (not parse it), use **code-context-aware AI assistants** for best results:
**Why?** The AI needs to understand your existing codebase to make good architectural decisions about modules, dependencies, and integration points.
**Recommended tools:**
- **Claude Code** (claude-code CLI) - Best for structured reasoning and large contexts
- **Cursor/Windsurf** - IDE integration with full codebase context
- **Gemini CLI** (gemini-cli) - Massive context window for large codebases
- **Codex/Grok CLI** - Strong code generation with context awareness
**Note:** Once your PRD is created, `task-master parse-prd` works with any configured AI model - it just needs to read the PRD text itself, not your codebase.
</rpg-method>
---
<overview>
<instruction>
Start with the problem, not the solution. Be specific about:
- What pain point exists?
- Who experiences it?
- Why existing solutions don't work?
- What success looks like (measurable outcomes)?
Keep this section focused - don't jump into implementation details yet.
</instruction>
## Problem Statement
[Describe the core problem. Be concrete about user pain points.]
## Target Users
[Define personas, their workflows, and what they're trying to achieve.]
## Success Metrics
[Quantifiable outcomes. Examples: "80% task completion via autopilot", "< 5% manual intervention rate"]
</overview>
---
<functional-decomposition>
<instruction>
Now think about CAPABILITIES (what the system DOES), not code structure yet.
Step 1: Identify high-level capability domains
- Think: "What major things does this system do?"
- Examples: Data Management, Core Processing, Presentation Layer
Step 2: For each capability, enumerate specific features
- Use explore-exploit strategy:
* Exploit: What features are REQUIRED for core value?
* Explore: What features make this domain COMPLETE?
Step 3: For each feature, define:
- Description: What it does in one sentence
- Inputs: What data/context it needs
- Outputs: What it produces/returns
- Behavior: Key logic or transformations
<example type="good">
Capability: Data Validation
Feature: Schema validation
- Description: Validate JSON payloads against defined schemas
- Inputs: JSON object, schema definition
- Outputs: Validation result (pass/fail) + error details
- Behavior: Iterate fields, check types, enforce constraints
Feature: Business rule validation
- Description: Apply domain-specific validation rules
- Inputs: Validated data object, rule set
- Outputs: Boolean + list of violated rules
- Behavior: Execute rules sequentially, short-circuit on failure
</example>
<example type="bad">
Capability: validation.js
(Problem: This is a FILE, not a CAPABILITY. Mixing structure into functional thinking.)
Capability: Validation
Feature: Make sure data is good
(Problem: Too vague. No inputs/outputs. Not actionable.)
</example>
</instruction>
## Capability Tree
### Capability: [Name]
[Brief description of what this capability domain covers]
#### Feature: [Name]
- **Description**: [One sentence]
- **Inputs**: [What it needs]
- **Outputs**: [What it produces]
- **Behavior**: [Key logic]
#### Feature: [Name]
- **Description**:
- **Inputs**:
- **Outputs**:
- **Behavior**:
### Capability: [Name]
...
</functional-decomposition>
---
<structural-decomposition>
<instruction>
NOW think about code organization. Map capabilities to actual file/folder structure.
Rules:
1. Each capability maps to a module (folder or file)
2. Features within a capability map to functions/classes
3. Use clear module boundaries - each module has ONE responsibility
4. Define what each module exports (public interface)
The goal: Create a clear mapping between "what it does" (functional) and "where it lives" (structural).
<example type="good">
Capability: Data Validation
→ Maps to: src/validation/
├── schema-validator.js (Schema validation feature)
├── rule-validator.js (Business rule validation feature)
└── index.js (Public exports)
Exports:
- validateSchema(data, schema)
- validateRules(data, rules)
</example>
<example type="bad">
Capability: Data Validation
→ Maps to: src/utils.js
(Problem: "utils" is not a clear module boundary. Where do I find validation logic?)
Capability: Data Validation
→ Maps to: src/validation/everything.js
(Problem: One giant file. Features should map to separate files for maintainability.)
</example>
</instruction>
## Repository Structure
```
project-root/
├── src/
│ ├── [module-name]/ # Maps to: [Capability Name]
│ │ ├── [file].js # Maps to: [Feature Name]
│ │ └── index.js # Public exports
│ └── [module-name]/
├── tests/
└── docs/
```
## Module Definitions
### Module: [Name]
- **Maps to capability**: [Capability from functional decomposition]
- **Responsibility**: [Single clear purpose]
- **File structure**:
```
module-name/
├── feature1.js
├── feature2.js
└── index.js
```
- **Exports**:
- `functionName()` - [what it does]
- `ClassName` - [what it does]
</structural-decomposition>
---
<dependency-graph>
<instruction>
This is THE CRITICAL SECTION for Task Master parsing.
Define explicit dependencies between modules. This creates the topological order for task execution.
Rules:
1. List modules in dependency order (foundation first)
2. For each module, state what it depends on
3. Foundation modules should have NO dependencies
4. Every non-foundation module should depend on at least one other module
5. Think: "What must EXIST before I can build this module?"
<example type="good">
Foundation Layer (no dependencies):
- error-handling: No dependencies
- config-manager: No dependencies
- base-types: No dependencies
Data Layer:
- schema-validator: Depends on [base-types, error-handling]
- data-ingestion: Depends on [schema-validator, config-manager]
Core Layer:
- algorithm-engine: Depends on [base-types, error-handling]
- pipeline-orchestrator: Depends on [algorithm-engine, data-ingestion]
</example>
<example type="bad">
- validation: Depends on API
- API: Depends on validation
(Problem: Circular dependency. This will cause build/runtime issues.)
- user-auth: Depends on everything
(Problem: Too many dependencies. Should be more focused.)
</example>
</instruction>
## Dependency Chain
### Foundation Layer (Phase 0)
No dependencies - these are built first.
- **[Module Name]**: [What it provides]
- **[Module Name]**: [What it provides]
### [Layer Name] (Phase 1)
- **[Module Name]**: Depends on [[module-from-phase-0], [module-from-phase-0]]
- **[Module Name]**: Depends on [[module-from-phase-0]]
### [Layer Name] (Phase 2)
- **[Module Name]**: Depends on [[module-from-phase-1], [module-from-foundation]]
[Continue building up layers...]
</dependency-graph>
---
<implementation-roadmap>
<instruction>
Turn the dependency graph into concrete development phases.
Each phase should:
1. Have clear entry criteria (what must exist before starting)
2. Contain tasks that can be parallelized (no inter-dependencies within phase)
3. Have clear exit criteria (how do we know phase is complete?)
4. Build toward something USABLE (not just infrastructure)
Phase ordering follows topological sort of dependency graph.
<example type="good">
Phase 0: Foundation
Entry: Clean repository
Tasks:
- Implement error handling utilities
- Create base type definitions
- Setup configuration system
Exit: Other modules can import foundation without errors
Phase 1: Data Layer
Entry: Phase 0 complete
Tasks:
- Implement schema validator (uses: base types, error handling)
- Build data ingestion pipeline (uses: validator, config)
Exit: End-to-end data flow from input to validated output
</example>
<example type="bad">
Phase 1: Build Everything
Tasks:
- API
- Database
- UI
- Tests
(Problem: No clear focus. Too broad. Dependencies not considered.)
</example>
</instruction>
## Development Phases
### Phase 0: [Foundation Name]
**Goal**: [What foundational capability this establishes]
**Entry Criteria**: [What must be true before starting]
**Tasks**:
- [ ] [Task name] (depends on: [none or list])
- Acceptance criteria: [How we know it's done]
- Test strategy: [What tests prove it works]
- [ ] [Task name] (depends on: [none or list])
**Exit Criteria**: [Observable outcome that proves phase complete]
**Delivers**: [What can users/developers do after this phase?]
---
### Phase 1: [Layer Name]
**Goal**:
**Entry Criteria**: Phase 0 complete
**Tasks**:
- [ ] [Task name] (depends on: [[tasks-from-phase-0]])
- [ ] [Task name] (depends on: [[tasks-from-phase-0]])
**Exit Criteria**:
**Delivers**:
---
[Continue with more phases...]
</implementation-roadmap>
---
<test-strategy>
<instruction>
Define how testing will be integrated throughout development (TDD approach).
Specify:
1. Test pyramid ratios (unit vs integration vs e2e)
2. Coverage requirements
3. Critical test scenarios
4. Test generation guidelines for Surgical Test Generator
This section guides the AI when generating tests during the RED phase of TDD.
<example type="good">
Critical Test Scenarios for Data Validation module:
- Happy path: Valid data passes all checks
- Edge cases: Empty strings, null values, boundary numbers
- Error cases: Invalid types, missing required fields
- Integration: Validator works with ingestion pipeline
</example>
</instruction>
## Test Pyramid
```
/\
/E2E\ ← [X]% (End-to-end, slow, comprehensive)
/------\
/Integration\ ← [Y]% (Module interactions)
/------------\
/ Unit Tests \ ← [Z]% (Fast, isolated, deterministic)
/----------------\
```
## Coverage Requirements
- Line coverage: [X]% minimum
- Branch coverage: [X]% minimum
- Function coverage: [X]% minimum
- Statement coverage: [X]% minimum
## Critical Test Scenarios
### [Module/Feature Name]
**Happy path**:
- [Scenario description]
- Expected: [What should happen]
**Edge cases**:
- [Scenario description]
- Expected: [What should happen]
**Error cases**:
- [Scenario description]
- Expected: [How system handles failure]
**Integration points**:
- [What interactions to test]
- Expected: [End-to-end behavior]
## Test Generation Guidelines
[Specific instructions for Surgical Test Generator about what to focus on, what patterns to follow, project-specific test conventions]
</test-strategy>
---
<architecture>
<instruction>
Describe technical architecture, data models, and key design decisions.
Keep this section AFTER functional/structural decomposition - implementation details come after understanding structure.
</instruction>
## System Components
[Major architectural pieces and their responsibilities]
## Data Models
[Core data structures, schemas, database design]
## Technology Stack
[Languages, frameworks, key libraries]
**Decision: [Technology/Pattern]**
- **Rationale**: [Why chosen]
- **Trade-offs**: [What we're giving up]
- **Alternatives considered**: [What else we looked at]
</architecture>
---
<risks>
<instruction>
Identify risks that could derail development and how to mitigate them.
Categories:
- Technical risks (complexity, unknowns)
- Dependency risks (blocking issues)
- Scope risks (creep, underestimation)
</instruction>
## Technical Risks
**Risk**: [Description]
- **Impact**: [High/Medium/Low - effect on project]
- **Likelihood**: [High/Medium/Low]
- **Mitigation**: [How to address]
- **Fallback**: [Plan B if mitigation fails]
## Dependency Risks
[External dependencies, blocking issues]
## Scope Risks
[Scope creep, underestimation, unclear requirements]
</risks>
---
<appendix>
## References
[Papers, documentation, similar systems]
## Glossary
[Domain-specific terms]
## Open Questions
[Things to resolve during development]
</appendix>
---
<task-master-integration>
# How Task Master Uses This PRD
When you run `task-master parse-prd <file>.txt`, the parser:
1. **Extracts capabilities** → Main tasks
- Each `### Capability:` becomes a top-level task
2. **Extracts features** → Subtasks
- Each `#### Feature:` becomes a subtask under its capability
3. **Parses dependencies** → Task dependencies
- `Depends on: [X, Y]` sets task.dependencies = ["X", "Y"]
4. **Orders by phases** → Task priorities
- Phase 0 tasks = highest priority
- Phase N tasks = lower priority, properly sequenced
5. **Uses test strategy** → Test generation context
- Feeds test scenarios to Surgical Test Generator during implementation
**Result**: A dependency-aware task graph that can be executed in topological order.
## Why RPG Structure Matters
Traditional flat PRDs lead to:
- ❌ Unclear task dependencies
- ❌ Arbitrary task ordering
- ❌ Circular dependencies discovered late
- ❌ Poorly scoped tasks
RPG-structured PRDs provide:
- ✅ Explicit dependency chains
- ✅ Topological execution order
- ✅ Clear module boundaries
- ✅ Validated task graph before implementation
## Tips for Best Results
1. **Spend time on dependency graph** - This is the most valuable section for Task Master
2. **Keep features atomic** - Each feature should be independently testable
3. **Progressive refinement** - Start broad, use `task-master expand` to break down complex tasks
4. **Use research mode** - `task-master parse-prd --research` leverages AI for better task generation
</task-master-integration>

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@@ -1,254 +1,5 @@
# task-master-ai
## 0.29.0
### Minor Changes
- [#1286](https://github.com/eyaltoledano/claude-task-master/pull/1286) [`f12a16d`](https://github.com/eyaltoledano/claude-task-master/commit/f12a16d09649f62148515f11f616157c7d0bd2d5) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Add changelog highlights to auto-update notifications
When the CLI auto-updates to a new version, it now displays a "What's New" section.
- [#1293](https://github.com/eyaltoledano/claude-task-master/pull/1293) [`3010b90`](https://github.com/eyaltoledano/claude-task-master/commit/3010b90d98f3a7d8636caa92fc33d6ee69d4bed0) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Add Claude Code plugin with marketplace distribution
This release introduces official Claude Code plugin support, marking the evolution from legacy `.claude` directory copying to a modern plugin-based architecture.
## 🎉 New: Claude Code Plugin
Task Master AI commands and agents are now distributed as a proper Claude Code plugin:
- **49 slash commands** with clean naming (`/taskmaster:command-name`)
- **3 specialized AI agents** (task-orchestrator, task-executor, task-checker)
- **MCP server integration** for deep Claude Code integration
**Installation:**
```bash
/plugin marketplace add eyaltoledano/claude-task-master
/plugin install taskmaster@taskmaster
```
### The `rules add claude` command no longer copies commands and agents to `.claude/commands/` and `.claude/agents/`. Instead, it now
- Shows plugin installation instructions
- Only manages CLAUDE.md imports for agent instructions
- Directs users to install the official plugin
**Migration for Existing Users:**
If you previously used `rules add claude`:
1. The old commands in `.claude/commands/` will continue to work but won't receive updates
2. Install the plugin for the latest features: `/plugin install taskmaster@taskmaster`
3. remove old `.claude/commands/` and `.claude/agents/` directories
**Why This Change?**
Claude Code plugins provide:
- ✅ Automatic updates when we release new features
- ✅ Better command organization and naming
- ✅ Seamless integration with Claude Code
- ✅ No manual file copying or management
The plugin system is the future of Task Master AI integration with Claude Code!
- [#1285](https://github.com/eyaltoledano/claude-task-master/pull/1285) [`2a910a4`](https://github.com/eyaltoledano/claude-task-master/commit/2a910a40bac375f9f61d797bf55597303d556b48) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Add RPG (Repository Planning Graph) method template for structured PRD creation. The new `example_prd_rpg.txt` template teaches AI agents and developers the RPG methodology through embedded instructions, inline good/bad examples, and XML-style tags for structure. This template enables creation of dependency-aware PRDs that automatically generate topologically-ordered task graphs when parsed with Task Master.
Key features:
- Method-as-template: teaches RPG principles (dual-semantics, explicit dependencies, topological order) while being used
- Inline instructions at decision points guide AI through each section
- Good/bad examples for immediate pattern matching
- Flexible plain-text format with XML-style tags for parseability
- Critical dependency-graph section ensures correct task ordering
- Automatic inclusion during `task-master init`
- Comprehensive documentation at [docs.task-master.dev/capabilities/rpg-method](https://docs.task-master.dev/capabilities/rpg-method)
- Tool recommendations for code-context-aware PRD creation (Claude Code, Cursor, Gemini CLI, Codex/Grok)
The RPG template complements the existing `example_prd.txt` and provides a more structured approach for complex projects requiring clear module boundaries and dependency chains.
- [#1287](https://github.com/eyaltoledano/claude-task-master/pull/1287) [`90e6bdc`](https://github.com/eyaltoledano/claude-task-master/commit/90e6bdcf1c59f65ad27fcdfe3b13b9dca7e77654) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Enhance `expand_all` to intelligently use complexity analysis recommendations when expanding tasks.
The expand-all operation now automatically leverages recommendations from `analyze-complexity` to determine optimal subtask counts for each task, resulting in more accurate and context-aware task breakdowns.
Key improvements:
- Automatic integration with complexity analysis reports
- Tag-aware complexity report path resolution
- Intelligent subtask count determination based on task complexity
- Falls back to defaults when complexity analysis is unavailable
- Enhanced logging for better visibility into expansion decisions
When you run `task-master expand --all` after `task-master analyze-complexity`, Task Master now uses the recommended subtask counts from the complexity analysis instead of applying uniform defaults, ensuring each task is broken down according to its actual complexity.
### Patch Changes
- [#1191](https://github.com/eyaltoledano/claude-task-master/pull/1191) [`aaf903f`](https://github.com/eyaltoledano/claude-task-master/commit/aaf903ff2f606c779a22e9a4b240ab57b3683815) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Fix cross-level task dependencies not being saved
Fixes an issue where adding dependencies between subtasks and top-level tasks (e.g., `task-master add-dependency --id=2.2 --depends-on=11`) would report success but fail to persist the changes. Dependencies can now be created in both directions between any task levels.
- [#1299](https://github.com/eyaltoledano/claude-task-master/pull/1299) [`4c1ef2c`](https://github.com/eyaltoledano/claude-task-master/commit/4c1ef2ca94411c53bcd2a78ec710b06c500236dd) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Improve refresh token when authenticating
## 0.29.0-rc.1
### Patch Changes
- [#1299](https://github.com/eyaltoledano/claude-task-master/pull/1299) [`a6c5152`](https://github.com/eyaltoledano/claude-task-master/commit/a6c5152f20edd8717cf1aea34e7c178b1261aa99) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Improve refresh token when authenticating
## 0.29.0-rc.0
### Minor Changes
- [#1286](https://github.com/eyaltoledano/claude-task-master/pull/1286) [`f12a16d`](https://github.com/eyaltoledano/claude-task-master/commit/f12a16d09649f62148515f11f616157c7d0bd2d5) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Add changelog highlights to auto-update notifications
When the CLI auto-updates to a new version, it now displays a "What's New" section.
- [#1293](https://github.com/eyaltoledano/claude-task-master/pull/1293) [`3010b90`](https://github.com/eyaltoledano/claude-task-master/commit/3010b90d98f3a7d8636caa92fc33d6ee69d4bed0) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Add Claude Code plugin with marketplace distribution
This release introduces official Claude Code plugin support, marking the evolution from legacy `.claude` directory copying to a modern plugin-based architecture.
## 🎉 New: Claude Code Plugin
Task Master AI commands and agents are now distributed as a proper Claude Code plugin:
- **49 slash commands** with clean naming (`/task-master-ai:command-name`)
- **3 specialized AI agents** (task-orchestrator, task-executor, task-checker)
- **MCP server integration** for deep Claude Code integration
**Installation:**
```bash
/plugin marketplace add eyaltoledano/claude-task-master
/plugin install taskmaster@taskmaster
```
### The `rules add claude` command no longer copies commands and agents to `.claude/commands/` and `.claude/agents/`. Instead, it now
- Shows plugin installation instructions
- Only manages CLAUDE.md imports for agent instructions
- Directs users to install the official plugin
**Migration for Existing Users:**
If you previously used `rules add claude`:
1. The old commands in `.claude/commands/` will continue to work but won't receive updates
2. Install the plugin for the latest features: `/plugin install taskmaster@taskmaster`
3. remove old `.claude/commands/` and `.claude/agents/` directories
**Why This Change?**
Claude Code plugins provide:
- ✅ Automatic updates when we release new features
- ✅ Better command organization and naming
- ✅ Seamless integration with Claude Code
- ✅ No manual file copying or management
The plugin system is the future of Task Master AI integration with Claude Code!
- [#1285](https://github.com/eyaltoledano/claude-task-master/pull/1285) [`2a910a4`](https://github.com/eyaltoledano/claude-task-master/commit/2a910a40bac375f9f61d797bf55597303d556b48) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Add RPG (Repository Planning Graph) method template for structured PRD creation. The new `example_prd_rpg.txt` template teaches AI agents and developers the RPG methodology through embedded instructions, inline good/bad examples, and XML-style tags for structure. This template enables creation of dependency-aware PRDs that automatically generate topologically-ordered task graphs when parsed with Task Master.
Key features:
- Method-as-template: teaches RPG principles (dual-semantics, explicit dependencies, topological order) while being used
- Inline instructions at decision points guide AI through each section
- Good/bad examples for immediate pattern matching
- Flexible plain-text format with XML-style tags for parseability
- Critical dependency-graph section ensures correct task ordering
- Automatic inclusion during `task-master init`
- Comprehensive documentation at [docs.task-master.dev/capabilities/rpg-method](https://docs.task-master.dev/capabilities/rpg-method)
- Tool recommendations for code-context-aware PRD creation (Claude Code, Cursor, Gemini CLI, Codex/Grok)
The RPG template complements the existing `example_prd.txt` and provides a more structured approach for complex projects requiring clear module boundaries and dependency chains.
- [#1287](https://github.com/eyaltoledano/claude-task-master/pull/1287) [`90e6bdc`](https://github.com/eyaltoledano/claude-task-master/commit/90e6bdcf1c59f65ad27fcdfe3b13b9dca7e77654) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Enhance `expand_all` to intelligently use complexity analysis recommendations when expanding tasks.
The expand-all operation now automatically leverages recommendations from `analyze-complexity` to determine optimal subtask counts for each task, resulting in more accurate and context-aware task breakdowns.
Key improvements:
- Automatic integration with complexity analysis reports
- Tag-aware complexity report path resolution
- Intelligent subtask count determination based on task complexity
- Falls back to defaults when complexity analysis is unavailable
- Enhanced logging for better visibility into expansion decisions
When you run `task-master expand --all` after `task-master analyze-complexity`, Task Master now uses the recommended subtask counts from the complexity analysis instead of applying uniform defaults, ensuring each task is broken down according to its actual complexity.
### Patch Changes
- [#1191](https://github.com/eyaltoledano/claude-task-master/pull/1191) [`aaf903f`](https://github.com/eyaltoledano/claude-task-master/commit/aaf903ff2f606c779a22e9a4b240ab57b3683815) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Fix cross-level task dependencies not being saved
Fixes an issue where adding dependencies between subtasks and top-level tasks (e.g., `task-master add-dependency --id=2.2 --depends-on=11`) would report success but fail to persist the changes. Dependencies can now be created in both directions between any task levels.
## 0.28.0
### Minor Changes
- [#1273](https://github.com/eyaltoledano/claude-task-master/pull/1273) [`b43b7ce`](https://github.com/eyaltoledano/claude-task-master/commit/b43b7ce201625eee956fb2f8cd332f238bb78c21) Thanks [@ben-vargas](https://github.com/ben-vargas)! - Add Codex CLI provider with OAuth authentication
- Added codex-cli provider for GPT-5 and GPT-5-Codex models (272K input / 128K output)
- OAuth-first authentication via `codex login` - no API key required
- Optional OPENAI_CODEX_API_KEY support
- Codebase analysis capabilities automatically enabled
- Command-specific settings and approval/sandbox modes
- [#1215](https://github.com/eyaltoledano/claude-task-master/pull/1215) [`0079b7d`](https://github.com/eyaltoledano/claude-task-master/commit/0079b7defdad550811f704c470fdd01955d91d4d) Thanks [@joedanz](https://github.com/joedanz)! - Add Cursor IDE custom slash command support
Expose Task Master commands as Cursor slash commands by copying assets/claude/commands to .cursor/commands on profile add and cleaning up on remove.
- [#1246](https://github.com/eyaltoledano/claude-task-master/pull/1246) [`18aa416`](https://github.com/eyaltoledano/claude-task-master/commit/18aa416035f44345bde1c7321490345733a5d042) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Added api keys page on docs website: docs.task-master.dev/getting-started/api-keys
- [#1246](https://github.com/eyaltoledano/claude-task-master/pull/1246) [`18aa416`](https://github.com/eyaltoledano/claude-task-master/commit/18aa416035f44345bde1c7321490345733a5d042) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Move to AI SDK v5:
- Works better with claude-code and gemini-cli as ai providers
- Improved openai model family compatibility
- Migrate ollama provider to v2
- Closes #1223, #1013, #1161, #1174
- [#1262](https://github.com/eyaltoledano/claude-task-master/pull/1262) [`738ec51`](https://github.com/eyaltoledano/claude-task-master/commit/738ec51c049a295a12839b2dfddaf05e23b8fede) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Migrate AI services to use generateObject for structured data generation
This update migrates all AI service calls from generateText to generateObject, ensuring more reliable and structured responses across all commands.
### Key Changes:
- **Unified AI Service**: Replaced separate generateText implementations with a single generateObjectService that handles structured data generation
- **JSON Mode Support**: Added proper JSON mode configuration for providers that support it (OpenAI, Anthropic, Google, Groq)
- **Schema Validation**: Integrated Zod schemas for all AI-generated content with automatic validation
- **Provider Compatibility**: Maintained compatibility with all existing providers while leveraging their native structured output capabilities
- **Improved Reliability**: Structured output generation reduces parsing errors and ensures consistent data formats
### Technical Improvements:
- Centralized provider configuration in `ai-providers-unified.js`
- Added `generateObject` support detection for each provider
- Implemented proper error handling for schema validation failures
- Maintained backward compatibility with existing prompt structures
### Bug Fixes:
- Fixed subtask ID numbering issue where AI was generating inconsistent IDs (101-105, 601-603) instead of sequential numbering (1, 2, 3...)
- Enhanced prompt instructions to enforce proper ID generation patterns
- Ensured subtasks display correctly as X.1, X.2, X.3 format
This migration improves the reliability and consistency of AI-generated content throughout the Task Master application.
- [#1112](https://github.com/eyaltoledano/claude-task-master/pull/1112) [`d67b81d`](https://github.com/eyaltoledano/claude-task-master/commit/d67b81d25ddd927fabb6f5deb368e8993519c541) Thanks [@olssonsten](https://github.com/olssonsten)! - Enhanced Roo Code profile with MCP timeout configuration for improved reliability during long-running AI operations. The Roo profile now automatically configures a 300-second timeout for MCP server operations, preventing timeouts during complex tasks like `parse-prd`, `expand-all`, `analyze-complexity`, and `research` operations. This change also replaces static MCP configuration files with programmatic generation for better maintainability.
**What's New:**
- 300-second timeout for MCP operations (up from default 60 seconds)
- Programmatic MCP configuration generation (replaces static asset files)
- Enhanced reliability for AI-powered operations
- Consistent with other AI coding assistant profiles
**Migration:** No user action required - existing Roo Code installations will automatically receive the enhanced MCP configuration on next initialization.
- [#1246](https://github.com/eyaltoledano/claude-task-master/pull/1246) [`986ac11`](https://github.com/eyaltoledano/claude-task-master/commit/986ac117aee00bcd3e6830a0f76e1ad6d10e0bca) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Upgrade grok-cli ai provider to ai sdk v5
### Patch Changes
- [#1235](https://github.com/eyaltoledano/claude-task-master/pull/1235) [`aaacc3d`](https://github.com/eyaltoledano/claude-task-master/commit/aaacc3dae36247b4de72b2d2697f49e5df6d01e3) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Improve `analyze-complexity` cli docs and `--research` flag documentation
- [#1251](https://github.com/eyaltoledano/claude-task-master/pull/1251) [`0b2c696`](https://github.com/eyaltoledano/claude-task-master/commit/0b2c6967c4605c33a100cff16f6ce8ff09ad06f0) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Change parent task back to "pending" when all subtasks are in "pending" state
- [#1274](https://github.com/eyaltoledano/claude-task-master/pull/1274) [`4f984f8`](https://github.com/eyaltoledano/claude-task-master/commit/4f984f8a6965da9f9c7edd60ddfd6560ac022917) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Do a quick fix on build
- [#1277](https://github.com/eyaltoledano/claude-task-master/pull/1277) [`7b5a7c4`](https://github.com/eyaltoledano/claude-task-master/commit/7b5a7c4495a68b782f7407fc5d0e0d3ae81f42f5) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Fix MCP connection errors caused by deprecated generateTaskFiles calls. Resolves "Cannot read properties of null (reading 'toString')" errors when using MCP tools for task management operations.
- [#1276](https://github.com/eyaltoledano/claude-task-master/pull/1276) [`caee040`](https://github.com/eyaltoledano/claude-task-master/commit/caee040907f856d31a660171c9e6d966f23c632e) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Fix MCP server error when file parameter not provided - now properly constructs default tasks.json path instead of failing with 'tasksJsonPath is required' error.
- [#1172](https://github.com/eyaltoledano/claude-task-master/pull/1172) [`b5fe723`](https://github.com/eyaltoledano/claude-task-master/commit/b5fe723f8ead928e9f2dbde13b833ee70ac3382d) Thanks [@jujax](https://github.com/jujax)! - Fix Claude Code settings validation for pathToClaudeCodeExecutable
- [#1192](https://github.com/eyaltoledano/claude-task-master/pull/1192) [`2b69936`](https://github.com/eyaltoledano/claude-task-master/commit/2b69936ee7b34346d6de5175af20e077359e2e2a) Thanks [@nukunga](https://github.com/nukunga)! - Fix sonar deep research model failing, should be called `sonar-deep-research`
- [#1270](https://github.com/eyaltoledano/claude-task-master/pull/1270) [`20004a3`](https://github.com/eyaltoledano/claude-task-master/commit/20004a39ea848f747e1ff48981bfe176554e4055) Thanks [@Crunchyman-ralph](https://github.com/Crunchyman-ralph)! - Fix complexity score not showing for `task-master show` and `task-master list`
- Added complexity score on "next task" when running `task-master list`
- Added colors to complexity to reflect complexity (easy, medium, hard)
## 0.28.0-rc.2
### Minor Changes

View File

@@ -1,140 +0,0 @@
# Taskmaster AI - Claude Code Marketplace
This repository includes a Claude Code plugin marketplace in `.claude-plugin/marketplace.json`.
## Installation
### From GitHub (Public Repository)
Once this repository is pushed to GitHub, users can install with:
```bash
# Add the marketplace
/plugin marketplace add eyaltoledano/claude-task-master
# Install the plugin
/plugin install taskmaster@taskmaster
```
### Local Development/Testing
```bash
# From the project root directory
cd /path/to/claude-task-master
# Build the plugin first
cd packages/claude-code-plugin
npm run build
cd ../..
# In Claude Code
/plugin marketplace add .
/plugin install taskmaster@taskmaster
```
## Marketplace Structure
```
claude-task-master/
├── .claude-plugin/
│ └── marketplace.json # Marketplace manifest (at repo root)
├── packages/claude-code-plugin/
│ ├── src/build.ts # Build tooling
│ └── [generated plugin files]
└── assets/claude/ # Plugin source files
├── commands/
└── agents/
```
## Available Plugins
### taskmaster
AI-powered task management system for ambitious development workflows.
**Features:**
- 49 slash commands for comprehensive task management
- 3 specialized AI agents (orchestrator, executor, checker)
- MCP server integration
- Complexity analysis and auto-expansion
- Dependency management and validation
- Automated workflow capabilities
**Quick Start:**
```bash
/tm:init
/tm:parse-prd
/tm:next
```
## For Contributors
### Adding New Plugins
To add more plugins to this marketplace:
1. **Update marketplace.json**:
```json
{
"plugins": [
{
"name": "new-plugin",
"source": "./path/to/plugin",
"description": "Plugin description",
"version": "1.0.0"
}
]
}
```
2. **Commit and push** the changes
3. **Users update** with: `/plugin marketplace update taskmaster`
### Marketplace Versioning
The marketplace version is tracked in `.claude-plugin/marketplace.json`:
```json
{
"metadata": {
"version": "1.0.0"
}
}
```
Increment the version when adding or updating plugins.
## Team Configuration
Organizations can auto-install this marketplace for all team members by adding to `.claude/settings.json`:
```json
{
"extraKnownMarketplaces": {
"task-master": {
"source": {
"source": "github",
"repo": "eyaltoledano/claude-task-master"
}
}
},
"enabledPlugins": {
"taskmaster": {
"marketplace": "taskmaster"
}
}
}
```
Team members who trust the repository folder will automatically get the marketplace and plugins installed.
## Documentation
- [Claude Code Plugin Docs](https://docs.claude.com/en/docs/claude-code/plugins)
- [Marketplace Documentation](https://docs.claude.com/en/docs/claude-code/plugin-marketplaces)

View File

@@ -310,12 +310,6 @@ cd claude-task-master
node scripts/init.js
```
## Join Our Team
<a href="https://tryhamster.com" target="_blank">
<img src="./images/hamster-hiring.png" alt="Join Hamster's founding team" />
</a>
## Contributors
<a href="https://github.com/eyaltoledano/claude-task-master/graphs/contributors">

View File

@@ -4,20 +4,6 @@
### Patch Changes
- Updated dependencies []:
- @tm/core@null
## null
### Patch Changes
- Updated dependencies []:
- @tm/core@null
## null
### Patch Changes
- Updated dependencies []:
- @tm/core@null

View File

@@ -48,6 +48,5 @@
"*": {
"*": ["src/*"]
}
},
"version": ""
}
}

View File

@@ -13,6 +13,7 @@ import { ContextCommand } from './commands/context.command.js';
import { StartCommand } from './commands/start.command.js';
import { SetStatusCommand } from './commands/set-status.command.js';
import { ExportCommand } from './commands/export.command.js';
import { AutopilotCommand } from './commands/autopilot.command.js';
/**
* Command metadata for registration
@@ -63,6 +64,12 @@ export class CommandRegistry {
commandClass: ExportCommand as any,
category: 'task'
},
{
name: 'autopilot',
description: 'Execute a task autonomously using TDD workflow',
commandClass: AutopilotCommand as any,
category: 'development'
},
// Authentication & Context Commands
{

View File

@@ -143,7 +143,7 @@ export class AuthCommand extends Command {
*/
private async executeStatus(): Promise<void> {
try {
const result = await this.displayStatus();
const result = this.displayStatus();
this.setLastResult(result);
} catch (error: any) {
this.handleError(error);
@@ -171,8 +171,8 @@ export class AuthCommand extends Command {
/**
* Display authentication status
*/
private async displayStatus(): Promise<AuthResult> {
const credentials = await this.authManager.getCredentials();
private displayStatus(): AuthResult {
const credentials = this.authManager.getCredentials();
console.log(chalk.cyan('\n🔐 Authentication Status\n'));
@@ -187,29 +187,19 @@ export class AuthCommand extends Command {
if (credentials.expiresAt) {
const expiresAt = new Date(credentials.expiresAt);
const now = new Date();
const timeRemaining = expiresAt.getTime() - now.getTime();
const hoursRemaining = Math.floor(timeRemaining / (1000 * 60 * 60));
const minutesRemaining = Math.floor(timeRemaining / (1000 * 60));
const hoursRemaining = Math.floor(
(expiresAt.getTime() - now.getTime()) / (1000 * 60 * 60)
);
if (timeRemaining > 0) {
// Token is still valid
if (hoursRemaining > 0) {
console.log(
chalk.gray(
` Expires at: ${expiresAt.toLocaleString()} (${hoursRemaining} hours remaining)`
)
);
} else {
console.log(
chalk.gray(
` Expires at: ${expiresAt.toLocaleString()} (${minutesRemaining} minutes remaining)`
)
);
}
} else {
// Token has expired
if (hoursRemaining > 0) {
console.log(
chalk.yellow(` Expired at: ${expiresAt.toLocaleString()}`)
chalk.gray(
` Expires: ${expiresAt.toLocaleString()} (${hoursRemaining} hours remaining)`
)
);
} else {
console.log(
chalk.yellow(` Token expired at: ${expiresAt.toLocaleString()}`)
);
}
} else {
@@ -325,7 +315,7 @@ export class AuthCommand extends Command {
]);
if (!continueAuth) {
const credentials = await this.authManager.getCredentials();
const credentials = this.authManager.getCredentials();
ui.displaySuccess('Using existing authentication');
if (credentials) {
@@ -490,7 +480,7 @@ export class AuthCommand extends Command {
/**
* Get current credentials (for programmatic usage)
*/
getCredentials(): Promise<AuthCredentials | null> {
getCredentials(): AuthCredentials | null {
return this.authManager.getCredentials();
}

View File

@@ -0,0 +1,515 @@
/**
* @fileoverview AutopilotCommand using Commander's native class pattern
* Extends Commander.Command for better integration with the framework
* This is a thin presentation layer over @tm/core's autopilot functionality
*/
import { Command } from 'commander';
import chalk from 'chalk';
import boxen from 'boxen';
import ora, { type Ora } from 'ora';
import {
createTaskMasterCore,
type TaskMasterCore,
type Task,
type Subtask
} from '@tm/core';
import * as ui from '../utils/ui.js';
/**
* CLI-specific options interface for the autopilot command
*/
export interface AutopilotCommandOptions {
format?: 'text' | 'json';
project?: string;
dryRun?: boolean;
}
/**
* Preflight check result for a single check
*/
export interface PreflightCheckResult {
success: boolean;
message?: string;
}
/**
* Overall preflight check results
*/
export interface PreflightResult {
success: boolean;
testCommand: PreflightCheckResult;
gitWorkingTree: PreflightCheckResult;
requiredTools: PreflightCheckResult;
defaultBranch: PreflightCheckResult;
}
/**
* CLI-specific result type from autopilot command
*/
export interface AutopilotCommandResult {
success: boolean;
taskId: string;
task?: Task;
error?: string;
message?: string;
}
/**
* AutopilotCommand extending Commander's Command class
* This is a thin presentation layer over @tm/core's autopilot functionality
*/
export class AutopilotCommand extends Command {
private tmCore?: TaskMasterCore;
private lastResult?: AutopilotCommandResult;
constructor(name?: string) {
super(name || 'autopilot');
// Configure the command
this.description(
'Execute a task autonomously using TDD workflow with git integration'
)
.argument('<taskId>', 'Task ID to execute autonomously')
.option('-f, --format <format>', 'Output format (text, json)', 'text')
.option('-p, --project <path>', 'Project root directory', process.cwd())
.option(
'--dry-run',
'Show what would be executed without performing actions'
)
.action(async (taskId: string, options: AutopilotCommandOptions) => {
await this.executeCommand(taskId, options);
});
}
/**
* Execute the autopilot command
*/
private async executeCommand(
taskId: string,
options: AutopilotCommandOptions
): Promise<void> {
let spinner: Ora | null = null;
try {
// Validate options
if (!this.validateOptions(options)) {
process.exit(1);
}
// Validate task ID format
if (!this.validateTaskId(taskId)) {
ui.displayError(`Invalid task ID format: ${taskId}`);
process.exit(1);
}
// Initialize tm-core with spinner
spinner = ora('Initializing Task Master...').start();
await this.initializeCore(options.project || process.cwd());
spinner.succeed('Task Master initialized');
// Load and validate task existence
spinner = ora(`Loading task ${taskId}...`).start();
const task = await this.loadTask(taskId);
if (!task) {
spinner.fail(`Task ${taskId} not found`);
ui.displayError(`Task with ID ${taskId} does not exist`);
process.exit(1);
}
spinner.succeed(`Task ${taskId} loaded`);
// Display task information
this.displayTaskInfo(task, options.dryRun || false);
// Execute autopilot logic (placeholder for now)
const result = await this.performAutopilot(taskId, task, options);
// Store result for programmatic access
this.setLastResult(result);
// Display results
this.displayResults(result, options);
} catch (error: unknown) {
if (spinner) {
spinner.fail('Operation failed');
}
this.handleError(error);
process.exit(1);
}
}
/**
* Validate command options
*/
private validateOptions(options: AutopilotCommandOptions): boolean {
// Validate format
if (options.format && !['text', 'json'].includes(options.format)) {
console.error(chalk.red(`Invalid format: ${options.format}`));
console.error(chalk.gray(`Valid formats: text, json`));
return false;
}
return true;
}
/**
* Validate task ID format
*/
private validateTaskId(taskId: string): boolean {
// Task ID should be a number or number.number format (e.g., "1" or "1.2")
const taskIdPattern = /^\d+(\.\d+)*$/;
return taskIdPattern.test(taskId);
}
/**
* Initialize TaskMasterCore
*/
private async initializeCore(projectRoot: string): Promise<void> {
if (!this.tmCore) {
this.tmCore = await createTaskMasterCore({ projectPath: projectRoot });
}
}
/**
* Load task from tm-core
*/
private async loadTask(taskId: string): Promise<Task | null> {
if (!this.tmCore) {
throw new Error('TaskMasterCore not initialized');
}
try {
const { task } = await this.tmCore.getTaskWithSubtask(taskId);
return task;
} catch (error) {
return null;
}
}
/**
* Display task information before execution
*/
private displayTaskInfo(task: Task, isDryRun: boolean): void {
const prefix = isDryRun ? '[DRY RUN] ' : '';
console.log();
console.log(
boxen(
chalk.cyan.bold(`${prefix}Autopilot Task Execution`) +
'\n\n' +
chalk.white(`Task ID: ${task.id}`) +
'\n' +
chalk.white(`Title: ${task.title}`) +
'\n' +
chalk.white(`Status: ${task.status}`) +
(task.description ? '\n\n' + chalk.gray(task.description) : ''),
{
padding: 1,
borderStyle: 'round',
borderColor: 'cyan',
width: process.stdout.columns ? process.stdout.columns * 0.95 : 100
}
)
);
console.log();
}
/**
* Perform autopilot execution using PreflightChecker and TaskLoader
*/
private async performAutopilot(
taskId: string,
task: Task,
options: AutopilotCommandOptions
): Promise<AutopilotCommandResult> {
// Run preflight checks
const preflightResult = await this.runPreflightChecks(options);
if (!preflightResult.success) {
return {
success: false,
taskId,
task,
error: 'Preflight checks failed',
message: 'Please resolve the issues above before running autopilot'
};
}
// Validate task structure and get execution order
const validationResult = await this.validateTaskStructure(
taskId,
task,
options
);
if (!validationResult.success) {
return validationResult;
}
// Display execution plan
this.displayExecutionPlan(
validationResult.task!,
validationResult.orderedSubtasks!,
options
);
return {
success: true,
taskId,
task: validationResult.task,
message: options.dryRun
? 'Dry run completed successfully'
: 'Autopilot execution ready (actual execution not yet implemented)'
};
}
/**
* Run preflight checks and display results
*/
private async runPreflightChecks(
options: AutopilotCommandOptions
): Promise<PreflightResult> {
const { PreflightChecker } = await import('@tm/core');
console.log();
console.log(chalk.cyan.bold('Running preflight checks...'));
const preflightChecker = new PreflightChecker(
options.project || process.cwd()
);
const result = await preflightChecker.runAllChecks();
this.displayPreflightResults(result);
return result;
}
/**
* Validate task structure and get execution order
*/
private async validateTaskStructure(
taskId: string,
task: Task,
options: AutopilotCommandOptions
): Promise<AutopilotCommandResult & { orderedSubtasks?: Subtask[] }> {
const { TaskLoaderService } = await import('@tm/core');
console.log();
console.log(chalk.cyan.bold('Validating task structure...'));
const taskLoader = new TaskLoaderService(options.project || process.cwd());
const validationResult = await taskLoader.loadAndValidateTask(taskId);
if (!validationResult.success) {
await taskLoader.cleanup();
return {
success: false,
taskId,
task,
error: validationResult.errorMessage,
message: validationResult.suggestion
};
}
const orderedSubtasks = taskLoader.getExecutionOrder(
validationResult.task!
);
await taskLoader.cleanup();
return {
success: true,
taskId,
task: validationResult.task,
orderedSubtasks
};
}
/**
* Display execution plan with subtasks and TDD workflow
*/
private displayExecutionPlan(
task: Task,
orderedSubtasks: Subtask[],
options: AutopilotCommandOptions
): void {
console.log();
console.log(chalk.green.bold('✓ All checks passed!'));
console.log();
console.log(chalk.cyan.bold('Execution Plan:'));
console.log(chalk.white(`Task: ${task.title}`));
console.log(
chalk.gray(
`${orderedSubtasks.length} subtasks will be executed in dependency order`
)
);
console.log();
// Display subtasks
orderedSubtasks.forEach((subtask: Subtask, index: number) => {
console.log(
chalk.yellow(`${index + 1}. ${task.id}.${subtask.id}: ${subtask.title}`)
);
if (subtask.dependencies && subtask.dependencies.length > 0) {
console.log(
chalk.gray(` Dependencies: ${subtask.dependencies.join(', ')}`)
);
}
});
console.log();
console.log(
chalk.cyan('Autopilot would execute each subtask using TDD workflow:')
);
console.log(chalk.gray(' 1. RED phase: Write failing test'));
console.log(chalk.gray(' 2. GREEN phase: Implement code to pass test'));
console.log(chalk.gray(' 3. COMMIT phase: Commit changes'));
console.log();
if (options.dryRun) {
console.log(
chalk.yellow('This was a dry run. Use without --dry-run to execute.')
);
}
}
/**
* Display preflight check results
*/
private displayPreflightResults(result: PreflightResult): void {
const checks = [
{ name: 'Test command', result: result.testCommand },
{ name: 'Git working tree', result: result.gitWorkingTree },
{ name: 'Required tools', result: result.requiredTools },
{ name: 'Default branch', result: result.defaultBranch }
];
checks.forEach((check) => {
const icon = check.result.success ? chalk.green('✓') : chalk.red('✗');
const status = check.result.success
? chalk.green('PASS')
: chalk.red('FAIL');
console.log(`${icon} ${chalk.white(check.name)}: ${status}`);
if (check.result.message) {
console.log(chalk.gray(` ${check.result.message}`));
}
});
}
/**
* Display results based on format
*/
private displayResults(
result: AutopilotCommandResult,
options: AutopilotCommandOptions
): void {
const format = options.format || 'text';
switch (format) {
case 'json':
this.displayJson(result);
break;
case 'text':
default:
this.displayTextResult(result);
break;
}
}
/**
* Display in JSON format
*/
private displayJson(result: AutopilotCommandResult): void {
console.log(JSON.stringify(result, null, 2));
}
/**
* Display result in text format
*/
private displayTextResult(result: AutopilotCommandResult): void {
if (result.success) {
console.log(
boxen(
chalk.green.bold('✓ Autopilot Command Completed') +
'\n\n' +
chalk.white(result.message || 'Execution complete'),
{
padding: 1,
borderStyle: 'round',
borderColor: 'green',
margin: { top: 1 }
}
)
);
} else {
console.log(
boxen(
chalk.red.bold('✗ Autopilot Command Failed') +
'\n\n' +
chalk.white(result.error || 'Unknown error'),
{
padding: 1,
borderStyle: 'round',
borderColor: 'red',
margin: { top: 1 }
}
)
);
}
}
/**
* Handle general errors
*/
private handleError(error: unknown): void {
const errorObj = error as {
getSanitizedDetails?: () => { message: string };
message?: string;
stack?: string;
};
const msg = errorObj?.getSanitizedDetails?.() ?? {
message: errorObj?.message ?? String(error)
};
console.error(chalk.red(`Error: ${msg.message || 'Unexpected error'}`));
// Show stack trace in development mode or when DEBUG is set
const isDevelopment = process.env.NODE_ENV !== 'production';
if ((isDevelopment || process.env.DEBUG) && errorObj.stack) {
console.error(chalk.gray(errorObj.stack));
}
}
/**
* Set the last result for programmatic access
*/
private setLastResult(result: AutopilotCommandResult): void {
this.lastResult = result;
}
/**
* Get the last result (for programmatic usage)
*/
getLastResult(): AutopilotCommandResult | undefined {
return this.lastResult;
}
/**
* Clean up resources
*/
async cleanup(): Promise<void> {
if (this.tmCore) {
await this.tmCore.close();
this.tmCore = undefined;
}
}
/**
* Register this command on an existing program
*/
static register(program: Command, name?: string): AutopilotCommand {
const autopilotCommand = new AutopilotCommand(name);
program.addCommand(autopilotCommand);
return autopilotCommand;
}
}

View File

@@ -115,7 +115,7 @@ export class ContextCommand extends Command {
*/
private async executeShow(): Promise<void> {
try {
const result = await this.displayContext();
const result = this.displayContext();
this.setLastResult(result);
} catch (error: any) {
this.handleError(error);
@@ -126,7 +126,7 @@ export class ContextCommand extends Command {
/**
* Display current context
*/
private async displayContext(): Promise<ContextResult> {
private displayContext(): ContextResult {
// Check authentication first
if (!this.authManager.isAuthenticated()) {
console.log(chalk.yellow('✗ Not authenticated'));
@@ -139,7 +139,7 @@ export class ContextCommand extends Command {
};
}
const context = await this.authManager.getContext();
const context = this.authManager.getContext();
console.log(chalk.cyan('\n🌍 Workspace Context\n'));
@@ -263,7 +263,7 @@ export class ContextCommand extends Command {
return {
success: true,
action: 'select-org',
context: (await this.authManager.getContext()) || undefined,
context: this.authManager.getContext() || undefined,
message: `Selected organization: ${selectedOrg.name}`
};
} catch (error) {
@@ -284,7 +284,7 @@ export class ContextCommand extends Command {
}
// Check if org is selected
const context = await this.authManager.getContext();
const context = this.authManager.getContext();
if (!context?.orgId) {
ui.displayError(
'No organization selected. Run "tm context org" first.'
@@ -353,7 +353,7 @@ export class ContextCommand extends Command {
return {
success: true,
action: 'select-brief',
context: (await this.authManager.getContext()) || undefined,
context: this.authManager.getContext() || undefined,
message: `Selected brief: ${selectedBrief.name}`
};
} else {
@@ -368,7 +368,7 @@ export class ContextCommand extends Command {
return {
success: true,
action: 'select-brief',
context: (await this.authManager.getContext()) || undefined,
context: this.authManager.getContext() || undefined,
message: 'Cleared brief selection'
};
}
@@ -508,7 +508,7 @@ export class ContextCommand extends Command {
this.setLastResult({
success: true,
action: 'set',
context: (await this.authManager.getContext()) || undefined,
context: this.authManager.getContext() || undefined,
message: 'Context set from brief'
});
} catch (error: any) {
@@ -631,7 +631,7 @@ export class ContextCommand extends Command {
return {
success: true,
action: 'set',
context: (await this.authManager.getContext()) || undefined,
context: this.authManager.getContext() || undefined,
message: 'Context updated'
};
} catch (error) {
@@ -682,7 +682,7 @@ export class ContextCommand extends Command {
/**
* Get current context (for programmatic usage)
*/
getContext(): Promise<UserContext | null> {
getContext(): UserContext | null {
return this.authManager.getContext();
}

View File

@@ -103,7 +103,7 @@ export class ExportCommand extends Command {
await this.initializeServices();
// Get current context
const context = await this.authManager.getContext();
const context = this.authManager.getContext();
// Determine org and brief IDs
let orgId = options?.org || context?.orgId;

View File

@@ -11,6 +11,7 @@ export { ContextCommand } from './commands/context.command.js';
export { StartCommand } from './commands/start.command.js';
export { SetStatusCommand } from './commands/set-status.command.js';
export { ExportCommand } from './commands/export.command.js';
export { AutopilotCommand } from './commands/autopilot.command.js';
// Command Registry
export {

View File

@@ -12,7 +12,6 @@ export interface UpdateInfo {
currentVersion: string;
latestVersion: string;
needsUpdate: boolean;
highlights?: string[];
}
/**
@@ -60,116 +59,6 @@ export function compareVersions(v1: string, v2: string): number {
return a.pre < b.pre ? -1 : 1; // basic prerelease tie-break
}
/**
* Fetch CHANGELOG.md from GitHub and extract highlights for a specific version
*/
async function fetchChangelogHighlights(version: string): Promise<string[]> {
return new Promise((resolve) => {
const options = {
hostname: 'raw.githubusercontent.com',
path: '/eyaltoledano/claude-task-master/main/CHANGELOG.md',
method: 'GET',
headers: {
'User-Agent': `task-master-ai/${version}`
}
};
const req = https.request(options, (res) => {
let data = '';
res.on('data', (chunk) => {
data += chunk;
});
res.on('end', () => {
try {
if (res.statusCode !== 200) {
resolve([]);
return;
}
const highlights = parseChangelogHighlights(data, version);
resolve(highlights);
} catch (error) {
resolve([]);
}
});
});
req.on('error', () => {
resolve([]);
});
req.setTimeout(3000, () => {
req.destroy();
resolve([]);
});
req.end();
});
}
/**
* Parse changelog markdown to extract Minor Changes for a specific version
* @internal - Exported for testing purposes only
*/
export function parseChangelogHighlights(
changelog: string,
version: string
): string[] {
try {
// Validate version format (basic semver pattern) to prevent ReDoS
if (!/^\d+\.\d+\.\d+(-[a-zA-Z0-9.-]+)?$/.test(version)) {
return [];
}
// Find the version section
const versionRegex = new RegExp(
`## ${version.replace(/\./g, '\\.')}\\s*\\n`,
'i'
);
const versionMatch = changelog.match(versionRegex);
if (!versionMatch) {
return [];
}
// Extract content from this version to the next version heading
const startIdx = versionMatch.index! + versionMatch[0].length;
const nextVersionIdx = changelog.indexOf('\n## ', startIdx);
const versionContent =
nextVersionIdx > 0
? changelog.slice(startIdx, nextVersionIdx)
: changelog.slice(startIdx);
// Find Minor Changes section
const minorChangesMatch = versionContent.match(
/### Minor Changes\s*\n([\s\S]*?)(?=\n###|\n##|$)/i
);
if (!minorChangesMatch) {
return [];
}
const minorChangesContent = minorChangesMatch[1];
const highlights: string[] = [];
// Extract all bullet points (lines starting with -)
// Format: - [#PR](...) Thanks [@author]! - Description
const bulletRegex = /^-\s+\[#\d+\][^\n]*?!\s+-\s+(.+?)$/gm;
let match;
while ((match = bulletRegex.exec(minorChangesContent)) !== null) {
const desc = match[1].trim();
highlights.push(desc);
}
return highlights;
} catch (error) {
return [];
}
}
/**
* Check for newer version of task-master-ai
*/
@@ -196,7 +85,7 @@ export async function checkForUpdate(
data += chunk;
});
res.on('end', async () => {
res.on('end', () => {
try {
if (res.statusCode !== 200)
throw new Error(`npm registry status ${res.statusCode}`);
@@ -206,17 +95,10 @@ export async function checkForUpdate(
const needsUpdate =
compareVersions(currentVersion, latestVersion) < 0;
// Fetch highlights if update is needed
let highlights: string[] | undefined;
if (needsUpdate) {
highlights = await fetchChangelogHighlights(latestVersion);
}
resolve({
currentVersion,
latestVersion,
needsUpdate,
highlights
needsUpdate
});
} catch (error) {
resolve({
@@ -254,29 +136,18 @@ export async function checkForUpdate(
*/
export function displayUpgradeNotification(
currentVersion: string,
latestVersion: string,
highlights?: string[]
latestVersion: string
) {
let content = `${chalk.blue.bold('Update Available!')} ${chalk.dim(currentVersion)}${chalk.green(latestVersion)}`;
if (highlights && highlights.length > 0) {
content += '\n\n' + chalk.bold("What's New:");
for (const highlight of highlights) {
content += '\n' + chalk.cyan('• ') + highlight;
const message = boxen(
`${chalk.blue.bold('Update Available!')} ${chalk.dim(currentVersion)}${chalk.green(latestVersion)}\n\n` +
`Auto-updating to the latest version with new features and bug fixes...`,
{
padding: 1,
margin: { top: 1, bottom: 1 },
borderColor: 'yellow',
borderStyle: 'round'
}
content += '\n\n' + 'Auto-updating to the latest version...';
} else {
content +=
'\n\n' +
'Auto-updating to the latest version with new features and bug fixes...';
}
const message = boxen(content, {
padding: 1,
margin: { top: 1, bottom: 1 },
borderColor: 'yellow',
borderStyle: 'round'
});
);
console.log(message);
}

View File

@@ -1,9 +1,5 @@
# docs
## 0.0.6
## 0.0.5
## 0.0.4
## 0.0.3

View File

@@ -1,326 +0,0 @@
---
title: RPG Method for PRD Creation
sidebarTitle: "RPG Method"
---
# Repository Planning Graph (RPG) Method
The RPG (Repository Planning Graph) method is an advanced approach to creating Product Requirements Documents that generate highly-structured, dependency-aware task graphs. It's based on Microsoft Research's methodology for scalable codebase generation.
## When to Use RPG
Use the RPG template (`example_prd_rpg.txt`) for:
- **Complex multi-module systems** with intricate dependencies
- **Large-scale codebases** being built from scratch
- **Projects requiring explicit architecture** and clear module boundaries
- **Teams needing dependency visibility** for parallel development
For simpler features or smaller projects, the standard `example_prd.txt` template may be more appropriate.
---
## Core Principles
### 1. Dual-Semantics
Separate **functional** thinking (WHAT) from **structural** thinking (HOW):
```
Functional: "Data Validation capability with schema checking and rule enforcement"
Structural: "src/validation/ with schema-validator.js and rule-validator.js"
```
This separation prevents mixing concerns and creates clearer module boundaries.
### 2. Explicit Dependencies
Never assume dependencies - always state them explicitly:
```
Good:
Module: data-ingestion
Depends on: [schema-validator, config-manager]
Bad:
Module: data-ingestion
(Assumes schema-validator exists somewhere)
```
Explicit dependencies enable:
- Topological ordering of implementation
- Parallel development of independent modules
- Clear build/test order
- Early detection of circular dependencies
### 3. Topological Order
Build foundation layers before higher layers:
```
Phase 0 (Foundation): error-handling, base-types, config
Phase 1 (Data): validation, ingestion (depend on Phase 0)
Phase 2 (Core): algorithms, pipelines (depend on Phase 1)
Phase 3 (API): routes, handlers (depend on Phase 2)
```
Task Master automatically orders tasks based on this dependency chain.
### 4. Progressive Refinement
Start broad, refine iteratively:
1. High-level capabilities → Main tasks
2. Features per capability → Subtasks
3. Implementation details → Expanded subtasks
---
## Template Structure
The RPG template guides you through 7 key sections:
### 1. Overview
- Problem statement
- Target users
- Success metrics
### 2. Functional Decomposition (WHAT)
- High-level capability domains
- Features per capability
- Inputs/outputs/behavior for each feature
**Example:**
```
Capability: Data Management
Feature: Schema validation
Description: Validate JSON against defined schemas
Inputs: JSON object, schema definition
Outputs: Validation result + error details
Behavior: Iterate fields, check types, enforce constraints
```
### 3. Structural Decomposition (HOW)
- Repository folder structure
- Module-to-capability mapping
- File organization
- Public interfaces/exports
**Example:**
```
Capability: Data Management
→ Maps to: src/data/
├── schema-validator.js (Schema validation feature)
├── rule-validator.js (Rule validation feature)
└── index.js (Exports)
```
### 4. Dependency Graph (CRITICAL)
- Foundation layer (no dependencies)
- Each subsequent layer's dependencies
- Explicit "depends on" declarations
**Example:**
```
Foundation Layer (Phase 0):
- error-handling: No dependencies
- base-types: No dependencies
Data Layer (Phase 1):
- schema-validator: Depends on [base-types, error-handling]
- data-ingestion: Depends on [schema-validator]
```
### 5. Implementation Roadmap
- Phases with entry/exit criteria
- Tasks grouped by phase
- Clear deliverables per phase
### 6. Test Strategy
- Test pyramid ratios
- Coverage requirements
- Critical test scenarios per module
- Guidelines for test generation
### 7. Architecture & Risks
- Technical architecture
- Data models
- Technology decisions
- Risk mitigation strategies
---
## Using RPG with Task Master
### Step 1: Create PRD with RPG Template
Use a code-context-aware tool to fill out the template:
```bash
# In Claude Code, Cursor, or similar
"Create a PRD using @.taskmaster/templates/example_prd_rpg.txt for [your project]"
```
**Why code context matters:** The AI needs to understand your existing codebase to make informed decisions about:
- Module boundaries
- Dependency relationships
- Integration points
- Naming conventions
**Recommended tools:**
- Claude Code (claude-code CLI)
- Cursor/Windsurf
- Gemini CLI (large contexts)
- Codex/Grok CLI
### Step 2: Parse PRD into Tasks
```bash
task-master parse-prd .taskmaster/docs/your-prd.txt --research
```
Task Master will:
1. Extract capabilities → Main tasks
2. Extract features → Subtasks
3. Parse dependencies → Task dependencies
4. Order by phases → Task priorities
**Result:** A dependency-aware task graph ready for topological execution.
### Step 3: Analyze Complexity
```bash
task-master analyze-complexity --research
```
Review the complexity report to identify tasks that need expansion.
### Step 4: Expand Tasks
```bash
task-master expand --all --research
```
Break down complex tasks into manageable subtasks while preserving dependency chains.
---
## RPG Benefits
### For Solo Developers
- Clear roadmap for implementing complex features
- Prevents architectural mistakes early
- Explicit dependency tracking avoids integration issues
- Enables resuming work after interruptions
### For Teams
- Parallel development of independent modules
- Clear contracts between modules (explicit dependencies)
- Reduced merge conflicts (proper module boundaries)
- Onboarding aid (architectural overview in PRD)
### For AI Agents
- Structured context for code generation
- Clear scope boundaries per task
- Dependency awareness prevents incomplete implementations
- Test strategy guidance for TDD workflows
---
## RPG vs Standard Template
| Aspect | Standard Template | RPG Template |
|--------|------------------|--------------|
| **Best for** | Simple features | Complex systems |
| **Dependency handling** | Implicit | Explicit graph |
| **Structure guidance** | Minimal | Step-by-step |
| **Examples** | Few | Inline good/bad examples |
| **Module boundaries** | Vague | Precise mapping |
| **Task ordering** | Manual | Automatic (topological) |
| **Learning curve** | Low | Medium |
| **Resulting task quality** | Good | Excellent |
---
## Tips for Best Results
### 1. Spend Time on Dependencies
The dependency graph section is the most valuable. List all dependencies explicitly, even if they seem obvious.
### 2. Keep Features Atomic
Each feature should be independently testable. If a feature description is vague ("handle data"), break it into specific features.
### 3. Progressive Refinement
Don't try to get everything perfect on the first pass:
1. Fill out high-level sections
2. Review and refine
3. Add detail where needed
4. Let `task-master expand` break down complex tasks further
### 4. Use Research Mode
```bash
task-master parse-prd --research
```
The `--research` flag leverages AI to enhance task generation with domain knowledge.
### 5. Validate Early
```bash
task-master validate-dependencies
```
Check for circular dependencies or orphaned modules before starting implementation.
---
## Common Pitfalls
### ❌ Mixing Functional and Structural
```
Bad: "Capability: validation.js"
Good: "Capability: Data Validation" → maps to "src/validation/"
```
### ❌ Vague Module Boundaries
```
Bad: "Module: utils"
Good: "Module: string-utilities" with clear exports
```
### ❌ Implicit Dependencies
```
Bad: "Module: API handlers (needs validation)"
Good: "Module: API handlers, Depends on: [validation, error-handling]"
```
### ❌ Skipping Test Strategy
Without test strategy, the AI won't know what to test during implementation.
---
## Example Workflow
1. **Discuss idea with AI**: Explain your project concept
2. **Reference RPG template**: Show AI the `example_prd_rpg.txt`
3. **Co-create PRD**: Work through each section with AI guidance
4. **Save to docs**: Place in `.taskmaster/docs/your-project.txt`
5. **Parse PRD**: `task-master parse-prd .taskmaster/docs/your-project.txt --research`
6. **Analyze**: `task-master analyze-complexity --research`
7. **Expand**: `task-master expand --all --research`
8. **Start work**: `task-master next`
---
## Further Reading
- [PRD Creation and Parsing Guide](/getting-started/quick-start/prd-quick)
- [Task Structure Documentation](/capabilities/task-structure)
- [Microsoft Research RPG Paper](https://arxiv.org/abs/2410.21376) (Original methodology)
---
<Tip>
The RPG template includes inline `<instruction>` and `<example>` blocks that teach the method as you use it. Read these sections carefully - they provide valuable guidance at each decision point.
</Tip>

View File

@@ -32,11 +32,7 @@ The more context you give the model, the better the breakdown and results.
## Writing a PRD for Task Master
<Note>
Two example PRD templates are available in `.taskmaster/templates/`:
- `example_prd.txt` - Simple template for straightforward projects
- `example_prd_rpg.txt` - Advanced RPG (Repository Planning Graph) template for complex projects with dependencies
</Note>
<Note>An example PRD can be found in .taskmaster/templates/example_prd.txt</Note>
You can co-write your PRD with an LLM model using the following workflow:
@@ -47,29 +43,6 @@ You can co-write your PRD with an LLM model using the following workflow:
This approach works great in Cursor, or anywhere you use a chat-based LLM.
### Choosing Between Templates
**Use `example_prd.txt` when:**
- Building straightforward features
- Working on smaller projects
- Dependencies are simple and obvious
**Use `example_prd_rpg.txt` when:**
- Building complex systems with multiple modules
- Need explicit dependency management
- Want structured guidance on architecture decisions
- Planning a large codebase from scratch
The RPG template teaches you to think about:
1. **Functional decomposition** (WHAT the system does)
2. **Structural decomposition** (HOW it's organized in code)
3. **Explicit dependencies** (WHAT depends on WHAT)
4. **Topological ordering** (build foundation first, then layers)
<Tip>
For complex projects, using the RPG template with a code-context-aware ai agent produces the best results because the AI can understand your existing codebase structure. [Learn more about the RPG method →](/capabilities/rpg-method)
</Tip>
---
## Where to Save Your PRD

View File

@@ -1,6 +1,6 @@
{
"name": "docs",
"version": "0.0.6",
"version": "0.0.4",
"private": true,
"description": "Task Master documentation powered by Mintlify",
"scripts": {

View File

@@ -1,21 +1,5 @@
# Change Log
## 0.25.6
## 0.25.6-rc.0
### Patch Changes
- Updated dependencies [[`f12a16d`](https://github.com/eyaltoledano/claude-task-master/commit/f12a16d09649f62148515f11f616157c7d0bd2d5), [`3010b90`](https://github.com/eyaltoledano/claude-task-master/commit/3010b90d98f3a7d8636caa92fc33d6ee69d4bed0), [`2a910a4`](https://github.com/eyaltoledano/claude-task-master/commit/2a910a40bac375f9f61d797bf55597303d556b48), [`aaf903f`](https://github.com/eyaltoledano/claude-task-master/commit/aaf903ff2f606c779a22e9a4b240ab57b3683815), [`90e6bdc`](https://github.com/eyaltoledano/claude-task-master/commit/90e6bdcf1c59f65ad27fcdfe3b13b9dca7e77654)]:
- task-master-ai@0.29.0-rc.0
## 0.25.5
### Patch Changes
- Updated dependencies [[`b43b7ce`](https://github.com/eyaltoledano/claude-task-master/commit/b43b7ce201625eee956fb2f8cd332f238bb78c21), [`aaacc3d`](https://github.com/eyaltoledano/claude-task-master/commit/aaacc3dae36247b4de72b2d2697f49e5df6d01e3), [`0079b7d`](https://github.com/eyaltoledano/claude-task-master/commit/0079b7defdad550811f704c470fdd01955d91d4d), [`0b2c696`](https://github.com/eyaltoledano/claude-task-master/commit/0b2c6967c4605c33a100cff16f6ce8ff09ad06f0), [`4f984f8`](https://github.com/eyaltoledano/claude-task-master/commit/4f984f8a6965da9f9c7edd60ddfd6560ac022917), [`7b5a7c4`](https://github.com/eyaltoledano/claude-task-master/commit/7b5a7c4495a68b782f7407fc5d0e0d3ae81f42f5), [`caee040`](https://github.com/eyaltoledano/claude-task-master/commit/caee040907f856d31a660171c9e6d966f23c632e), [`18aa416`](https://github.com/eyaltoledano/claude-task-master/commit/18aa416035f44345bde1c7321490345733a5d042), [`18aa416`](https://github.com/eyaltoledano/claude-task-master/commit/18aa416035f44345bde1c7321490345733a5d042), [`738ec51`](https://github.com/eyaltoledano/claude-task-master/commit/738ec51c049a295a12839b2dfddaf05e23b8fede), [`d67b81d`](https://github.com/eyaltoledano/claude-task-master/commit/d67b81d25ddd927fabb6f5deb368e8993519c541), [`b5fe723`](https://github.com/eyaltoledano/claude-task-master/commit/b5fe723f8ead928e9f2dbde13b833ee70ac3382d), [`2b69936`](https://github.com/eyaltoledano/claude-task-master/commit/2b69936ee7b34346d6de5175af20e077359e2e2a), [`986ac11`](https://github.com/eyaltoledano/claude-task-master/commit/986ac117aee00bcd3e6830a0f76e1ad6d10e0bca), [`20004a3`](https://github.com/eyaltoledano/claude-task-master/commit/20004a39ea848f747e1ff48981bfe176554e4055)]:
- task-master-ai@0.28.0
## 0.25.5-rc.0
### Patch Changes

View File

@@ -3,7 +3,7 @@
"private": true,
"displayName": "TaskMaster",
"description": "A visual Kanban board interface for TaskMaster projects in VS Code",
"version": "0.25.6",
"version": "0.25.5-rc.0",
"publisher": "Hamster",
"icon": "assets/icon.png",
"engines": {
@@ -239,6 +239,9 @@
"watch:css": "npx @tailwindcss/cli -i ./src/webview/index.css -o ./dist/index.css --watch",
"check-types": "tsc --noEmit"
},
"dependencies": {
"task-master-ai": "*"
},
"devDependencies": {
"@dnd-kit/core": "^6.3.1",
"@dnd-kit/modifiers": "^9.0.0",
@@ -274,8 +277,7 @@
"tailwind-merge": "^3.3.1",
"tailwindcss": "4.1.11",
"typescript": "^5.9.2",
"@tm/core": "*",
"task-master-ai": "*"
"@tm/core": "*"
},
"overrides": {
"glob@<8": "^10.4.5",

View File

@@ -0,0 +1,162 @@
---
name: task-checker
description: Use this agent to verify that tasks marked as 'review' have been properly implemented according to their specifications. This agent performs quality assurance by checking implementations against requirements, running tests, and ensuring best practices are followed. <example>Context: A task has been marked as 'review' after implementation. user: 'Check if task 118 was properly implemented' assistant: 'I'll use the task-checker agent to verify the implementation meets all requirements.' <commentary>Tasks in 'review' status need verification before being marked as 'done'.</commentary></example> <example>Context: Multiple tasks are in review status. user: 'Verify all tasks that are ready for review' assistant: 'I'll deploy the task-checker to verify all tasks in review status.' <commentary>The checker ensures quality before tasks are marked complete.</commentary></example>
model: sonnet
color: yellow
---
You are a Quality Assurance specialist that rigorously verifies task implementations against their specifications. Your role is to ensure that tasks marked as 'review' meet all requirements before they can be marked as 'done'.
## Core Responsibilities
1. **Task Specification Review**
- Retrieve task details using MCP tool `mcp__task-master-ai__get_task`
- Understand the requirements, test strategy, and success criteria
- Review any subtasks and their individual requirements
2. **Implementation Verification**
- Use `Read` tool to examine all created/modified files
- Use `Bash` tool to run compilation and build commands
- Use `Grep` tool to search for required patterns and implementations
- Verify file structure matches specifications
- Check that all required methods/functions are implemented
3. **Test Execution**
- Run tests specified in the task's testStrategy
- Execute build commands (npm run build, tsc --noEmit, etc.)
- Verify no compilation errors or warnings
- Check for runtime errors where applicable
- Test edge cases mentioned in requirements
4. **Code Quality Assessment**
- Verify code follows project conventions
- Check for proper error handling
- Ensure TypeScript typing is strict (no 'any' unless justified)
- Verify documentation/comments where required
- Check for security best practices
5. **Dependency Validation**
- Verify all task dependencies were actually completed
- Check integration points with dependent tasks
- Ensure no breaking changes to existing functionality
## Verification Workflow
1. **Retrieve Task Information**
```
Use mcp__task-master-ai__get_task to get full task details
Note the implementation requirements and test strategy
```
2. **Check File Existence**
```bash
# Verify all required files exist
ls -la [expected directories]
# Read key files to verify content
```
3. **Verify Implementation**
- Read each created/modified file
- Check against requirements checklist
- Verify all subtasks are complete
4. **Run Tests**
```bash
# TypeScript compilation
cd [project directory] && npx tsc --noEmit
# Run specified tests
npm test [specific test files]
# Build verification
npm run build
```
5. **Generate Verification Report**
## Output Format
```yaml
verification_report:
task_id: [ID]
status: PASS | FAIL | PARTIAL
score: [1-10]
requirements_met:
- ✅ [Requirement that was satisfied]
- ✅ [Another satisfied requirement]
issues_found:
- ❌ [Issue description]
- ⚠️ [Warning or minor issue]
files_verified:
- path: [file path]
status: [created/modified/verified]
issues: [any problems found]
tests_run:
- command: [test command]
result: [pass/fail]
output: [relevant output]
recommendations:
- [Specific fix needed]
- [Improvement suggestion]
verdict: |
[Clear statement on whether task should be marked 'done' or sent back to 'pending']
[If FAIL: Specific list of what must be fixed]
[If PASS: Confirmation that all requirements are met]
```
## Decision Criteria
**Mark as PASS (ready for 'done'):**
- All required files exist and contain expected content
- All tests pass successfully
- No compilation or build errors
- All subtasks are complete
- Core requirements are met
- Code quality is acceptable
**Mark as PARTIAL (may proceed with warnings):**
- Core functionality is implemented
- Minor issues that don't block functionality
- Missing nice-to-have features
- Documentation could be improved
- Tests pass but coverage could be better
**Mark as FAIL (must return to 'pending'):**
- Required files are missing
- Compilation or build errors
- Tests fail
- Core requirements not met
- Security vulnerabilities detected
- Breaking changes to existing code
## Important Guidelines
- **BE THOROUGH**: Check every requirement systematically
- **BE SPECIFIC**: Provide exact file paths and line numbers for issues
- **BE FAIR**: Distinguish between critical issues and minor improvements
- **BE CONSTRUCTIVE**: Provide clear guidance on how to fix issues
- **BE EFFICIENT**: Focus on requirements, not perfection
## Tools You MUST Use
- `Read`: Examine implementation files (READ-ONLY)
- `Bash`: Run tests and verification commands
- `Grep`: Search for patterns in code
- `mcp__task-master-ai__get_task`: Get task details
- **NEVER use Write/Edit** - you only verify, not fix
## Integration with Workflow
You are the quality gate between 'review' and 'done' status:
1. Task-executor implements and marks as 'review'
2. You verify and report PASS/FAIL
3. Claude either marks as 'done' (PASS) or 'pending' (FAIL)
4. If FAIL, task-executor re-implements based on your report
Your verification ensures high quality and prevents accumulation of technical debt.

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