cookoff
This skill should be used when moving from design to implementation. Triggers on "let's build", "implement this", "looks good let's code", "ready to implement". Presents options for parallel agent competition (cookoff), single subagent, or local implementation. Each agent creates own plan from shared design for genuine variation.
What this skill does
# Cookoff
Same design, multiple cooks compete. Each implementation team creates their own plan from the shared design, then implements it. Natural variation emerges from independent planning decisions.
**Part of Test Kitchen Development:**
- `omakase-off` - Chef's choice exploration (different approaches/designs)
- `cookoff` - Same design, multiple cooks compete (each creates own plan + implements)
**Key insight:** Don't share a pre-made implementation plan. Each agent generates their own plan from the design doc, ensuring genuine variation.
## Directory Structure
```
docs/plans/<feature>/
design.md # Input: from brainstorming
cookoff/
impl-1/
plan.md # Agent 1's implementation plan
impl-2/
plan.md # Agent 2's implementation plan
impl-3/
plan.md # Agent 3's implementation plan
result.md # Cookoff results and winner
```
## Skill Dependencies
| Reference | Primary (if installed) | Fallback |
|-----------|------------------------|----------|
| `writing-plans` | `superpowers:writing-plans` | Each agent writes their own implementation plan |
| `executing-plans` | `superpowers:executing-plans` | Execute plan tasks sequentially with verification |
| `parallel-agents` | `superpowers:dispatching-parallel-agents` | Dispatch multiple Task tools in single message |
| `git-worktrees` | `superpowers:using-git-worktrees` | `git worktree add .worktrees/<name> -b <branch>` |
| `tdd` | `superpowers:test-driven-development` | RED-GREEN-REFACTOR cycle |
| `verification` | `superpowers:verification-before-completion` | Run command, read output, THEN claim status |
| `fresh-eyes` | `fresh-eyes-review:skills` (2389) | 2-5 min review for security, logic, edge cases |
| `judge` | `test-kitchen:judge` | Scoring framework with checklists (MUST invoke at Phase 4) |
| `code-review` | `superpowers:requesting-code-review` | Dispatch code-reviewer subagent |
| `scenario-testing` | `scenario-testing:skills` (2389) | `.scratch/` E2E scripts, real dependencies |
| `finish-branch` | `superpowers:finishing-a-development-branch` | Verify tests, present options, cleanup |
## When to Use
Trigger when user wants to implement a design:
- "Execute this plan" / "Implement the plan" / "Let's build this"
- After brainstorming completes and design doc exists
- Can also invoke explicitly: "cookoff this"
**Important:** Cookoff works from a **design doc**, not a detailed implementation plan. Each agent creates their own implementation plan.
## Detecting the Design-to-Implementation Transition
**Cookoff triggers at a SITUATION, not a specific skill's output.**
**The situation:** Design is complete, implementation is about to start.
**Signals that design phase just completed:**
- Design doc was written/committed
- User approved a design ("looks good", "yes", "let's do it")
- Discussion shifted from "what to build" to "how to build it"
- Any skill/flow is about to start implementation
**When you detect this transition, ALWAYS offer cookoff:**
```
Before we start implementation, how would you like to proceed?
1. Cookoff (recommended) - N parallel agents, each creates own plan, pick best
→ Complexity: [assess from design]
→ Best for: medium-high complexity features
2. Single implementation - One agent/session implements
3. Direct coding - Start coding without detailed plan
```
**This applies regardless of:**
- Which brainstorming skill was used (superpowers, other, or none)
- Whether a formal design doc exists (could be informal agreement)
- What implementation options another skill might present
**The key insight:** We're not injecting into another skill's menu. We're recognizing a SITUATION (design→implementation) and ensuring cookoff is offered at that moment.
## Phase 1: Implementation Options
**Present choices when user wants to implement:**
```
How would you like to implement this design?
1. Single subagent - One agent plans and implements
2. Cookoff - N parallel agents, each creates own plan, pick best
→ Complexity: [assess from design]
→ Recommendation: N implementations
3. Local - Plan and implement here in this session
Which approach?
```
**Routing:**
- Option 1: Single agent uses writing-plans then executing-plans, cookoff exits
- Option 2: Continue to Phase 2
- Option 3: User implements manually, cookoff exits
## Phase 2: Complexity Assessment
**Read design doc and assess:**
- Feature scope (components, integrations, data models)
- Risk areas (auth, payments, migrations, concurrency)
- Estimated implementation size
**Map to implementation count:**
| Complexity | Scope | Risk signals | Implementations |
|------------|-------|--------------| --------------- |
| Low | Small feature | None | 2 |
| Medium | Medium feature | Some | 3 |
| High | Large feature | Several | 4 |
| Very high | Major system | Critical areas | 5 |
**Setup directories:**
```bash
mkdir -p docs/plans/<feature>/cookoff/impl-{1,2,3}
```
**Announce:**
```
Complexity assessment: medium feature, touches auth
Spawning 3 parallel implementations
Each will create their own implementation plan from the design.
```
## Phase 3: Parallel Execution
**Setup worktrees:**
```
.worktrees/cookoff-impl-1/
.worktrees/cookoff-impl-2/
.worktrees/cookoff-impl-3/
Branches:
<feature>/cookoff/impl-1
<feature>/cookoff/impl-2
<feature>/cookoff/impl-3
```
**CRITICAL: Dispatch ALL agents in a SINGLE message**
Use `parallel-agents` pattern. Send ONE message with multiple Task tool calls:
```
<single message>
Task(impl-1, run_in_background: true)
Task(impl-2, run_in_background: true)
Task(impl-3, run_in_background: true)
</single message>
```
Do NOT send separate messages for each agent.
**Subagent prompt (each gets same instructions with their impl number):**
```
You are implementation team N of M in a cookoff competition.
Other teams are implementing the same design in parallel.
Each team creates their own implementation plan - your approach may differ from others.
**Your working directory:** /path/to/.worktrees/cookoff-impl-N
**Design doc:** docs/plans/<feature>/design.md
**Your plan location:** docs/plans/<feature>/cookoff/impl-N/plan.md
**Your workflow:**
1. Read the design doc thoroughly
2. Use writing-plans skill to create YOUR implementation plan
- Save to: docs/plans/<feature>/cookoff/impl-N/plan.md
- Make your own architectural decisions
- Don't try to guess what other teams will do
3. Use executing-plans skill to implement your plan
4. Follow TDD for each task
5. Use verification before claiming done
**Report when done:**
- Plan created: yes/no
- All tasks completed: yes/no
- Test results (npm test output)
- Files changed count
- Any issues encountered
Your goal: best possible implementation. Good luck!
```
**Monitor progress:**
```
Cookoff status (design: auth-system):
- impl-1: planning... → implementing 5/8 tasks
- impl-2: planning... → implementing 3/8 tasks
- impl-3: planning... → implementing 6/8 tasks
```
## Phase 4: Judging
**Step 1: Gate check**
- All tests pass
- Design adherence - implemented what the design specified
**Step 2: Check for identical implementations**
Before fresh-eyes, diff the implementations:
```bash
diff -r .worktrees/cookoff-impl-1/src .worktrees/cookoff-impl-2/src
```
If implementations are >95% identical, note this - the planning step didn't create enough variation. Still proceed but flag in results.
**Step 3: Fresh-eyes on survivors**
```
Starting fresh-eyes review of impl-1 (N files)...
Checking: security, logic errors, edge cases
Fresh-eyes complete: 1 minor issue
```
### Step 4: Invoke Judge Skill
**CRITICAL: Invoke `test-kitchen:judge` now.**
The judge skill contains the full scoring framework with checklists. Invoking it fresh ensures the scoring format is followed exactly.
```text
Invoke: test-kitchen:judge
Context to provide:
- Implementations to judge: impl-1, impl-2, impl-3 (or however many)
- WorkRelated in Design
contribute
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