/tree-of-thoughts

name: tree-of-thoughts
description: Execute tasks through systematic exploration, pruning, and expansion using Tree of Thoughts methodology with meta-judge evaluation specifications and multi-agent evaluation

tree-of-thoughts

<task> Execute complex reasoning tasks through systematic exploration of solution space, pruning unpromising branches, expanding viable approaches, and synthesizing the best solution. </task>

<context> This command implements the Tree of Thoughts (ToT) pattern for tasks requiring exploration of multiple solution paths before committing to full implementation. It combines creative sampling, meta-judge-generated evaluation specifications, multi-perspective evaluation, adaptive strategy selection, and evidence-based synthesis to produce superior outcomes.

Key benefits:

• **Systematic exploration** - Multiple agents explore different regions of the solution space
• **Structured evaluation** - Meta-judges produce tailored rubrics and criteria before judging
• **Independent verification** - Judges apply meta-judge specifications mechanically, reducing bias
• **Adaptive strategy** - Clear winners get polished, split decisions get synthesized, failures get redesigned

</context>

Pattern: Tree of Thoughts (ToT)

This command implements an eight-phase systematic reasoning pattern with meta-judge evaluation and adaptive strategy selection:

Phase 1: Exploration (Propose Approaches)
         ┌─ Agent A → Proposals A1, A2 (with probabilities) ─┐
Task ───┼─ Agent B → Proposals B1, B2 (with probabilities) ─┼─┐
         └─ Agent C → Proposals C1, C2 (with probabilities) ─┘ │
                                                                │
Phase 1.5: Pruning Meta-Judge (runs in parallel with Phase 1) │
         Meta-Judge → Pruning Evaluation Specification YAML ───┤
                                                                │
Phase 2: Pruning (Vote for Best 3)                             │
         ┌─ Judge 1 → Votes + Rationale ─┐                     │
         ├─ Judge 2 → Votes + Rationale ─┼─────────────────────┤
         └─ Judge 3 → Votes + Rationale ─┘                     │
                 │                                              │
                 ├─→ Select Top 3 Proposals                     │
                 │                                              │
Phase 3: Expansion (Develop Full Solutions)                    │
         ┌─ Agent A → Solution A (from proposal X) ─┐          │
         ├─ Agent B → Solution B (from proposal Y) ─┼──────────┤
         └─ Agent C → Solution C (from proposal Z) ─┘          │
                                                                │
Phase 3.5: Evaluation Meta-Judge (runs in parallel w/ Phase 3)│
         Meta-Judge → Evaluation Specification YAML ───────────┤
                                                                │
Phase 4: Evaluation (Judge Full Solutions)                     │
         ┌─ Judge 1 → Report 1 ─┐                              │
         ├─ Judge 2 → Report 2 ─┼──────────────────────────────┤
         └─ Judge 3 → Report 3 ─┘                              │
                                                                │
Phase 4.5: Adaptive Strategy Selection                         │
         Analyze Consensus ────────────────────────────────────┤
                ├─ Clear Winner? → SELECT_AND_POLISH           │
                ├─ All Flawed (<3.0)? → REDESIGN (Phase 3)     │
                └─ Split Decision? → FULL_SYNTHESIS            │
                                         │                      │
Phase 5: Synthesis (Only if FULL_SYNTHESIS)                    │
         Synthesizer ────────────────────┴──────────────────────┴─→ Final Solution

Process

Setup: Create Directory Structure

Before starting, ensure the directory structure exists:

mkdir -p .specs/research .specs/reports

**Naming conventions:**

• Proposals: `.specs/research/{solution-name}-{YYYY-MM-DD}.proposals.[a|b|c].md`
• Pruning: `.specs/research/{solution-name}-{YYYY-MM-DD}.pruning.[1|2|3].md`
• Selection: `.specs/research/{solution-name}-{YYYY-MM-DD}.selection.md`
• Evaluation: `.specs/reports/{solution-name}-{YYYY-MM-DD}.[1|2|3].md`

Where:

• `{solution-name}` - Derived from output path (e.g., `users-api` from output `specs/api/users.md`)
• `{YYYY-MM-DD}` - Current date

**Note:** Solutions remain in their specified output locations; only research and evaluation files go to `.specs/`

Phase 1: Exploration (Propose Approaches)

Launch **3 independent agents in parallel** (recommended: Sonnet for speed):

1. Each agent receives **identical task description and context** 2. Each agent **generates 6 high-level approaches** (not full implementations) 3. For each approach, agent provides:

• **Approach description** (2-3 paragraphs)
• **Key design decisions** and trade-offs
• **Probability estimate** (0.0-1.0)
• **Estimated complexity** (low/medium/high)
• **Potential risks** and failure modes

4. Proposals saved to `.specs/research/{solution-name}-{date}.proposals.[a|b|c].md`

**Key principle:** Systematic exploration through probabilistic sampling from the full distribution of possible approaches.

**Prompt template for explorers:**

<task>
{task_description}
</task>

<constraints>
{constraints_if_any}
</constraints>

<context>
{relevant_context}
</context>

<output>
{.specs/research/{solution-name}-{date}.proposals.[a|b|c].md - each agent gets unique letter identifier}
</output>

Instructions:

Let's approach this systematically by first understanding what we're solving, then exploring the solution space.

**Step 1: Decompose the problem**
Before generating approaches, break down the task:
- What is the core problem being solved?
- What are the key constraints and requirements?
- What subproblems must any solution address?
- What are the evaluation criteria for success?

**Step 2: Map the solution space**
Identify the major dimensions along which