- name
- brainstorming
- version
- 2.0.0
- description
- Collaborative ideation and planning with resilient multi-model exploration, consensus scoring, and adaptive confidence-based validation
- author
- MAG Claude Plugins
- tags
- ["planning","ideation","collaboration","multi-model","resilient"]
- dependencies
- {"skills":["superpowers:using-git-worktrees","superpowers:writing-plans"],"tools":["Task","TaskCreate","TaskUpdate","TaskList","TaskGet","Read","Write","Edit","Glob"],"models":{"primary":["anthropic/claude-opus-4-20250514","anthropic/claude-sonnet-4-20250514","anthropic/claude-haiku-3-20250514"],"explorers":{"fallback_chain":"[Truncated]"}}}
- parameters
- {"exploration_models":3,"chunk_size":250,"confidence_threshold_auto":95,"confidence_threshold_confirm":60,"retry_attempts":2,"timeout_per_model_ms":120000}
- gates
- [{"phase":0,"type":"USER_GATE","trigger":"Problem understanding validated"},{"phase":1,"type":"AUTO_GATE","trigger":"Parallel exploration consolidated"},{"phase":2,"type":"AUTO_GATE","trigger":"Consensus scores calculated"},{"phase":3,"type":"USER_GATE","trigger":"User selects approach"},{"phase":4,"type":"MIXED_GATE","trigger":"Section-by-section validation"},{"phase":5,"type":"USER_GATE","trigger":"Final plan approval"}]
# Brainstorming v2.0: Resilient Multi-Model Planning
Turn ideas into validated designs through collaborative AI dialogue with resilient model execution and confidence-based validation.
## Overview
This skill improves upon v1.0 by addressing critical reliability gaps:
**Key v2.0 Improvements:**
- **No AskUserQuestion dependency**: Uses Task + Tasks for structured interaction
- **Fallback chains**: 3+ models per role ensures completion even if some fail
- **Explicit parallelism**: Documented Task call patterns for parallel execution
- **Defined algorithms**: Consensus matrix and confidence scoring are mathematically specified
## When to Use
Use this skill BEFORE implementing any feature:
- "Design a user authentication system"
- "Brainstorm approaches for API rate limiting"
- "Plan architecture for a new dashboard feature"
- "Evaluate options for real-time data synchronization"
## Prerequisites
### Required Setup
```bash
# 1. Install required skills
/plugin marketplace add MadAppGang/claude-code
skill install superpowers:using-git-worktrees
skill install superpowers:writing-plans
# 2. Verify OpenRouter access (for multi-model)
export OPENROUTER_API_KEY=your-key
# 3. Configure models in ~/.claude/settings.json
{
"brainstorming": {
"primary_model": "anthropic/claude-opus-4-20250514",
"explorer_models": [
"x-ai/grok-code-fast-1",
"google/gemini-2-5-pro",
"anthropic/claude-sonnet-4-20250514"
]
}
}
```
### Model Requirements
| Role | Min Context | Capabilities |
|------|-------------|--------------|
| Primary | 200K tokens | Complex reasoning, orchestration |
| Explorer | 100K tokens | Code generation, analysis |
## Workflow
### Phase 0: Problem Analysis (200-300 words)
**Objective**: Capture problem scope, constraints, and success criteria
**How to Ask Users (Without AskUserQuestion)**:
```typescript
// Pattern: Use Tasks to track questions, Read/Write for presentation
// 1. Write question to temp file
await Write({
file_path: "/tmp/brainstorm-q1.md",
content: `## Question 1 of 3
**What are the main constraints or requirements for this feature?**
Please respond with:
- Functional requirements (what it must do)
- Non-functional requirements (performance, scale)
- Any existing dependencies or integrations
`
});
// 2. Present file and wait for user response
// User reads file, provides input via conversation
// 3. Summarize understanding
const problemSummary = await Write({
file_path: "/tmp/brainstorm-problem.md",
content: `## Problem Understanding
**Constraints identified:**
- [From user response]
**Success criteria:**
- [Measurable outcomes]
**Scope boundaries:**
- [What's in/out]
---
**Does this accurately capture the problem?** (Reply "yes" to proceed or clarify)
`
});
```
**Gate Type**: USER_GATE (requires confirmation)
---
### Phase 1: Parallel Exploration
**Objective**: Generate diverse solutions via multi-model brainstorming
**Fallback Chain Implementation**:
```typescript
interface ModelResult {
model: string;
success: boolean;
output?: string;
error?: string;
}
async function exploreWithFallback(
prompt: string,
role: "explorer"
): Promise<ModelResult> {
const fallbackModels = role === "explorer"
? ["x-ai/grok-code-fast-1", "google/gemini-2-5-pro", "deepseek/deepseek-coder"]
: ["anthropic/claude-opus-4-20250514", "anthropic/claude-sonnet-4-20250514"];
for (const model of fallbackModels) {
try {
const result = await Task({
model: model,
prompt: prompt,
timeout_ms: 120000 // 2 minute timeout
});
return { model, success: true, output: result };
} catch (error) {
console.warn(`Model ${model} failed:`, error.message);
continue; // Try next in chain
}
}
throw new Error(`All models in fallback chain failed`);
}
```
**Parallel Execution Pattern**:
```typescript
// WRONG: Sequential (slow)
// const result1 = await Task({ model: "grok", ... });
// const result2 = await Task({ model: "gemini", ... });
// const result3 = await Task({ model: "sonnet", ... });
// CORRECT: Parallel (3-5x faster)
const [result1, result2, result3] = await Promise.all([
Task({
model: "x-ai/grok-code-fast-1",
prompt: generateExplorerPrompt(problem, "fast_code")
}),
Task({
model: "google/gemini-2-5-pro",
prompt: generateExplorerPrompt(problem, "balanced")
}),
Task({
model: "anthropic/claude-sonnet-4-20250514",
prompt: generateExplorerPrompt(problem, "thorough")
})
]);
// Handle partial failures
const results = [result1, result2, result3].filter(r => r.success);
if (results.length === 0) {
throw new Error("All exploration models failed");
}
```
**Output Format**:
```markdown
## Approach: [Name]
**Model**: [Which model generated this]
**Approach Type**: [architecture/algorithm/pattern]
**Summary**: 2-3 sentences
**Key Components**:
1. Component A
2. Component B
3. Component C
**Trade-offs**:
- + Advantage
- - Disadvantage
**Confidence**: [Model's confidence 0-100]
```
**Gate Type**: AUTO_GATE (automatic consolidation)
---
### Phase 2: Consensus Analysis
**Objective**: Identify strongest ideas using defined algorithms
**Consensus Matrix Algorithm**:
1. **Clustering**: Group approaches by semantic similarity (vector embedding + clustering)
2. **Scoring**: Count model agreement per cluster
3. **Classification**: UNANIMOUS (3/3), STRONG (2/3), DIVERGENT (1/3)
4. **Confidence**: Weighted average of model confidences + agreement bonus
**Consensus Matrix Calculation**:
```typescript
interface Approach {
id: string;
name: string;
summary: string;
model: string; // Which model proposed
modelConfidence: number; // 0-100
embedding: number[]; // For clustering
}
interface Cluster {
approaches: Approach[];
representative: Approach; // Most complete
agreementScore: number; // 0-1
confidenceScore: number; // 0-100
consensusLevel: "UNANIMOUS" | "STRONG" | "DIVERGENT";
}
function calculateConsensus(approaches: Approach[]): Cluster[] {
// Step 1: Cluster by semantic similarity
const clusters = clusterByEmbedding(approaches, threshold: 0.85);
// Step 2: Calculate metrics per cluster
return clusters.map(cluster => {
const models = cluster.map(a => a.model);
const modelCount = new Set(models).size;
const totalModels = approaches.length;
// Agreement: proportion of models that have an approach in this cluster
const agreementScore = modelCount / totalModels;
// Confidence: weighted average + agreement bonus
const baseConfidence = cluster
.map(a => a.modelConfidence)
.reduce((a, b) => a + b, 0) / cluster.length;
const confidenceScore = Math.min(100,
baseConfidence + (agreementScore * 20) // +20% for agreement
);
// Consensus classification
const consensusLevel = agreementScore >= 0.9 ? "UNANIMOUS" :
agreementScore >= 0.5 ? "STRONG" :
"DIVERGENT";
return {
approaches: cluster,
representative: cluster.reduce((best, current) =>
current.modelConfidence > best.modelConfidence ? current : best
),
agreementScore,
confidenceScore: Math.round(confidenceScore),
consensusLevel
};
}).sort((a, b) => b.confidenceScore - a.confidenceScore);
}
```
**Confidence Scoring Formula**:
```
Confidence = Base + AgreementBonus - DiversityPenalty
Where:
Base = average(model confidences in cluster)
AgreementBonus = (unique_models / total_models) * 20
DiversityPenalty = (1 - similarity_coefficient) * 10
Example:
3 models propose similar approaches
Base = (92 + 88 + 95) / 3 = 91.7
AgreementBonus = (3/3) * 20 = 20
DiversityPenalty = (1 - 0.9) * 10 = 1
Confidence = 91.7 + 20 - 1 = 110.7 -> capped at 100
Final: 97%
```
**Consensus Matrix Example**:
| Approach | Grok | Gemini | Sonnet | Agreement | Confidence |
|----------|------|--------|--------|-----------|------------|
| Token Bucket | Yes | Yes | Yes | UNANIMOUS | 97% |
| Leaky Bucket | Yes | Yes | No | STRONG | 82% |
| Sliding Window | No | No | Yes | DIVERGENT | 45% |
**Gate Type**: AUTO_GATE (automatic scoring)
---
### Phase 3: User Selection
**Objective**: Present top approaches for user decision
**Presentation Pattern**:
```typescript
async function presentApproaches(clusters: Cluster[]): Promise<string> {
const topClusters = clusters.slice(0, 5); // Top 5
let presentation = `## Top Approaches\n\n`;
for (const [index, cluster] of topClusters.entries()) {
const approach = cluster.representative;
presentation += `### ${String.fromCharCode(65 + index)}: ${approach.name} [${cluster.consensusLevel}]
**Summary**: ${approach.summary}
**Confidence**: ${cluster.confidenceScore}% (${cluster.approaches.length} model(s) agree)
**Pros**:
${cluster.approaches.map(a => `- ${a.summary}`).join("\n")}
**Cons**:
${cluster.approaches.map(a => `- Potential issue from ${a.model}`).join("\n")}
---
`;
}
presentation += `
## Your Choice
Which approach best fits your requirements?
- **A**: Select approach A
- **B**: Select approach B
- **C**: Select approach C
- **D**: Combine elements from multiple
- **E**: Explore alternatives (return to Phase 1)
`;
// Save for user review
await Write({
file_path: "/tmp/brainstorm-approaches.md",
content: presentation
});
return presentation;
}
```
**Gate Type**: USER_GATE (selection via conversation)
---
### Phase 4: Detailed Planning
**Objective**: Elaborate selected approach into actionable sections
**Confidence-Based Gating**:
| Confidence | Gate Type | Action |
|------------|-----------|--------|
| >=95% | AUTO_GATE | Proceed automatically |
| 80-94% | AUTO_GATE | Proceed with notification |
| 60-79% | USER_GATE | Request confirmation |
| <60% | USER_GATE | Require revision |
**Section Template**:
```markdown
## [Section Name] (Confidence: XX%)
**Approach**: [Selected approach]
**Implementation Details**:
[200-300 words]
**Assumptions**:
- Assumption 1
- Assumption 2
**Confidence Calculation**:
- Technical feasibility: XX%
- Edge cases covered: XX%
- Team capability: XX%
- Overall: XX%
**Status**: [AUTO_GATE|PENDING_USER] - [Reason]
```
**Gate Type**: MIXED_GATE (adaptive)
---
### Phase 5: Plan Validation
**Objective**: Final review before implementation
**Validation Checklist**:
```markdown
## Plan Validation
View on GitHub