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automatic-stateful-prompt-improver

Automatically intercepts and optimizes prompts using the prompt-learning MCP server. Learns from performance over time via embedding-indexed history. Uses APE, OPRO, DSPy patterns. Activate on "optimize prompt", "improve this prompt", "prompt engineering", or ANY complex task request. Requires prompt-learning MCP server. NOT for simple questions (just answer them), NOT for direct commands (just execute them), NOT for conversational responses (no optimization needed).

インストール方法を見る

含まれるファイル(11)

  • SKILL.md8.3 KB
  • CHANGELOG.md835 B
  • references/ape-opro-implementation.md19.6 KB
  • references/dspy-patterns.md11.6 KB
  • references/embedding-architecture.md15.7 KB
  • references/INDEX.md845 B
  • references/iteration-strategy.md2.7 KB
  • references/learning-architecture.md2.5 KB
  • references/mcp-server-spec.md17.3 KB
  • references/optimization-techniques.md3.0 KB
  • SETUP.md9.9 KB

SKILL.md(原文)

インストールする前に、エージェントに与えられる指示の中身を確認できます。

Automatic Stateful Prompt Improver

DECISION POINTS

PROMPT ASSESSMENT:
├── Simple question/command (what, when, how)
│   └── Skip optimization → Answer directly
├── Complex task (multi-step, reasoning, technical)
│   ├── Token budget < 1000
│   │   └── APE: 3-5 iterations
│   ├── Token budget 1000-5000
│   │   └── OPRO: 5-10 iterations
│   └── Token budget > 5000
│       └── DSPy compilation: 10-20 iterations
└── Reusable template/system prompt
    └── Full optimization with historical retrieval

OPTIMIZATION TECHNIQUE SELECTION:
├── Instruction rewriting needed
│   └── Use APE (Automatic Prompt Engineer)
├── Parameter tuning with constraints  
│   └── Use OPRO (Optimization by PROmpting)
├── Complex pipeline with multiple modules
│   └── Use DSPy compilation patterns
└── Unknown/exploratory domain
    └── Hybrid APE→OPRO→DSPy cascade

ITERATION CONTROL:
├── Improvement < 1% for 3 rounds → STOP
├── Quality score > 0.95 → STOP  
├── Max iterations reached → STOP
├── User satisfaction confirmed → STOP
└── Continue → Next iteration

FEEDBACK INTEGRATION:
├── Task successful (user confirms/metrics good)
│   └── Record positive feedback + embed for retrieval
├── Task failed/poor quality
│   └── Record negative feedback + analyze failure mode
└── Unclear outcome
    └── Ask user for explicit feedback before recording

FAILURE MODES

Over-Optimization Spiral

  • SYMPTOM: Prompt grows to 500+ tokens with many nested constraints
  • DIAGNOSIS: Chasing diminishing returns instead of stopping at "good enough"
  • FIX: Apply 80/20 rule - if improvement drops below 5% per iteration, stop

Template Obsession

  • SYMPTOM: Spending iterations on formatting/structure vs. task clarity
  • DIAGNOSIS: Confusing presentation with performance
  • FIX: Measure actual task success, not template conformity

Historical Overfitting

  • SYMPTOM: Optimized prompt works for past examples but fails on new inputs
  • DIAGNOSIS: Training on too narrow a dataset from retrieval
  • FIX: Include diverse examples in optimization, test on held-out cases

Capability Misjudgment

  • SYMPTOM: Adding extensive scaffolding for tasks model handles natively
  • DIAGNOSIS: Assuming model limitations without testing
  • FIX: Test baseline capability before heavy prompting

Measurement Blindness

  • SYMPTOM: Multiple iterations without clear success metrics
  • DIAGNOSIS: Optimizing without knowing what "better" means
  • FIX: Define measurable success criteria in first step

WORKED EXAMPLES

Example 1: Code Optimization Request

Original: "Make this code better"

def process_data(data):
    results = []
    for item in data:
        if item > 0:
            results.append(item * 2)
    return results

Decision Point Navigation:

  1. Assessment: Complex task (requires code analysis) → Trigger optimization
  2. Technique Selection: Code review + improvement → APE with 5 iterations
  3. Retrieved Context: Similar code optimization prompts from history
  4. Optimized Prompt: "Analyze this Python function for performance, readability, and Pythonic patterns. Identify specific improvements: algorithmic complexity, memory usage, edge cases, and style. Provide refactored code with explanations."

What Novice Misses: Vague "make better" doesn't specify criteria What Expert Catches: Need explicit dimensions (performance, style, edge cases)

Result: Clear analysis of list comprehension opportunity, edge case handling, type hints

Example 2: Reasoning Task Template

Original: "Help me think through this decision"

Decision Point Navigation:

  1. Assessment: Reusable template + reasoning task → Full optimization
  2. Historical Retrieval: Found decision framework prompts (0.87 similarity)
  3. Technique Selection: DSPy compilation (structured reasoning pipeline)
  4. Iteration Strategy: 10 rounds, measuring decision quality

Optimized Template:

Decision Analysis Framework:
1. SITUATION: State the decision clearly with constraints
2. STAKEHOLDERS: List affected parties and their interests  
3. OPTIONS: Generate 3-5 distinct alternatives
4. CRITERIA: Define success metrics and weighting
5. TRADE-OFFS: Analyze each option against criteria
6. RECOMMENDATION: Select best option with confidence level

Quality Gates Applied: Template completeness, reusability score, user satisfaction

Example 3: Ambiguous Technical Request

Original: "Set up monitoring"

Decision Point Navigation:

  1. Assessment: Underspecified + technical → Trigger optimization
  2. Clarification Strategy: OPRO with constraint elicitation
  3. Domain Context: Retrieved monitoring setup patterns

Optimized Prompt: "Design monitoring setup by specifying: (1) Infrastructure scope (servers, containers, applications), (2) Key metrics (performance, availability, business), (3) Alert thresholds and escalation, (4) Technology stack constraints, (5) Budget/complexity limits. Provide implementation roadmap with priorities."

Before/After Trade-offs:

  • Before: Endless back-and-forth clarification
  • After: Structured requirements gathering in single exchange
  • Cost: Longer initial prompt
  • Benefit: Complete specification in one round

QUALITY GATES

Pre-execution checklist before calling optimize_prompt:

  • Task complexity score > 3 (multi-step/reasoning required)
  • Clear success criteria defined or derivable
  • Token budget estimated and technique selected
  • Domain context identified for retrieval
  • Iteration limit set based on complexity

Post-optimization validation:

  • Optimized prompt is specific and actionable
  • Success metrics are measurable
  • Constraint coherence verified (no contradictions)
  • Token efficiency: improvement justifies added length
  • Historical context integrated appropriately
  • User confirmation obtained for major changes

Quality scoring rubric (0-100):

  • Clarity: Can naive user understand requirements? (25 pts)
  • Specificity: Concrete vs. abstract instructions? (25 pts)
  • Completeness: Covers edge cases and constraints? (25 pts)
  • Efficiency: Achieves goals without bloat? (25 pts)

NOT-FOR BOUNDARIES

Do NOT use this skill for:

  • Simple factual questions → Answer directly with knowledge
  • File operations without reasoning → Use file-management skill
  • Direct command execution → Execute immediately
  • Conversational responses → Respond naturally
  • Already optimized prompts → Check history first to avoid re-optimization
  • User explicitly says "don't optimize" → Respect user preference

Delegate instead:

  • For mathematical problems → Use calculation-focused skills
  • For creative writing → Use creative-writing skill (unless template creation)
  • For data analysis → Use data-analysis skill (unless complex reasoning required)
  • For debugging → Use debugging skill (unless systematic improvement needed)

Gray areas requiring judgment:

  • Medium complexity tasks (score 2-4) → Test baseline performance first
  • Domain expertise requests → Optimize only if reusable template potential
  • Follow-up questions → Optimize if expanding scope significantly

レビュー

まだレビューはありません。使ってみた感想をお寄せください。

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