# BAIME Quick Start Guide **Version**: 1.0 **Framework**: Bootstrapped AI Methodology Engineering **Time to First Iteration**: 45-90 minutes Quick start guide for applying BAIME to create project-specific methodologies. --- ## What is BAIME? **BAIME** = Bootstrapped AI Methodology Engineering A meta-framework for systematically developing project-specific development methodologies through Observe-Codify-Automate (OCA) cycles. **Use when**: Creating testing strategy, CI/CD pipeline, error handling patterns, documentation systems, or any reusable development methodology. --- ## 30-Minute Quick Start ### Step 1: Define Objective (10 min) **Template**: ```markdown ## Objective Create [methodology name] for [project] to achieve [goals] ## Success Criteria (Dual-Layer) **Instance Layer** (V_instance ≥ 0.80): - Metric 1: [e.g., coverage ≥ 75%] - Metric 2: [e.g., tests pass 100%] **Meta Layer** (V_meta ≥ 0.80): - Patterns documented: [target count] - Tools created: [target count] - Transferability: [≥ 85%] ``` **Example** (Testing Strategy): ```markdown ## Objective Create systematic testing methodology for meta-cc to achieve 75%+ coverage ## Success Criteria Instance: coverage ≥ 75%, 100% pass rate Meta: 8 patterns documented, 3 tools created, 90% transferable ``` ### Step 2: Iteration 0 - Observe (20 min) **Actions**: 1. Analyze current state 2. Identify pain points 3. Measure baseline metrics 4. Document problems **Commands**: ```bash # Example: Testing go test -cover ./... # Baseline coverage grep -r "TODO.*test" . # Find gaps # Example: CI/CD cat .github/workflows/*.yml # Current pipeline # Measure: build time, failure rate ``` **Output**: Baseline document with metrics and problems ### Step 3: Iteration 1 - Codify (30 min) **Actions**: 1. Create 2-3 initial patterns 2. Document with examples 3. Apply to project 4. Measure improvement **Template**: ```markdown ## Pattern 1: [Name] **When**: [Use case] **How**: [Steps] **Example**: [Code snippet] **Time**: [Minutes] ``` **Output**: Initial patterns document, applied examples ### Step 4: Iteration 2 - Automate (30 min) **Actions**: 1. Identify repetitive tasks 2. Create automation scripts/tools 3. Measure speedup 4. Document tool usage **Example**: ```bash # Coverage gap analyzer ./scripts/analyze-coverage.sh coverage.out # Test generator ./scripts/generate-test.sh FunctionName ``` **Output**: Working automation tools, usage docs --- ## Iteration Structure ### Standard Iteration (60-90 min) ``` ITERATION N: ├─ Observe (20 min) │ ├─ Apply patterns from iteration N-1 │ ├─ Measure results │ └─ Identify gaps ├─ Codify (25 min) │ ├─ Refine existing patterns │ ├─ Add new patterns for gaps │ └─ Document improvements └─ Automate (15 min) ├─ Create/improve tools ├─ Measure speedup └─ Update documentation ``` ### Convergence Criteria **Instance Layer** (V_instance ≥ 0.80): - Primary metrics met (e.g., coverage, quality) - Stable across iterations - No critical gaps **Meta Layer** (V_meta ≥ 0.80): - Patterns documented and validated - Tools created and effective - Transferability demonstrated **Stop when**: Both layers ≥ 0.80 for 2 consecutive iterations --- ## Value Function Calculation ### V_instance (Instance Quality) ``` V_instance = weighted_average(metrics) Example (Testing): V_instance = 0.5 × (coverage/target) + 0.3 × (pass_rate) + 0.2 × (speed) = 0.5 × (75/75) + 0.3 × (1.0) + 0.2 × (0.9) = 0.5 + 0.3 + 0.18 = 0.98 ✓ ``` ### V_meta (Methodology Quality) ``` V_meta = 0.4 × completeness + 0.3 × reusability + 0.3 × automation Where: - completeness = patterns_documented / patterns_needed - reusability = transferability_score (0-1) - automation = time_saved / time_manual Example: V_meta = 0.4 × (8/8) + 0.3 × (0.90) + 0.3 × (0.75) = 0.4 + 0.27 + 0.225 = 0.895 ✓ ``` --- ## Common Patterns ### Pattern 1: Gap Closure **When**: Improving metrics systematically (coverage, quality, etc.) **Steps**: 1. Measure baseline 2. Identify gaps (prioritized) 3. Create pattern to address top gap 4. Apply pattern 5. Re-measure **Example**: Test coverage 60% → 75% - Identify 10 uncovered functions - Create table-driven test pattern - Apply to top 5 functions - Coverage increases to 68% - Repeat ### Pattern 2: Problem-Pattern-Solution **When**: Documenting reusable solutions **Template**: ```markdown ## Problem [What problem does this solve?] ## Context [When does this problem occur?] ## Solution [How to solve it?] ## Example [Concrete code example] ## Results [Measured improvements] ``` ### Pattern 3: Automation-First **When**: Task done >3 times **Steps**: 1. Identify repetitive task 2. Measure time manually 3. Create script/tool 4. Measure time with automation 5. Calculate ROI = time_saved / time_invested **Example**: - Manual coverage analysis: 15 min - Script creation: 30 min - Script execution: 30 sec - ROI: (15 min × 20 uses) / 30 min = 10x --- ## Rapid Convergence Tips ### Achieve 3-4 Iteration Convergence **1. Strong Iteration 0** - Comprehensive baseline analysis - Clear problem taxonomy - Initial pattern seeds **2. Focus on High-Impact** - Address top 20% problems (80% impact) - Create patterns for frequent tasks - Automate high-ROI tasks first **3. Parallel Pattern Development** - Work on 2-3 patterns simultaneously - Test on multiple examples - Iterate quickly **4. Borrow from Prior Work** - Reuse patterns from similar projects - Adapt proven solutions - 70-90% transferable --- ## Anti-Patterns ### ❌ Don't Do 1. **No baseline measurement** - Can't measure progress without baseline - Always start with Iteration 0 2. **Premature automation** - Automate before understanding problem - Manual first, automate once stable 3. **Pattern bloat** - Too many patterns (>12) - Keep it focused and actionable 4. **Ignoring transferability** - Project-specific hacks - Aim for 80%+ transferability 5. **Skipping validation** - Patterns not tested on real examples - Always validate with actual usage ### ✅ Do Instead 1. Start with baseline metrics 2. Manual → Pattern → Automate 3. 6-8 core patterns maximum 4. Design for reusability 5. Test patterns immediately --- ## Success Indicators ### After Iteration 1 - [ ] 2-3 patterns documented - [ ] Baseline metrics improved 10-20% - [ ] Patterns applied to 3+ examples - [ ] Clear next steps identified ### After Iteration 3 - [ ] 6-8 patterns documented - [ ] Instance metrics at 70-80% of target - [ ] 1-2 automation tools created - [ ] Patterns validated across contexts ### Convergence (Iteration 4-6) - [ ] V_instance ≥ 0.80 (2 consecutive) - [ ] V_meta ≥ 0.80 (2 consecutive) - [ ] No critical gaps remaining - [ ] Transferability ≥ 85% --- ## Examples by Domain ### Testing Methodology - **Iterations**: 6 - **Patterns**: 8 (table-driven, fixture, CLI, etc.) - **Tools**: 3 (coverage analyzer, test generator, guide) - **Result**: 72.5% coverage, 5x speedup ### Error Recovery - **Iterations**: 3 - **Patterns**: 13 error categories, 10 recovery patterns - **Tools**: 3 (path validator, size checker, read-before-write) - **Result**: 95.4% error classification, 23.7% automated prevention ### CI/CD Pipeline - **Iterations**: 5 - **Patterns**: 7 pipeline stages, 4 optimization patterns - **Tools**: 2 (pipeline analyzer, config generator) - **Result**: Build time 8min → 3min, 100% reliability --- ## Getting Help **Stuck on**: - **Iteration 0**: Read baseline-quality-assessment skill - **Slow convergence**: Read rapid-convergence skill - **Validation**: Read retrospective-validation skill - **Agent prompts**: Read agent-prompt-evolution skill --- **Source**: BAIME Framework (Bootstrap experiments 001-013) **Status**: Production-ready, validated across 13 methodologies **Success Rate**: 100% convergence, 3.1x average speedup