Disciplined AI Development

Systematic constraints and behavioral enforcement for AI collaboration

Setup Steps

Initial configuration to prepare the AI environment for disciplined development.

Setup Workflowα

Follow these steps to configure your environment:

  • Step 1: Configure AI with AI-PREFERENCES as custom instructions
  • Step 2: Share CORE-PERSONA-FRAMEWORK.json + selected PERSONA
  • Step 3: Issue command: 'Simulate Persona'
  • Step 4: Share METHODOLOGY document for planning session
  • Step 5: Collaborate on project structure and phases
  • Step 6: Generate systematic development plan

Execution Steps

Execute the development plan with systematic validation.

Execution Workflowβ

Follow these steps during active development:

  • Step 1: Build Phase 0 benchmarking infrastructure first
  • Step 2: Work through phases sequentially
  • Step 3: Implement one component per interaction
  • Step 4: Run benchmarks and share results with AI
  • Step 5: Validate architectural compliance continuously

Quality Assurance

Continuous validation throughout the development process.

Quality Checksγ

These checks help maintain code quality:

PerformanceRegression detection
ArchitecturePrinciple validation
DuplicationCode auditing
File SizeCompliance checking
DependenciesBoundary verification

Documentation Building Process

Systematic approach to creating project documentation that drives development.

Step 1: Project Decompositionδ

Ask yourself these questions:

  • What does 'finished' look like?
  • What are the major pieces that need to exist?
  • What depends on what?
  • Where are the natural stopping points?

Step 2: Phase Creationε

Group work into phases based on:

  • Dependency chains: Things that must happen in sequence
  • Logical groupings: Related functionality that makes sense together
  • Natural checkpoints: Places where you can validate progress
  • Risk management: Tackle uncertain parts early

Step 3: Task Breakdownζ

For each deliverable, define:

Specific Action

What exactly needs to be done

Output

What will exist when complete

Success Criteria

How to verify completion

Integration Points

How it connects to other work

Step 4: Progress Trackingη

Status indicators for tracking:

  • COMPLETED: Done and validated
  • 🔒 BLOCKED: Cannot proceed due to dependency
  • 📋 READY: Dependencies met, can start
  • ⚠️ UNCERTAIN: Need clarification or decision

Systematic Enforcement Framework

Mandatory checkpoints that prevent moving forward with incomplete work.

Architectural Complianceθ

Per-phase mandatory checkpoints:

  • SoC VALIDATION: Each module single responsibility, clear boundaries
  • DETERMINISTIC BEHAVIOR: Synchronous operations, predictable outcomes
  • FILE SIZE COMPLIANCE: All files ≤150 lines or properly modularized
  • DRY ENFORCEMENT: No duplicate code, existing functions reused
  • KISS VALIDATION: Minimal complexity, surgical implementations
  • CONFIG CENTRALIZATION: No hardcoded values outside constants
  • PERFORMANCE INTEGRATION: Benchmarks operational, gates passing

Code Quality Gatesι

Requirements before phase advancement:

  • Self-explanatory naming, no comments needed
  • Performance characteristics match workload requirements
  • Every addition serves core project purpose
  • Regression detection prevents performance degradation

Mid-Phase Validationκ

Checks during active development:

  • INCREMENTAL COMPLIANCE: Check after each significant change
  • BENCHMARK INTEGRATION: New components measured immediately
  • DEPENDENCY ALIGNMENT: Imports match architectural boundaries
  • FEATURE CREEP CHECK: Question necessity of each addition

Success Metrics

Measurable indicators of methodology effectiveness.

Technical Indicatorsλ

Code and architecture quality metrics:

  • All architectural principles consistently applied across codebase
  • Performance baselines maintained throughout development lifecycle
  • Zero production incidents related to architectural violations
  • File size constraints adhered to without compromising functionality

Operational Indicatorsμ

System behavior under real conditions:

  • System uptime and reliability under production load
  • Predictable resource utilization patterns
  • Graceful degradation under stress conditions
  • Maintainability preserved as codebase grows

Development Indicatorsν

Process quality metrics:

  • Enforcement checkpoints prevent architectural drift
  • Performance regression detection catches optimizations and degradations
  • Code review efficiency improved through systematic validation
  • Technical debt accumulation prevented through continuous compliance