This project follows the SPARC methodology (Specification, Pseudocode, Architecture, Refinement, Completion) using claude-flow for AI-powered development orchestration.
Related Issue: claude-flow #821 - Complete Introduction Tutorial New Skill Builder & Flow Skills
Goal: Define what the system should do before writing code
Status: ✅ COMPLETE - All requirements met, ready for Phase 2
Artifacts Created:
- ✅ PLAN.md - Comprehensive project plan
- ✅ README.md - User documentation with examples
- ✅ ERROR-HANDLING.md - Error handling strategy
- ✅ SPECIFICATION-COMPLETE.md - Phase completion summary
- ✅ Type definitions (src/types/index.ts)
- ✅ Database schema (src/core/Schema.ts)
- ✅ Core Database class with JSDoc (src/core/Database.ts)
- ✅ NodeQuery with JSDoc (src/query/NodeQuery.ts)
- ✅ TraversalQuery with JSDoc (src/query/TraversalQuery.ts)
- ✅ Utility functions (src/utils/)
Key Specifications:
- ✅ API Design - Fluent query DSL with method chaining
- ✅ Data Model - Universal schema (nodes + edges tables with JSON properties)
- ✅ Performance Goals - <10ms simple queries, >80% test coverage
- ✅ Use Case - Job application pipeline tracking
- ✅ Error Handling - Comprehensive error strategy with examples
- ✅ API Interfaces - Complete JSDoc for all public methods
- ✅ Transaction Semantics - ACID properties and behavior specified
Completion Date: 2025-10-27
Goal: Write algorithm logic in plain language before implementation
Completion Date: 2025-10-27
Planned Pseudocode Documents:
-
Database.ts Algorithm
CLASS GraphDatabase: CONSTRUCTOR(path, options): - Open SQLite connection - Initialize schema - Prepare common statements - Load schema configuration METHOD createNode(type, properties): - Validate type and properties - Serialize properties to JSON - INSERT into nodes table - Return node object with ID -
NodeQuery.ts Algorithm
CLASS NodeQuery: METHOD where(conditions): - Parse condition object - Build WHERE clauses - Add to query builder state - Return this (for chaining) METHOD connectedTo(nodeType, edgeType, direction): - Add JOIN to edges table - Filter by edge type and direction - Add JOIN to target nodes - Return this (for chaining) METHOD exec(): - Build final SQL query - Execute prepared statement - Deserialize JSON properties - Return array of nodes -
TraversalQuery.ts Algorithm
CLASS TraversalQuery: METHOD out(edgeType): - Add traversal step (direction: out) - Store edge type filter - Return this METHOD toArray(): - Start from initial node - For each traversal step: - Find connected nodes via edges - Apply filters - Collect results - Return flattened node array METHOD shortestPath(targetId): - Initialize: queue = [startNode], visited = {} - BFS algorithm: - While queue not empty: - Dequeue node - If node is target: reconstruct path - For each neighbor: - If not visited: enqueue with path - Return shortest path or null
Deliverables:
- ✅ Complete pseudocode for all core classes (4,497 lines)
- ✅ Algorithm documentation for graph operations
- ✅ Query execution pipeline description
Artifacts Created:
-
docs/pseudocode/DATABASE.md (1,402 lines)
- Constructor & initialization algorithm
- Node CRUD operations (create, get, update, delete)
- Edge CRUD operations
- Query builder initialization
- Transaction management with savepoints
- Import/export operations
- Error handling patterns
- Performance optimizations
-
docs/pseudocode/NODE-QUERY.md (758 lines)
- Constructor and state initialization
- Fluent API methods (where, connectedTo, filter, orderBy)
- SQL generation from query state
- JOIN clause building for relationships
- Execution and result transformation
- Complexity analysis (O(n) operations)
-
docs/pseudocode/TRAVERSAL-QUERY.md (1,025 lines)
- BFS traversal algorithm (toArray)
- Shortest path algorithm (BFS-based)
- All paths algorithm (DFS with backtracking)
- Direction filtering (out/in/both)
- Depth constraints (maxDepth/minDepth)
- Complexity analysis (O(V+E) for BFS, O(b^d) for DFS)
-
docs/pseudocode/QUERY-PIPELINE.md (1,312 lines)
- Complete execution pipeline architecture
- SQL generation strategy
- Prepared statement caching
- Result transformation pipeline
- Optimization strategies
- Error propagation
- Performance monitoring points
Goal: Design system structure and component interactions
Architecture Decisions:
-
Data Layer
- SQLite with better-sqlite3 (synchronous API)
- Universal schema (type + JSON properties)
- Prepared statements for performance
-
Query Layer
- Builder pattern for fluent API
- Lazy evaluation (build then execute)
- Method chaining for composability
-
Type System
- Generic types for type safety
- Runtime validation with TypeScript types
- Schema-based validation (optional)
-
Future WASM Integration
- Hot-path detection
- Automatic fallback to JS
- Performance monitoring
Component Diagram:
┌─────────────────────────────────────────┐
│ Public API (index.ts) │
│ GraphDatabase, NodeQuery, Traversal │
└──────────────┬──────────────────────────┘
│
┌───────┴────────┐
│ │
┌──────▼──────┐ ┌─────▼──────┐
│ Core Layer │ │ Query Layer│
│ │ │ │
│ Database │ │ NodeQuery │
│ Node │ │ EdgeQuery │
│ Edge │ │ Traversal │
│ Transaction │ │ PathQuery │
└──────┬──────┘ └─────┬──────┘
│ │
└───────┬────────┘
│
┌───────▼────────┐
│ Utils Layer │
│ │
│ Serialization │
│ Validation │
└───────┬────────┘
│
┌───────▼────────┐
│ SQLite DB │
│ (better-sqlite3)│
└────────────────┘
Next Steps:
- Design query execution pipeline
- Plan caching strategy
- Define transaction isolation levels
- Document error propagation
Goal: Implement with quality and optimization
Planned Refinements:
-
Performance Optimization
- Statement caching
- Index optimization
- JSON extraction optimization
- Batch operations
-
Error Handling
- Custom error classes
- Graceful degradation
- Transaction rollback
- Validation errors
-
Developer Experience
- Helpful error messages
- Type inference
- IDE autocomplete
- Debug logging
Deliverables:
- Implement all core classes
- Add comprehensive error handling
- Optimize query performance
- Add logging and debugging
Goal: Polish, document, and ship
Completion Checklist:
- Unit tests (>80% coverage)
- Integration tests (real-world scenarios)
- Performance benchmarks
- API documentation (JSDoc)
- User guide (README.md)
- Usage examples
- Migration guide
- Contribution guidelines
- CI/CD pipeline
- npm package publishing
- sparc-methodology - Core methodology guidance
- skill-builder - Custom skill development
- pair-programming - AI-assisted development
- performance-analysis - Benchmark and optimize
- verification-quality - Testing and validation
- reasoningbank-intelligence - Knowledge management
- ✅ claude-flow - Swarm orchestration and SPARC workflow
- ✅ ruv-swarm - Enhanced agent coordination
- ✅ flow-nexus - Advanced AI orchestration
⚠️ agentic-payments - Payment authorization (optional)
66 specialized agents available across categories:
- Core, Swarm, Consensus, Performance
- GitHub, SPARC, Testing, Analysis
- Architecture, Documentation, DevOps
Collective intelligence features:
- Shared memory database
- Consensus mechanisms
- Performance monitoring
- Session management
- Knowledge base
# 1. Start SPARC session
npx claude-flow@alpha sparc start --phase specification
# 2. Generate pseudocode
npx claude-flow@alpha sparc pseudocode --file src/core/Database.ts
# 3. Review architecture
npx claude-flow@alpha sparc architecture --review
# 4. Implement with refinement
npx claude-flow@alpha sparc refine --class Database
# 5. Complete with testing
npx claude-flow@alpha sparc complete --coverage 80Skills activate automatically based on natural language:
- "Let's use SPARC methodology for this"
- "Generate pseudocode for the query builder"
- "Review the architecture design"
- "Run performance benchmarks"
Checkpoints are automatically enabled:
# View checkpoints
.claude/helpers/checkpoint-manager.sh list
# Rollback to checkpoint
.claude/helpers/checkpoint-manager.sh rollback <checkpoint-id>- ✅ Test coverage >80%
- ✅ TypeScript strict mode
- ✅ No lint errors
- ✅ JSDoc for all public APIs
- ✅ Simple queries <10ms
- ✅ Traversal queries <50ms
- ✅ Shortest path <100ms
- ✅ Memory efficient (no leaks)
- ✅ Comprehensive README
- ✅ API reference
- ✅ Usage examples
- ✅ Migration guide
- ✅ MIT License
- ✅ Contributing guidelines
- ✅ Issue templates
- ✅ npm package published
Phase: Specification → Pseudocode transition Phase 1 Status: ✅ 100% COMPLETE Next Milestone: Phase 2 - Create pseudocode for core algorithms Blockers: None ETA: Phase 1-4 completion within sprint
Phase Completion Summary: See SPECIFICATION-COMPLETE.md
Development Team: Michael O'Boyle and Claude Code with claude-flow Methodology: SPARC Start Date: 2025-10-27 Last Updated: 2025-10-27