## Web-Tree-Sitter Migration (Phases 1-5) - New WebTreeSitterParser replacing native tree-sitter bindings - Eliminates npm install warnings about native compilation - Updated all language extractors (TS, JS, Python, Go, Rust) ## MinCut Analysis Integration (Phases 1-6) - New src/code-intelligence/analysis/mincut/ module - MinCutAnalyzer: Stoer-Wagner algorithm for graph partitioning - GraphAdapter: Code graph to MinCut format conversion - CircularDependencyDetector: Dependency cycle detection - ModuleCouplingAnalyzer: Module coupling analysis ## CriticalPathDetector for Coverage Analysis - New src/coverage/CriticalPathDetector.ts - Identifies structurally critical code paths using MinCut - Prioritizes coverage gaps by criticality score - Integrated with CoverageAnalyzerAgent ## Fleet Topology Management - New src/fleet/topology/ module - MinCut-based test file partitioning - Integrated with test-execute-parallel MCP handler ## Other Changes - MCP tool count corrected: 102 → 105 tools - New CLI commands: aqe kg mincut, aqe kg circular - 19 new tests for CriticalPathDetector 🤖 Generated with [Claude Code](https://claude.com/claude-code) Co-Authored-By: Claude Opus 4.5 <noreply@anthropic.com>
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RuVector MinCut Integration - GOAP Implementation Plan
Version: 1.0.0 Created: 2025-12-25 Methodology: Goal-Oriented Action Planning (GOAP) Coordination: Claude Flow + Agentic QE Fleet
Executive Summary
This plan integrates ruvector-mincut's subpolynomial O(n^{o(1)}) dynamic minimum cut algorithm into the Agentic QE Fleet to achieve:
- 30-50% faster parallel test execution via optimal test suite partitioning
- O(log n) coupling analysis in code intelligence graphs
- Real-time single-point-of-failure detection in fleet topologies
- Critical path identification for coverage gap analysis
The plan uses GOAP algorithms to dynamically discover optimal action sequences, leverage mixed LLM+code execution, and coordinate specialized QE agents via Claude Flow swarm patterns.
1. World State Definitions
1.1 Initial State (Current System)
initial_state:
# Code Intelligence
code_graph_exists: true
graph_has_weighted_edges: true
graph_cut_algorithm: null # No cut algorithm implemented
coupling_analysis_complexity: "O(n²)" # Current BFS-based approach
# Fleet Topology
fleet_topology_modes: ["hierarchical", "mesh", "hybrid", "adaptive"]
topology_failure_detection: "heartbeat-based" # Polling, not graph-based
topology_optimization_realtime: false
# Test Execution
test_distribution_strategy: ["round-robin", "least-loaded", "random"]
test_partitioning_algorithm: "naive" # Simple modulo distribution
parallel_execution_efficiency: 75-95% # Current range
# Coverage Analysis
coverage_gap_detection: "diff-based" # Simple coverage comparison
critical_path_identification: false
# Dependencies
ruvector_installed: true # v0.1.24 in package.json
ruvector_mincut_available: false # Not yet integrated
wasm_optimization_enabled: false
1.2 Goal State (Target System)
goal_state:
# Code Intelligence
graph_cut_algorithm: "ruvector-mincut"
coupling_analysis_complexity: "O(log n)" # Subpolynomial improvement
bottleneck_detection_enabled: true
graph_cut_cache_enabled: true
# Fleet Topology
topology_failure_detection: "mincut-based" # Graph-theoretic
topology_spof_detection_realtime: true # Single Point of Failure
topology_optimization_realtime: true
topology_resilience_score: true # Quantified via min-cut capacity
# Test Execution
test_partitioning_algorithm: "mincut-optimal"
test_suite_balanced_partitions: true
parallel_execution_efficiency: 85-98% # 10-15% improvement
partition_rebalancing_dynamic: true
# Coverage Analysis
critical_path_identification: true # Via min-cut on dependency graph
coverage_priority_ranking: true # Based on cut capacity
# Implementation Quality
unit_tests_pass: true
integration_tests_pass: true
performance_benchmarks_measured: true
documentation_complete: true
# Safety & Rollback
feature_flag_enabled: true
rollback_plan_tested: true
2. GOAP Action Definitions
2.1 Phase 1: Research & Architecture (OPEN MODE)
Action: research_mincut_api
type: LLM_ACTION
description: "Analyze ruvector-mincut API and integration points"
preconditions:
- ruvector_installed: true
effects:
- mincut_api_understood: true
- integration_points_identified: true
cost: 2
tools: [Read, WebFetch, Grep]
execution: hybrid
agent_assignment: researcher
output: docs/research/ruvector-mincut-api-analysis.md
Action: design_mincut_abstractions
type: HYBRID_ACTION
description: "Design TypeScript abstractions for MinCut algorithms"
preconditions:
- mincut_api_understood: true
effects:
- mincut_interface_designed: true
- integration_architecture_defined: true
cost: 3
tools: [Write]
execution: llm
agent_assignment: system-architect
output: src/graph/mincut/types.ts
Action: plan_phase1_actions
type: CODE_ACTION
description: "Generate detailed action plan for Phase 1"
preconditions:
- integration_architecture_defined: true
effects:
- phase1_action_plan_created: true
cost: 1
tools: [Write]
execution: code
agent_assignment: planner
output: docs/plans/phase1-detailed-actions.md
2.2 Phase 2: Core MinCut Integration (CLOSED MODE)
Action: implement_mincut_wrapper
type: CODE_ACTION
description: "Create TypeScript wrapper for ruvector-mincut with exact/approximate modes"
preconditions:
- mincut_interface_designed: true
effects:
- mincut_wrapper_implemented: true
- exact_mode_available: true
- approximate_mode_available: true
cost: 5
tools: [Write, Read]
execution: code
agent_assignment: coder
output: src/graph/mincut/MinCutEngine.ts
parallel_group: core_implementation
Action: implement_graph_adapter
type: CODE_ACTION
description: "Adapt GraphBuilder to MinCut input format"
preconditions:
- mincut_wrapper_implemented: true
- code_graph_exists: true
effects:
- graph_adapter_implemented: true
- graph_to_mincut_conversion: true
cost: 4
tools: [Write, Read, Edit]
execution: code
agent_assignment: coder
output: src/graph/mincut/GraphAdapter.ts
parallel_group: core_implementation
Action: implement_result_interpreter
type: CODE_ACTION
description: "Interpret MinCut results for AQE use cases"
preconditions:
- mincut_wrapper_implemented: true
effects:
- result_interpreter_implemented: true
- bottleneck_detection_logic: true
- partition_extraction_logic: true
cost: 3
tools: [Write]
execution: code
agent_assignment: coder
output: src/graph/mincut/ResultInterpreter.ts
parallel_group: core_implementation
Action: write_unit_tests_mincut
type: CODE_ACTION
description: "Comprehensive unit tests for MinCut wrapper"
preconditions:
- mincut_wrapper_implemented: true
- graph_adapter_implemented: true
effects:
- mincut_unit_tests_written: true
cost: 4
tools: [Write, qe-test-generator]
execution: hybrid
agent_assignment: [tester, qe-test-generator]
output: tests/unit/graph/mincut/
parallel_group: testing
2.3 Phase 3: Code Intelligence Integration (CLOSED MODE)
Action: integrate_mincut_graph_builder
type: CODE_ACTION
description: "Add MinCut analysis methods to GraphBuilder"
preconditions:
- graph_adapter_implemented: true
- result_interpreter_implemented: true
effects:
- graph_builder_mincut_integrated: true
- coupling_analysis_complexity: "O(log n)"
cost: 5
tools: [Edit, Read]
execution: code
agent_assignment: coder
output: src/code-intelligence/graph/GraphBuilder.ts (modified)
verification_gate: unit_tests_pass
Action: implement_bottleneck_detector
type: CODE_ACTION
description: "Detect architectural bottlenecks via min-cut capacity"
preconditions:
- graph_builder_mincut_integrated: true
effects:
- bottleneck_detection_enabled: true
- architectural_smell_detection: true
cost: 4
tools: [Write]
execution: code
agent_assignment: coder
output: src/code-intelligence/analysis/BottleneckDetector.ts
parallel_group: code_intel_features
Action: implement_coupling_analyzer
type: CODE_ACTION
description: "O(log n) coupling analysis using min-cut"
preconditions:
- graph_builder_mincut_integrated: true
effects:
- coupling_analysis_fast: true
- module_boundary_detection: true
cost: 4
tools: [Write]
execution: code
agent_assignment: coder
output: src/code-intelligence/analysis/CouplingAnalyzer.ts
parallel_group: code_intel_features
Action: write_integration_tests_code_intel
type: HYBRID_ACTION
description: "Integration tests for code intelligence with real repos"
preconditions:
- bottleneck_detection_enabled: true
- coupling_analysis_fast: true
effects:
- code_intel_integration_tests_pass: true
cost: 6
tools: [Write, qe-test-generator, Bash]
execution: hybrid
agent_assignment: [tester, qe-test-generator]
output: tests/integration/code-intelligence/mincut/
verification_gate: real_database_queries
2.4 Phase 4: Fleet Topology Integration (CLOSED MODE)
Action: implement_topology_mincut_analyzer
type: CODE_ACTION
description: "Analyze fleet topology using min-cut for SPOF detection"
preconditions:
- mincut_wrapper_implemented: true
effects:
- topology_spof_detection_realtime: true
- topology_resilience_score: true
cost: 5
tools: [Write, Read]
execution: code
agent_assignment: coder
output: src/fleet/topology/MinCutAnalyzer.ts
Action: integrate_mincut_fleet_commander
type: CODE_ACTION
description: "Add min-cut analysis to FleetCommanderAgent"
preconditions:
- topology_mincut_analyzer_implemented: true
effects:
- fleet_topology_mincut_enabled: true
- topology_optimization_realtime: true
cost: 4
tools: [Edit, Read]
execution: code
agent_assignment: coder
output: src/agents/FleetCommanderAgent.ts (modified)
verification_gate: unit_tests_pass
Action: implement_realtime_spof_monitoring
type: CODE_ACTION
description: "Real-time monitoring for topology changes"
preconditions:
- fleet_topology_mincut_enabled: true
effects:
- spof_monitoring_enabled: true
- topology_alerts_configured: true
cost: 3
tools: [Write]
execution: code
agent_assignment: coder
output: src/fleet/topology/SPOFMonitor.ts
2.5 Phase 5: Test Execution Optimization (CLOSED MODE)
Action: implement_mincut_partitioner
type: CODE_ACTION
description: "Optimal test suite partitioning using min-cut"
preconditions:
- mincut_wrapper_implemented: true
effects:
- test_partitioning_algorithm: "mincut-optimal"
- test_suite_balanced_partitions: true
cost: 6
tools: [Write]
execution: code
agent_assignment: coder
output: src/test/partition/MinCutPartitioner.ts
Action: integrate_mincut_parallel_executor
type: CODE_ACTION
description: "Use MinCut partitions in parallel test execution"
preconditions:
- test_partitioning_algorithm: "mincut-optimal"
effects:
- parallel_execution_mincut_enabled: true
- partition_rebalancing_dynamic: true
cost: 4
tools: [Edit, Read]
execution: code
agent_assignment: coder
output: src/mcp/handlers/test/test-execute-parallel.ts (modified)
verification_gate: unit_tests_pass
Action: benchmark_parallel_execution
type: HYBRID_ACTION
description: "Benchmark parallel execution with MinCut vs naive"
preconditions:
- parallel_execution_mincut_enabled: true
effects:
- performance_benchmarks_measured: true
- 30_percent_speedup_verified: true
cost: 5
tools: [Write, Bash, qe-performance-tester]
execution: hybrid
agent_assignment: [qe-performance-tester, tester]
output: tests/benchmarks/mincut-parallel-execution.bench.ts
verification_gate: 30_percent_improvement
2.6 Phase 6: Coverage Analysis Enhancement (CLOSED MODE)
Action: implement_critical_path_detector
type: CODE_ACTION
description: "Identify critical execution paths using min-cut"
preconditions:
- graph_builder_mincut_integrated: true
effects:
- critical_path_identification: true
- coverage_priority_ranking: true
cost: 4
tools: [Write]
execution: code
agent_assignment: coder
output: src/coverage/CriticalPathDetector.ts
Action: integrate_mincut_coverage_analyzer
type: CODE_ACTION
description: "Enhance CoverageAnalyzerAgent with MinCut insights"
preconditions:
- critical_path_identification: true
effects:
- coverage_analysis_mincut_enabled: true
- coverage_gap_prioritization: true
cost: 3
tools: [Edit, Read]
execution: code
agent_assignment: coder
output: src/agents/CoverageAnalyzerAgent.ts (modified)
2.7 Phase 7: Performance Optimization (CLOSED MODE)
Action: implement_mincut_caching
type: CODE_ACTION
description: "Cache min-cut results with incremental updates"
preconditions:
- mincut_wrapper_implemented: true
effects:
- graph_cut_cache_enabled: true
- incremental_updates_supported: true
cost: 5
tools: [Write]
execution: code
agent_assignment: coder
output: src/graph/mincut/MinCutCache.ts
Action: enable_wasm_optimization
type: CODE_ACTION
description: "Enable 256-core WASM optimization for large graphs"
preconditions:
- mincut_wrapper_implemented: true
effects:
- wasm_optimization_enabled: true
- large_graph_support: true
cost: 3
tools: [Edit, Read]
execution: code
agent_assignment: coder
output: src/graph/mincut/MinCutEngine.ts (modified)
Action: benchmark_mincut_performance
type: HYBRID_ACTION
description: "Benchmark MinCut performance on various graph sizes"
preconditions:
- graph_cut_cache_enabled: true
- wasm_optimization_enabled: true
effects:
- performance_benchmarks_complete: true
- subpolynomial_complexity_verified: true
cost: 4
tools: [Write, Bash]
execution: hybrid
agent_assignment: qe-performance-tester
output: tests/benchmarks/mincut-performance.bench.ts
2.8 Phase 8: Safety & Rollback (CLOSED MODE)
Action: implement_feature_flag
type: CODE_ACTION
description: "Feature flag for gradual MinCut rollout"
preconditions:
- all_integration_complete: true
effects:
- feature_flag_enabled: true
- gradual_rollout_possible: true
cost: 2
tools: [Write, Edit]
execution: code
agent_assignment: coder
output: src/config/feature-flags.ts
Action: implement_fallback_mechanism
type: CODE_ACTION
description: "Fallback to original algorithms if MinCut fails"
preconditions:
- feature_flag_enabled: true
effects:
- fallback_mechanism_implemented: true
- graceful_degradation: true
cost: 3
tools: [Edit]
execution: code
agent_assignment: coder
output: Multiple files (edit existing integration points)
Action: test_rollback_procedure
type: HYBRID_ACTION
description: "Test rollback from MinCut to original algorithms"
preconditions:
- fallback_mechanism_implemented: true
effects:
- rollback_plan_tested: true
- rollback_verified: true
cost: 3
tools: [Write, Bash]
execution: hybrid
agent_assignment: tester
output: tests/infrastructure/mincut-rollback.test.ts
2.9 Phase 9: Documentation & Release (OPEN MODE)
Action: write_api_documentation
type: LLM_ACTION
description: "Comprehensive API documentation for MinCut integration"
preconditions:
- all_implementation_complete: true
effects:
- api_documentation_complete: true
cost: 4
tools: [Write]
execution: llm
agent_assignment: researcher
output: docs/api/mincut-integration.md
Action: write_user_guide
type: LLM_ACTION
description: "User guide for leveraging MinCut features"
preconditions:
- api_documentation_complete: true
effects:
- user_guide_complete: true
cost: 3
tools: [Write]
execution: llm
agent_assignment: researcher
output: docs/guides/using-mincut-analysis.md
Action: write_migration_guide
type: LLM_ACTION
description: "Migration guide for existing codebases"
preconditions:
- user_guide_complete: true
effects:
- migration_guide_complete: true
cost: 2
tools: [Write]
execution: llm
agent_assignment: researcher
output: docs/guides/mincut-migration.md
Action: create_release_notes
type: HYBRID_ACTION
description: "Generate release notes with benchmarks and examples"
preconditions:
- documentation_complete: true
- performance_benchmarks_complete: true
effects:
- release_notes_created: true
cost: 2
tools: [Write]
execution: hybrid
agent_assignment: planner
output: CHANGELOG.md (new section)
3. Parallel Execution Groups
Group A: Core Implementation (Phase 2)
parallel_group: core_implementation
actions:
- implement_mincut_wrapper
- implement_graph_adapter
- implement_result_interpreter
coordination: claude-flow (mesh topology)
max_agents: 3
execution_strategy: concurrent
Group B: Testing (All Phases)
parallel_group: testing
actions:
- write_unit_tests_mincut
- write_integration_tests_code_intel
- benchmark_parallel_execution
- benchmark_mincut_performance
coordination: claude-flow (hierarchical)
max_agents: 4
execution_strategy: adaptive
Group C: Code Intelligence Features (Phase 3)
parallel_group: code_intel_features
actions:
- implement_bottleneck_detector
- implement_coupling_analyzer
coordination: claude-flow (mesh)
max_agents: 2
execution_strategy: concurrent
4. Verification Gates
Gate 1: Core MinCut Integration
gate_id: gate_1_core_integration
phase: 2
preconditions:
- mincut_wrapper_implemented: true
- graph_adapter_implemented: true
- result_interpreter_implemented: true
verification_criteria:
- unit_tests_pass: true
- test_coverage: "> 85%"
- no_memory_leaks: true
verification_agent: qe-coverage-analyzer
blocking: true
Gate 2: Code Intelligence Integration
gate_id: gate_2_code_intel
phase: 3
preconditions:
- graph_builder_mincut_integrated: true
- bottleneck_detection_enabled: true
verification_criteria:
- integration_tests_pass: true
- real_database_queries: true
- coupling_analysis_faster: true
verification_agent: qe-test-executor
blocking: true
Gate 3: Performance Benchmarks
gate_id: gate_3_performance
phase: 5
preconditions:
- parallel_execution_mincut_enabled: true
verification_criteria:
- 30_percent_speedup_verified: true
- no_regression: true
- memory_usage_acceptable: "< 512MB per worker"
verification_agent: qe-performance-tester
blocking: true
Gate 4: Safety & Rollback
gate_id: gate_4_safety
phase: 8
preconditions:
- feature_flag_enabled: true
- fallback_mechanism_implemented: true
verification_criteria:
- rollback_plan_tested: true
- no_data_loss: true
- graceful_degradation: true
verification_agent: qe-quality-gate
blocking: true
5. Rollback Strategies
Strategy 1: Feature Flag Rollback
strategy: feature_flag_disable
trigger: performance_regression OR critical_bug
steps:
1. Set feature flag mincut_enabled = false
2. Verify fallback to original algorithms
3. Monitor system stability for 1 hour
4. Collect diagnostic logs
rollback_time: < 5 minutes
data_loss: none
Strategy 2: Code Rollback
strategy: git_revert
trigger: feature_flag_rollback_fails
steps:
1. git revert HEAD~N (N = commits since integration)
2. npm run build && npm run test:fast
3. Deploy reverted version
4. Verify system stability
rollback_time: < 30 minutes
data_loss: none (cached results may be lost)
Strategy 3: Hybrid Rollback
strategy: partial_rollback
trigger: specific_component_failure
steps:
1. Identify failing component (e.g., test partitioner)
2. Disable MinCut for that component only
3. Keep other integrations active
4. Monitor and investigate
rollback_time: < 10 minutes
data_loss: partial (component-specific cache)
6. Claude Flow Swarm Configuration
Swarm Topology: Adaptive Hierarchical
swarm_config:
topology: adaptive
max_agents: 15
# Coordinator Agent
coordinator:
type: hierarchical-coordinator
responsibilities:
- Phase progression
- Verification gate orchestration
- Conflict resolution
# Specialized Agent Pools
pools:
researchers:
min: 1
max: 2
agents: [researcher]
phases: [1, 9]
architects:
min: 1
max: 1
agents: [system-architect]
phases: [1]
coders:
min: 2
max: 5
agents: [coder, backend-dev]
phases: [2, 3, 4, 5, 6, 7, 8]
testers:
min: 2
max: 4
agents: [tester, qe-test-generator, qe-performance-tester]
phases: [2, 3, 4, 5, 6, 7, 8]
reviewers:
min: 1
max: 2
agents: [reviewer, qe-code-intelligence]
phases: [2, 3, 4, 5, 6]
quality_gates:
min: 1
max: 1
agents: [qe-quality-gate, qe-coverage-analyzer]
phases: [2, 3, 5, 8]
# Memory Coordination
memory:
shared_namespace: "aqe/mincut-integration"
persistence: true
ttl: 604800 # 7 days
# Event Bus
events:
- phase:started
- phase:completed
- gate:blocked
- gate:passed
- action:started
- action:completed
- action:failed
7. Execution Plan with Agent Assignments
Phase 1: Research & Architecture (OPEN MODE)
duration: 2-3 days
agents: 3 (researcher, system-architect, planner)
execution_mode: sequential_with_checkpoints
actions:
1. research_mincut_api (researcher)
↓ checkpoint: API understood
2. design_mincut_abstractions (system-architect)
↓ checkpoint: Architecture approved
3. plan_phase1_actions (planner)
↓ checkpoint: Plan validated
Phase 2: Core MinCut Integration (CLOSED MODE)
duration: 3-4 days
agents: 6 (3 coders, 2 testers, 1 reviewer)
execution_mode: parallel_with_gates
parallel_group_A (coders):
- implement_mincut_wrapper (coder-1)
- implement_graph_adapter (coder-2)
- implement_result_interpreter (coder-3)
↓ sync point: core implementation complete
parallel_group_B (testers):
- write_unit_tests_mincut (tester-1, qe-test-generator)
verification_gate_1:
agent: qe-coverage-analyzer
criteria: unit_tests_pass, coverage > 85%
blocking: true
Phase 3: Code Intelligence Integration (CLOSED MODE)
duration: 4-5 days
agents: 7 (3 coders, 3 testers, 1 reviewer)
execution_mode: parallel_with_gates
sequential_actions:
1. integrate_mincut_graph_builder (coder-1)
↓ checkpoint: GraphBuilder integration complete
parallel_group_C (coders):
- implement_bottleneck_detector (coder-2)
- implement_coupling_analyzer (coder-3)
parallel_group_B (testers):
- write_integration_tests_code_intel (tester-1, qe-test-generator)
verification_gate_2:
agent: qe-test-executor
criteria: integration_tests_pass, real_database_queries
blocking: true
Phase 4: Fleet Topology Integration (CLOSED MODE)
duration: 3-4 days
agents: 5 (2 coders, 2 testers, 1 reviewer)
execution_mode: sequential_with_parallel_testing
sequential_actions:
1. implement_topology_mincut_analyzer (coder-1)
2. integrate_mincut_fleet_commander (coder-1)
3. implement_realtime_spof_monitoring (coder-2)
parallel_testing:
- unit_tests (tester-1)
- integration_tests (tester-2)
Phase 5: Test Execution Optimization (CLOSED MODE)
duration: 4-5 days
agents: 6 (2 coders, 3 testers, 1 reviewer)
execution_mode: sequential_with_benchmarking
sequential_actions:
1. implement_mincut_partitioner (coder-1)
2. integrate_mincut_parallel_executor (coder-2)
benchmarking (critical):
- benchmark_parallel_execution (qe-performance-tester, tester-1)
verification_gate_3:
agent: qe-performance-tester
criteria: 30_percent_speedup_verified
blocking: true
Phase 6: Coverage Analysis Enhancement (CLOSED MODE)
duration: 2-3 days
agents: 4 (2 coders, 2 testers)
execution_mode: sequential_with_parallel_testing
sequential_actions:
1. implement_critical_path_detector (coder-1)
2. integrate_mincut_coverage_analyzer (coder-2)
parallel_testing:
- unit_tests (tester-1)
- integration_tests (tester-2)
Phase 7: Performance Optimization (CLOSED MODE)
duration: 3-4 days
agents: 5 (2 coders, 2 testers, 1 performance-tester)
execution_mode: parallel_with_benchmarking
parallel_actions:
- implement_mincut_caching (coder-1)
- enable_wasm_optimization (coder-2)
benchmarking:
- benchmark_mincut_performance (qe-performance-tester)
Phase 8: Safety & Rollback (CLOSED MODE)
duration: 2-3 days
agents: 4 (2 coders, 2 testers)
execution_mode: sequential_with_testing
sequential_actions:
1. implement_feature_flag (coder-1)
2. implement_fallback_mechanism (coder-1, coder-2)
3. test_rollback_procedure (tester-1, tester-2)
verification_gate_4:
agent: qe-quality-gate
criteria: rollback_plan_tested, no_data_loss
blocking: true
Phase 9: Documentation & Release (OPEN MODE)
duration: 2-3 days
agents: 2 (researcher, planner)
execution_mode: sequential
sequential_actions:
1. write_api_documentation (researcher)
2. write_user_guide (researcher)
3. write_migration_guide (researcher)
4. create_release_notes (planner)
8. Total Resource Requirements
Timeline
- Total Duration: 25-34 days (5-7 weeks)
- Critical Path: Phase 1 → Phase 2 → Phase 3 → Phase 5 → Phase 8 → Phase 9
- Parallelizable: Phases 4, 6, 7 can overlap with other phases
Agent Requirements
- Peak Concurrent Agents: 7 (Phase 3)
- Total Unique Agents: 15
- Agent-Days: ~120-150
Specialized QE Agents
qe_test_generator: 15-20 days (test creation)
qe-coverage-analyzer: 5-7 days (verification gates)
qe-performance-tester: 10-12 days (benchmarking)
qe-test-executor: 8-10 days (integration testing)
qe-quality-gate: 3-5 days (verification gates)
qe-code-intelligence: 5-7 days (code review)
Verification Gates
- Total Gates: 4
- Blocking Gates: 4
- Gate Success Criteria: Must be 100% verified before phase progression
9. Risk Mitigation
Risk 1: Performance Regression
risk: MinCut slower than expected on large graphs
probability: medium
impact: high
mitigation:
- Use approximate mode for graphs > 10,000 nodes
- Implement aggressive caching
- Enable WASM optimization
- Fallback to original algorithms
verification: benchmark_mincut_performance action
Risk 2: Integration Complexity
risk: Existing code difficult to integrate with MinCut
probability: medium
impact: medium
mitigation:
- Adapter pattern for graph conversion
- Incremental integration (one component at a time)
- Comprehensive unit tests before integration
verification: unit_tests_pass at each gate
Risk 3: Test Partitioning Imbalance
risk: MinCut partitions unbalanced for test suites
probability: low
impact: medium
mitigation:
- Dynamic rebalancing
- Hybrid approach (MinCut + heuristics)
- Fallback to round-robin
verification: benchmark_parallel_execution action
Risk 4: Memory Overhead
risk: MinCut cache and WASM consume excessive memory
probability: low
impact: high
mitigation:
- LRU cache eviction
- Configurable cache size
- Monitor memory usage in benchmarks
verification: performance_benchmarks_measured
10. Success Metrics
Performance Metrics
test_execution_speedup: 30-50%
coupling_analysis_speedup: 50-90% (O(n²) → O(log n))
spof_detection_latency: < 100ms
cache_hit_rate: > 80%
memory_overhead: < 15%
Quality Metrics
unit_test_coverage: > 85%
integration_test_coverage: > 80%
performance_test_coverage: 100% (all critical paths)
documentation_completeness: 100%
rollback_test_success: 100%
Business Metrics
developer_productivity: +20-30% (faster test cycles)
code_quality_improvement: +15-25% (better bottleneck detection)
infrastructure_cost_savings: 10-20% (fewer test workers needed)
time_to_market: -15-20% (faster CI/CD pipelines)
11. Post-Integration Monitoring
Week 1-2: Stabilization
monitoring:
- Performance metrics (hourly)
- Error rates (real-time)
- Memory usage (every 5 minutes)
- User feedback collection
actions:
- Hotfix critical bugs
- Adjust feature flag rollout (0% → 10% → 25%)
- Fine-tune cache parameters
Week 3-4: Optimization
monitoring:
- Performance trends (daily)
- Cache efficiency (daily)
- User adoption (weekly)
actions:
- Performance tuning based on production data
- Expand feature flag rollout (25% → 50% → 100%)
- Gather user case studies
Month 2-3: Learning & Iteration
monitoring:
- Long-term performance trends (weekly)
- New use cases discovered (ongoing)
- Integration feedback (ongoing)
actions:
- Document learned patterns
- Publish case studies
- Plan future enhancements
- Train Nightly-Learner on successful patterns
12. GOAP Plan Execution Commands
Initialize Swarm
# Initialize Claude Flow swarm with adaptive topology
npx claude-flow@alpha swarm init --topology adaptive --max-agents 15
Execute Phase 1 (Research)
# Spawn research agents concurrently
# (Use Claude Code Task tool in actual execution)
Task("Research MinCut API", "research_mincut_api action", "researcher")
Task("Design Abstractions", "design_mincut_abstractions action", "system-architect")
Task("Plan Phase 1", "plan_phase1_actions action", "planner")
Execute Phase 2 (Core Integration)
# Spawn implementation agents in parallel
Task("Implement MinCut Wrapper", "implement_mincut_wrapper action", "coder")
Task("Implement Graph Adapter", "implement_graph_adapter action", "coder")
Task("Implement Result Interpreter", "implement_result_interpreter action", "coder")
Task("Write Unit Tests", "write_unit_tests_mincut action", "qe-test-generator")
# Run verification gate
Task("Verify Core Integration", "gate_1_core_integration", "qe-coverage-analyzer")
Execute Phase 3 (Code Intelligence)
# Sequential then parallel
Task("Integrate GraphBuilder", "integrate_mincut_graph_builder action", "coder")
# After GraphBuilder integration completes:
Task("Implement Bottleneck Detector", "implement_bottleneck_detector action", "coder")
Task("Implement Coupling Analyzer", "implement_coupling_analyzer action", "coder")
Task("Write Integration Tests", "write_integration_tests_code_intel action", "qe-test-generator")
# Run verification gate
Task("Verify Code Intel Integration", "gate_2_code_intel", "qe-test-executor")
Execute Phase 5 (Test Optimization)
Task("Implement MinCut Partitioner", "implement_mincut_partitioner action", "coder")
Task("Integrate Parallel Executor", "integrate_mincut_parallel_executor action", "coder")
Task("Benchmark Parallel Execution", "benchmark_parallel_execution action", "qe-performance-tester")
# Run verification gate
Task("Verify Performance Gains", "gate_3_performance", "qe-performance-tester")
Execute Phase 8 (Safety)
Task("Implement Feature Flag", "implement_feature_flag action", "coder")
Task("Implement Fallback", "implement_fallback_mechanism action", "coder")
Task("Test Rollback", "test_rollback_procedure action", "tester")
# Run verification gate
Task("Verify Safety Mechanisms", "gate_4_safety", "qe-quality-gate")
13. Appendix: File Structure
New Files Created
src/graph/mincut/
├── types.ts # TypeScript interfaces
├── MinCutEngine.ts # Core wrapper
├── GraphAdapter.ts # Graph conversion
├── ResultInterpreter.ts # Result processing
└── MinCutCache.ts # Caching layer
src/code-intelligence/analysis/
├── BottleneckDetector.ts # Bottleneck detection
└── CouplingAnalyzer.ts # Coupling analysis
src/fleet/topology/
├── MinCutAnalyzer.ts # Topology analysis
└── SPOFMonitor.ts # SPOF monitoring
src/test/partition/
└── MinCutPartitioner.ts # Test partitioning
src/coverage/
└── CriticalPathDetector.ts # Critical path analysis
src/config/
└── feature-flags.ts # Feature flags
tests/unit/graph/mincut/ # Unit tests
tests/integration/code-intelligence/mincut/ # Integration tests
tests/benchmarks/ # Performance benchmarks
tests/infrastructure/ # Rollback tests
docs/research/
└── ruvector-mincut-api-analysis.md
docs/plans/
└── phase1-detailed-actions.md
docs/api/
└── mincut-integration.md
docs/guides/
├── using-mincut-analysis.md
└── mincut-migration.md
Modified Files
src/code-intelligence/graph/GraphBuilder.ts # Add MinCut methods
src/agents/FleetCommanderAgent.ts # Add topology analysis
src/agents/CoverageAnalyzerAgent.ts # Add critical path detection
src/mcp/handlers/test/test-execute-parallel.ts # Use MinCut partitions
14. References
-
RuVector MinCut Research Paper (December 2025)
- Subpolynomial O(n^{o(1)}) dynamic minimum cut algorithm
- 256-core WASM optimization techniques
-
AQE Fleet Architecture
/workspaces/agentic-qe-cf/src/code-intelligence/graph/GraphBuilder.ts/workspaces/agentic-qe-cf/src/agents/FleetCommanderAgent.ts/workspaces/agentic-qe-cf/src/mcp/handlers/test/test-execute-parallel.ts
-
GOAP Algorithm
- "Goal-Oriented Action Planning: Ten Years of AI Programming" (Jeff Orkin, 2006)
- A* pathfinding through state space
- Dynamic replanning based on execution results
-
Claude Flow Documentation
- Swarm topologies (hierarchical, mesh, adaptive)
- Agent coordination patterns
- Memory management
Plan Status: READY FOR EXECUTION Approval Required: User explicit approval before commits Execution Mode: GOAP with dynamic replanning Coordination: Claude Flow swarm with adaptive topology
Generated by Agentic QE Fleet v2.6.5 - GOAP Planner Next Step: User review and approval to begin Phase 1