This module provides comprehensive system integration capabilities for the GNN pipeline, enabling cross-module coordination, data flow management, and system-wide functionality integration.
src/integration/
├── __init__.py # Module initialization and exports
├── README.md # This documentation
└── mcp.py # Model Context Protocol integration
Main function for processing system integration tasks.
Features:
- Cross-module coordination
- Data flow management
- System-wide functionality integration
- Pipeline orchestration
- Error handling and recovery
Returns:
bool: Success status of integration operations
Coordinates all pipeline modules for integrated operation.
Features:
- Module dependency management
- Data flow coordination
- Cross-module communication
- Resource sharing
- Error propagation handling
Manages data flow between pipeline components.
Features:
- Data format standardization
- Cross-module data transfer
- Data validation and transformation
- Cache management
- Performance optimization
Integrates system-wide functionality across modules.
Features:
- Functionality coordination
- Feature integration
- System optimization
- Performance monitoring
- Resource management
- GNN Processing: Coordinate with GNN module for model processing
- Visualization: Integrate with visualization modules for output generation
- Export: Coordinate with export module for multi-format output
- Analysis: Integrate with analysis module for comprehensive evaluation
- Audio: Coordinate with audio module for sonification
- Execution: Integrate with execution module for model simulation
- Input Processing: Standardize input data across modules
- Intermediate Data: Manage intermediate data between pipeline steps
- Output Aggregation: Collect and organize outputs from all modules
- Cache Management: Optimize data caching across modules
- Error Propagation: Handle errors across module boundaries
- Unified Configuration: Centralized configuration across all modules
- Module-Specific Settings: Handle module-specific configuration
- Environment Management: Manage environment variables and settings
- Resource Allocation: Allocate system resources across modules
- Parallel Processing: Coordinate parallel processing across modules
- Memory Management: Optimize memory usage across the system
- Resource Sharing: Share resources between modules efficiently
- Load Balancing: Balance computational load across modules
- Cross-Module Error Handling: Handle errors that span multiple modules
- Recovery Mechanisms: Implement recovery strategies for system failures
- Error Propagation: Properly propagate errors through the system
- Recovery Strategies: Provide recovery options for module failures
from integration import process_integration
# Process system integration
success = process_integration(
target_dir=Path("models/"),
output_dir=Path("output/"),
verbose=True
)
if success:
print("System integration completed successfully")
else:
print("System integration failed")from integration import coordinate_pipeline_modules
# Coordinate all pipeline modules
coordination_results = coordinate_pipeline_modules()
print(f"Modules coordinated: {len(coordination_results['modules'])}")
print(f"Data flows managed: {len(coordination_results['data_flows'])}")
print(f"Integration status: {coordination_results['status']}")from integration import manage_data_flow
# Manage data flow between modules
flow_results = manage_data_flow()
print(f"Data flows processed: {flow_results['flows_processed']}")
print(f"Data transformations: {flow_results['transformations']}")
print(f"Cache hits: {flow_results['cache_hits']}")from integration import integrate_system_functionality
# Integrate system-wide functionality
integration_results = integrate_system_functionality()
print(f"Features integrated: {len(integration_results['features'])}")
print(f"Optimizations applied: {integration_results['optimizations']}")
print(f"Performance improvement: {integration_results['performance_gain']}%")graph TD
System[Pipeline System] --> Discovery[Module Discovery]
Discovery --> Deps[Dependency Analysis]
Deps --> Config[Configuration Integration]
Config --> DataFlow[Data Flow Setup]
DataFlow --> Resources[Resource Allocation]
Resources --> Exec[Integration Execution]
Exec --> Coords[Module Coordination]
Exec --> Monitor[Performance Monitoring]
Coords --> Report[Integration Report]
Monitor --> Report
flowchart TB
subgraph "Pipeline Modules"
GNN[GNN Module]
Render[Render Module]
Execute[Execute Module]
Analysis[Analysis Module]
Report[Report Module]
end
subgraph "Integration Layer"
Coordinator[Integration Coordinator]
DataFlowMgr[Data Flow Manager]
ResourceMgr[Resource Manager]
StateMgr[State Manager]
end
subgraph "Output"
UnifiedOutput[Unified Output]
IntegrationReport[Integration Report]
end
GNN --> Coordinator
Render --> Coordinator
Execute --> Coordinator
Analysis --> Coordinator
Report --> Coordinator
Coordinator --> DataFlowMgr
Coordinator --> ResourceMgr
Coordinator --> StateMgr
DataFlowMgr --> UnifiedOutput
ResourceMgr --> UnifiedOutput
StateMgr --> UnifiedOutput
UnifiedOutput --> IntegrationReport
sequenceDiagram
participant GNN as GNN Module
participant Render as Render Module
participant Execute as Execute Module
participant Analysis as Analysis Module
participant Integration as Integration Module
GNN->>Integration: Parsed models
Integration->>Render: Model data
Render->>Integration: Generated code
Integration->>Execute: Code files
Execute->>Integration: Execution results
Integration->>Analysis: Results data
Analysis->>Integration: Analysis results
Integration->>Integration: Aggregate & coordinate
# Discover available modules
available_modules = discover_pipeline_modules()
active_modules = filter_active_modules(available_modules)# Analyze module dependencies
dependencies = analyze_module_dependencies(active_modules)
dependency_graph = build_dependency_graph(dependencies)# Integrate module configurations
unified_config = integrate_module_configurations(active_modules)
system_config = generate_system_configuration(unified_config)# Setup data flow between modules
data_flows = setup_module_data_flows(active_modules, dependency_graph)
flow_validators = create_flow_validators(data_flows)# Allocate system resources
resource_allocation = allocate_system_resources(active_modules)
performance_monitors = setup_performance_monitoring(resource_allocation)# Execute system integration
integration_results = execute_system_integration(
active_modules,
data_flows,
resource_allocation
)# Called from 17_integration.py
def process_integration(target_dir, output_dir, verbose=False, **kwargs):
# Coordinate pipeline modules
coordination_results = coordinate_pipeline_modules()
# Manage data flow
flow_results = manage_data_flow()
# Integrate system functionality
integration_results = integrate_system_functionality()
# Generate integration report
report = generate_integration_report(
coordination_results,
flow_results,
integration_results
)
return Trueoutput/17_integration_output/
├── module_coordination.json # Module coordination results
├── data_flow_management.json # Data flow management results
├── system_integration.json # System integration results
├── performance_metrics.json # Performance metrics
├── resource_allocation.json # Resource allocation data
├── error_log.json # Integration error log
└── integration_summary.md # Integration summary report
- Message Passing: Standardized message passing between modules
- Event System: Event-driven communication for loose coupling
- Data Sharing: Efficient data sharing mechanisms
- Synchronization: Module synchronization for coordinated operations
- Memory Pooling: Shared memory pools across modules
- CPU Allocation: Intelligent CPU allocation based on module needs
- I/O Optimization: Optimized I/O operations across modules
- Cache Coordination: Coordinated caching strategies
- Real-time Monitoring: Real-time performance monitoring
- Resource Usage: Track resource usage across modules
- Bottleneck Detection: Identify and resolve performance bottlenecks
- Optimization Suggestions: Provide optimization recommendations
- Cross-Module Error Recovery: Recover from errors spanning multiple modules
- Graceful Degradation: Graceful degradation when modules fail
- Error Isolation: Isolate errors to prevent system-wide failures
- Recovery Strategies: Implement recovery strategies for different failure types
# Integration configuration
config = {
'parallel_processing': True, # Enable parallel processing
'resource_sharing': True, # Enable resource sharing
'error_recovery': True, # Enable error recovery
'performance_monitoring': True, # Enable performance monitoring
'cache_coordination': True, # Enable cache coordination
'load_balancing': True # Enable load balancing
}# Module-specific integration settings
module_config = {
'gnn': {
'priority': 'high',
'memory_limit': '1GB',
'cpu_allocation': 0.3
},
'visualization': {
'priority': 'medium',
'memory_limit': '500MB',
'cpu_allocation': 0.2
},
'analysis': {
'priority': 'medium',
'memory_limit': '750MB',
'cpu_allocation': 0.25
}
}# Handle integration failures gracefully
try:
results = process_integration(target_dir, output_dir)
except IntegrationError as e:
logger.error(f"Integration failed: {e}")
# Provide recovery integration or error reporting# Handle module coordination issues
try:
coordination = coordinate_pipeline_modules()
except CoordinationError as e:
logger.warning(f"Module coordination issue: {e}")
# Implement recovery coordination strategy# Handle data flow issues
try:
flow_results = manage_data_flow()
except DataFlowError as e:
logger.error(f"Data flow issue: {e}")
# Implement data flow recovery- Module Parallelization: Run independent modules in parallel
- Data Parallelization: Process data in parallel across modules
- Resource Parallelization: Utilize multiple resources simultaneously
- Pipeline Parallelization: Parallel pipeline execution
- Shared Memory: Share memory between modules when possible
- Memory Pooling: Use memory pools for efficient allocation
- Garbage Collection: Optimize garbage collection across modules
- Memory Monitoring: Monitor memory usage and optimize accordingly
- Cross-Module Caching: Share cache between modules
- Intelligent Caching: Cache frequently accessed data
- Cache Invalidation: Proper cache invalidation strategies
- Cache Coordination: Coordinate cache usage across modules
# Test individual integration functions
def test_module_coordination():
results = coordinate_pipeline_modules()
assert 'modules' in results
assert 'status' in results
assert results['status'] == 'success'# Test complete integration pipeline
def test_integration_pipeline():
success = process_integration(test_dir, output_dir)
assert success
# Verify integration outputs
integration_files = list(output_dir.glob("**/*"))
assert len(integration_files) > 0# Test integration performance
def test_integration_performance():
start_time = time.time()
results = process_integration(test_dir, output_dir)
end_time = time.time()
assert results
assert (end_time - start_time) < 60 # Should complete within 60 seconds- pathlib: Path handling
- logging: Logging functionality
- json: JSON data handling
- multiprocessing: Parallel processing support
- psutil: System resource monitoring
- memory_profiler: Memory usage profiling
- line_profiler: Line-by-line profiling
- Small Systems (< 10 modules): < 5 seconds
- Medium Systems (10-50 modules): 5-30 seconds
- Large Systems (> 50 modules): 30-300 seconds
- Base Memory: ~50MB
- Per Module: ~10-100MB depending on complexity
- Peak Memory: 2-3x base usage during integration
- CPU Usage: 20-80% depending on parallelization
- Memory Usage: 100-500MB depending on system size
- I/O Operations: Optimized for minimal I/O overhead
Error: Failed to coordinate modules
Solution: Check module dependencies and resolve conflicts
Error: Data flow between modules failed
Solution: Verify data format compatibility and fix transformations
Error: Insufficient resources for module execution
Solution: Optimize resource allocation or increase system resources
Error: Integration performance below expected threshold
Solution: Enable parallel processing or optimize resource usage
# Enable debug mode for detailed integration information
results = process_integration(target_dir, output_dir, verbose=True, debug=True)- Dynamic Module Loading: Load modules dynamically based on requirements
- Real-time Integration: Real-time integration monitoring and adjustment
- Advanced Resource Management: Advanced resource management and optimization
- Intelligent Caching: AI-powered caching strategies
- GPU Integration: GPU acceleration for integration tasks
- Distributed Processing: Distributed processing across multiple systems
- Advanced Parallelization: Advanced parallelization strategies
- Memory Optimization: Advanced memory optimization techniques
The Integration module provides comprehensive system integration capabilities for the GNN pipeline, enabling cross-module coordination, data flow management, and system-wide functionality integration. The module ensures efficient resource utilization, robust error handling, and optimal performance for complex Active Inference research and development workflows.
This module is part of the GeneralizedNotationNotation project. See the main repository for license and citation information.
- Project overview: ../../README.md
- Comprehensive docs: ../../DOCS.md
- Architecture guide: ../../ARCHITECTURE.md
- Pipeline details: ../../doc/pipeline/README.md