PHASE2.mdโข10.2 kB
# Phase 2: Adaptive Learning Implementation
## Overview
Phase 2 transforms the Katamari MCP from a static self-modification system into a truly adaptive learning agent. The system now learns from every execution, adjusts its heuristics dynamically, and continuously improves its decision-making capabilities.
## What's New in Phase 2
### ๐ง Adaptive Learning Engine
**File:** `katamari_mcp/acp/adaptive_learning.py`
The core learning system that:
- **Collects execution feedback** from all capability runs
- **Analyzes heuristic accuracy** to predict success/failure
- **Recommends adjustments** with confidence scoring
- **Applies high-confidence changes** automatically
- **Tracks learning progress** over time
**Key Features:**
- Execution feedback collection and storage
- Heuristic accuracy analysis and trend detection
- Dynamic adjustment recommendations
- Learning sessions for batch processing
- Performance-based heuristic optimization
### ๐ Feedback Collection System
**File:** `katamari_mcp/acp/feedback.py`
Multi-channel feedback system that:
- **Collects user feedback** (ratings, comments)
- **Gathers automatic metrics** (performance, errors)
- **Processes monitoring data** (system health, resources)
- **Validates feedback quality** and consistency
- **Provides analytics** and trend analysis
**Feedback Channels:**
- **Direct User** - Manual ratings and comments
- **Automatic** - Execution results and performance metrics
- **System Monitoring** - Resource usage and health data
- **Test Results** - Automated testing outcomes
### โก Performance Tracking
**File:** `katamari_mcp/acp/performance_tracker.py`
Real-time performance monitoring that:
- **Tracks execution metrics** (duration, success rate, errors)
- **Monitors system resources** (CPU, memory, disk, network)
- **Calculates health scores** (0-100 with A-F grades)
- **Analyzes performance trends** and anomalies
- **Provides optimization recommendations**
**Performance Metrics:**
- Execution timing and success rates
- Resource usage patterns
- Error frequency and types
- Capability health grades
- Performance trend analysis
### ๐๏ธ Data Models & Storage
**File:** `katamari_mcp/acp/data_models.py`
Centralized data structures that:
- **Define consistent models** for all learning components
- **Provide validation functions** for data quality
- **Handle serialization** for storage and transmission
- **Track learning records** and adaptation proposals
- **Maintain audit trails** for all changes
**Key Models:**
- `FeedbackEvent` - Core feedback data structure
- `LearningRecord` - Adaptation and learning history
- `AdaptationProposal` - Structured change recommendations
- `PerformanceSnapshot` - System performance data
- `CapabilityProfile` - Capability behavior analytics
## New MCP Endpoints
### Feedback Endpoints
#### `acp_feedback_submit`
Submit feedback for capability execution.
```python
await router.call("acp_feedback_submit", {
"capability_id": "web_search",
"rating": 5,
"comment": "Excellent results!"
})
```
#### `acp_feedback_summary`
Get feedback analytics for capabilities.
```python
summary = await router.call("acp_feedback_summary", {
"capability_id": "web_search",
"days_back": 7
})
```
### Performance Endpoints
#### `acp_performance_metrics`
Get performance analytics for capabilities.
```python
metrics = await router.call("acp_performance_metrics", {
"capability_id": "web_search",
"days_back": 7
})
```
#### `acp_learning_summary`
Get adaptive learning progress and statistics.
```python
learning = await router.call("acp_learning_summary", {})
```
## Adaptive Learning Cycle
The Phase 2 system implements a continuous learning cycle:
### 1. Execution & Tracking
Every capability execution is automatically tracked:
- Performance metrics collected
- Resource usage monitored
- Success/failure recorded
- Heuristic profiles captured
### 2. Feedback Collection
Multiple feedback channels collect data:
- User satisfaction ratings
- Automatic performance metrics
- System monitoring data
- Test results and validation
### 3. Pattern Analysis
The learning engine analyzes patterns:
- Heuristic accuracy assessment
- Performance trend detection
- Error pattern recognition
- Success factor identification
### 4. Adaptation Recommendations
System recommends improvements:
- Heuristic weight adjustments
- Threshold modifications
- Rule refinements
- Parameter optimizations
### 5. Confidence-Based Application
High-confidence changes applied automatically:
- Confidence scoring (0-1 scale)
- Risk assessment for each change
- Gradual implementation with monitoring
- Rollback capability for failures
### 6. Validation & Learning
Results are validated and learned:
- Impact assessment of changes
- Success rate improvement tracking
- Long-term pattern recognition
- Continuous model refinement
## Integration with Existing ACP
### Enhanced Controller
The ACP controller now integrates with:
- **Adaptive Learning Engine** for heuristic optimization
- **Feedback Collector** for continuous improvement
- **Performance Tracker** for health monitoring
- **Data Models** for consistent data handling
### Updated Heuristics
The heuristic engine now supports:
- **Dynamic weight updates** based on performance
- **Adaptive thresholds** that adjust over time
- **Learning from feedback** to improve predictions
- **Confidence scoring** for decision making
### Router Integration
The intelligent router exposes:
- **New MCP endpoints** for feedback and performance
- **Learning capabilities** through existing interface
- **Backward compatibility** with Phase 1 features
- **Enhanced error reporting** with learning context
## Testing & Validation
### Comprehensive Test Suite
**File:** `tests/test_adaptive_learning.py`
400+ lines of comprehensive tests covering:
- **Unit tests** for all adaptive learning components
- **Integration tests** for feedback loops
- **Performance tracking** validation
- **End-to-end learning** cycle tests
- **Data model** validation and serialization
### Test Categories
- **AdaptiveLearningEngine** - Feedback processing and heuristic adjustment
- **FeedbackCollector** - Multi-channel feedback collection
- **PerformanceTracker** - Real-time monitoring and analytics
- **DataModels** - Validation and serialization
- **Integration** - End-to-end learning cycles
## Performance & Scalability
### Efficient Data Storage
- **JSON-based storage** for feedback and metrics
- **Time-based partitioning** for performance data
- **Compression** for historical data
- **Indexing** for fast query performance
### Asynchronous Processing
- **Non-blocking feedback collection** during execution
- **Background learning sessions** for pattern analysis
- **Queue-based processing** for high throughput
- **Concurrent monitoring** for real-time tracking
### Resource Management
- **Memory-efficient data structures** for large datasets
- **Configurable retention policies** for historical data
- **Lazy loading** for performance metrics
- **Batch processing** for learning operations
## Configuration & Customization
### Learning Parameters
```python
# Adaptive learning engine configuration
learning_config = {
"min_feedback_for_adjustment": 5,
"adjustment_confidence_threshold": 0.7,
"performance_window": 20,
"learning_rate": 0.1
}
# Performance tracking configuration
performance_config = {
"snapshot_interval": 1.0,
"max_snapshots_per_execution": 60,
"performance_window": 50
}
```
### Feedback Channels
```python
# Feedback collection configuration
feedback_config = {
"enable_user_feedback": True,
"enable_automatic_feedback": True,
"enable_monitoring": True,
"enable_test_results": True
}
```
## Monitoring & Observability
### Learning Metrics
- **Feedback volume** and quality scores
- **Heuristic accuracy** over time
- **Adaptation success** rates
- **Performance improvement** trends
### Performance Metrics
- **Capability health scores** and grades
- **Resource utilization** patterns
- **Error rates** and types
- **Execution time** distributions
### System Health
- **Learning engine** status and performance
- **Feedback collector** throughput and latency
- **Performance tracker** resource usage
- **Data storage** growth and efficiency
## Future Enhancements (Phase 3)
### Advanced Learning
- **Machine learning models** for pattern recognition
- **Predictive analytics** for capability optimization
- **Cross-capability learning** and knowledge transfer
- **Adaptive threshold optimization**
### Enhanced Feedback
- **Real-time feedback** during execution
- **Contextual feedback** based on usage patterns
- **Automated feedback generation** from system behavior
- **Feedback quality scoring** and weighting
### Performance Optimization
- **Predictive scaling** based on usage patterns
- **Resource allocation optimization**
- **Caching strategies** for frequently used data
- **Load balancing** for learning operations
## Migration Guide
### From Phase 1
Phase 2 is fully backward compatible with Phase 1:
- **Existing ACP operations** continue to work unchanged
- **Heuristic system** enhanced with learning capabilities
- **All endpoints** remain functional with new features
- **Configuration** extended with new options
### Configuration Updates
```python
# Phase 1 configuration (still supported)
phase1_config = {
"heuristics": {...},
"testing": {...},
"git": {...}
}
# Phase 2 extended configuration
phase2_config = {
"heuristics": {...},
"testing": {...},
"git": {...},
"adaptive_learning": {...},
"feedback": {...},
"performance_tracking": {...}
}
```
## Conclusion
Phase 2 transforms Katamari MCP into a truly adaptive learning agent that:
- **Learns from every execution** through comprehensive feedback
- **Improves decision making** via dynamic heuristic adjustment
- **Optimizes performance** through continuous monitoring
- **Maintains safety** through confidence-based changes
- **Provides transparency** through detailed analytics
The system now has the foundation for advanced agency capabilities in Phase 3, including workflow optimization, predictive capabilities, and cross-component learning.