Three Stage Architecture - skenai/WILL GitHub Wiki
version: 2.0.0 date: 2025-03-04 type: architecture-doc status: public tags: [william, three, stage, architecture] related: [] changelog:
- version: 2.0.0
date: 2025-03-04
changes:
- "MAJOR: Switch to YAML frontmatter"
- "MAJOR: Enhanced metadata structure" references: []
- version: 1.0.0
date: 2025-03-03
changes:
- "MAJOR: Initial documentation" references: []
Three-Stage Architecture
Overview
WILLIAM's SKENAI system implements a three-stage sequencer architecture designed for maximum security, quality control, and efficient deployment. This architecture ensures that all content flows through appropriate validation and quality gates before reaching production.
Stage 1: SKENAI (First Hopper)
Purpose
- Primary collection and aggregation layer
- Handles "mashy bits" and initial intake
- First-stage validation and processing
Key Features
- Raw content intake system
- Initial processing pipeline
- Basic validation checks
- Content categorization
- Preliminary security scanning
Stage 2: SKENAI-Q (Staging)
Purpose
- Intermediate processing and validation
- Quality control and content refinement
- Proposal staging and review
- Security protocol enforcement
Key Components
- Proposal validation system (100+ proposals)
- Quality metrics assessment
- Security protocol checks
- Staging environment
- Test suite execution
Validation Requirements
- Strict proposal format checking
- Metadata completeness verification
- Content structure validation
- Security compliance checks
- Quality metrics assessment
- Cross-reference validation
Stage 3: SKENAI-R (Release)
Purpose
- Final deployment stage
- Production-ready content
- Official release and distribution
- Public access management
Key Features
- Production environment
- Release management
- Version control
- Public documentation
- Access control
Content Flow
-
Initial Intake (SKENAI)
- Raw content submission
- Initial processing of "mashy bits"
- Basic validation checks
- Content categorization
-
Quality Control (SKENAI-Q)
- Detailed proposal validation
- Security protocol enforcement
- Quality metrics assessment
- Staging verification
- Cross-reference checking
-
Production Release (SKENAI-R)
- Final verification
- Production deployment
- Public distribution
- Access management
- Documentation updates
Security Integration
Progressive security implementation across stages:
- Stage 1: Basic security scanning
- Stage 2: OMEGA_BLACK protocols
- Stage 3: Production security measures
Quality Assurance
Quality checks follow WILLIAM's standards:
- Stage 1: Initial validation
- Stage 2: Comprehensive quality assessment
- Stage 3: Final verification
Benefits
- Clear separation of concerns
- Structured content flow
- Progressive refinement pipeline
- Better quality control gates
- Organized staging process
- Alignment with CI/CD practices
This architecture maintains WILLIAM's unique requirements for content processing and governance while providing a robust framework for system evolution.
Core Architecture
1. Recognition Stage
The first stage focuses on pattern recognition and initial signal processing:
Components
- Market signal detection
- Pattern identification
- Value indicators
- Trend analysis
Processing Flow
- Signal intake
- Pattern matching
- Initial validation
- Value assessment
2. Quality Stage
The second stage ensures signal quality and pattern validation:
Components
- Signal verification
- Pattern validation
- Quality metrics
- Value confirmation
Processing Flow
- Deep validation
- Pattern refinement
- Quality assessment
- Value crystallization
3. Production Stage
The final stage optimizes and deploys validated patterns:
Components
- Pattern optimization
- Signal coordination
- Value maximization
- Market integration
Processing Flow
- Final validation
- Resource optimization
- Market coordination
- Value deployment
Implementation Framework
1. Signal Processing
class SignalProcessor:
def process(self, market_data):
"""Three-stage signal processing:
1. Pattern recognition
2. Quality validation
3. Market optimization"""
pass
2. Pattern Validation
class PatternValidator:
def validate(self, pattern):
"""Pattern validation through:
1. Signal verification
2. Quality assessment
3. Value confirmation"""
pass
3. Market Integration
class MarketIntegrator:
def integrate(self, validated_pattern):
"""Market integration through:
1. Resource optimization
2. Signal coordination
3. Value maximization"""
pass
Quality Control
1. Signal Quality
- Accuracy metrics
- Reliability measures
- Consistency checks
- Value indicators
2. Pattern Quality
- Formation integrity
- Validation scores
- Stability measures
- Value metrics
3. Market Quality
- Integration success
- Resource efficiency
- Value creation
- System stability
System Evolution
1. Recognition Evolution
- Enhanced detection
- Better processing
- Improved validation
- Value discovery
2. Quality Evolution
- Advanced metrics
- Deeper validation
- Stronger patterns
- Value confirmation
3. Production Evolution
- Optimal deployment
- Market efficiency
- Value maximization
- System growth
Future Directions
1. Enhanced Processing
- Better signal detection
- Improved validation
- Advanced optimization
- Value creation
2. Quality Improvements
- Enhanced metrics
- Stronger validation
- Pattern stability
- Value assurance
3. Market Integration
- Seamless deployment
- Resource efficiency
- Pattern optimization
- Value maximization
Integration with NATURAL Framework
- Clean repository separation
- Natural pipeline flow
- Validator protection
- Interface standards
Pipeline API Integration
- /pipeline/submit - Entry point
- /pipeline/validate - Basic checks
- /pipeline/analyze - Efficiency (Q.1)
- /pipeline/patterns - Recognition (Q.2)
- /pipeline/status - State checks
- /pipeline/vote - Governance
Integration with Three-Graph Lattice
- Technical graph validation
- Economic resource optimization
- Quality metrics tracking