Complete technical documentation for the SuperClaude Framework-Hooks system: • Overview documentation explaining pattern-driven intelligence architecture • Individual hook documentation for all 7 lifecycle hooks with performance targets • Complete configuration documentation for all YAML/JSON config files • Pattern system documentation covering minimal/dynamic/learned patterns • Shared modules documentation for all core intelligence components • Integration guide showing SuperClaude framework coordination • Performance guide with optimization strategies and benchmarks Key technical features documented: - 90% context reduction through pattern-driven approach (50KB+ → 5KB) - 10x faster bootstrap performance (500ms+ → <50ms) - 7 lifecycle hooks with specific performance targets (50-200ms) - 5-level compression system with quality preservation ≥95% - Just-in-time capability loading with intelligent caching - Cross-hook learning system for continuous improvement - MCP server coordination for all 6 servers - Integration with 4 behavioral modes and 8-step quality gates Documentation provides complete technical reference for developers, system administrators, and users working with the Framework-Hooks system architecture and implementation. 🤖 Generated with [Claude Code](https://claude.ai/code) Co-Authored-By: Claude <noreply@anthropic.com>
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Compression Configuration (compression.yaml)
Overview
The compression.yaml file defines intelligent token optimization strategies for the SuperClaude-Lite framework. This configuration implements the Token Efficiency Mode with adaptive compression levels, selective content preservation, and quality-gated optimization.
Purpose and Role
The compression configuration serves as the foundation for:
- Token Efficiency Mode: Implements intelligent token optimization with 30-50% reduction targets
- Selective Compression: Protects framework content while optimizing session data
- Quality Preservation: Maintains ≥95% information fidelity during compression
- Symbol Systems: Provides efficient communication through standardized symbols
- Abbreviation Systems: Intelligent abbreviation for technical terminology
- Adaptive Intelligence: Context-aware compression based on user expertise and task complexity
Configuration Structure
1. Compression Levels (compression_levels)
The framework implements 5 compression levels with specific targets and use cases:
Minimal Compression (0-40%)
minimal:
symbol_systems: false
abbreviation_systems: false
structural_optimization: false
quality_threshold: 0.98
use_cases: ["user_content", "low_resource_usage", "high_quality_required"]
Purpose: Preserves maximum quality for critical content Usage: User project code, important documentation, complex technical content Quality: 98% preservation guarantee
Efficient Compression (40-70%)
efficient:
symbol_systems: true
abbreviation_systems: false
structural_optimization: true
quality_threshold: 0.95
use_cases: ["moderate_resource_usage", "balanced_efficiency"]
Purpose: Balanced optimization for standard operations Usage: Session metadata, working artifacts, analysis results Quality: 95% preservation with symbol enhancement
Compressed Level (70-85%)
compressed:
symbol_systems: true
abbreviation_systems: true
structural_optimization: true
quality_threshold: 0.90
use_cases: ["high_resource_usage", "user_requests_brevity"]
Purpose: Aggressive optimization for resource constraints Usage: Large-scale operations, user-requested brevity Quality: 90% preservation with full optimization suite
Critical Compression (85-95%)
critical:
symbol_systems: true
abbreviation_systems: true
structural_optimization: true
advanced_techniques: true
quality_threshold: 0.85
use_cases: ["resource_constraints", "emergency_compression"]
Purpose: Maximum optimization for severe constraints Usage: Resource exhaustion scenarios, emergency situations Quality: 85% preservation with advanced techniques
Emergency Compression (95%+)
emergency:
symbol_systems: true
abbreviation_systems: true
structural_optimization: true
advanced_techniques: true
aggressive_optimization: true
quality_threshold: 0.80
use_cases: ["critical_resource_constraints", "emergency_situations"]
Purpose: Ultra-compression for critical resource constraints Usage: System overload, critical memory constraints Quality: 80% preservation with aggressive optimization
2. Selective Compression (selective_compression)
Framework Exclusions
framework_exclusions:
patterns:
- "/SuperClaude/SuperClaude/"
- "~/.claude/"
- ".claude/"
- "SuperClaude/*"
- "CLAUDE.md"
- "FLAGS.md"
- "PRINCIPLES.md"
- "ORCHESTRATOR.md"
- "MCP_*.md"
- "MODE_*.md"
- "SESSION_LIFECYCLE.md"
compression_level: "preserve" # 0% compression
reasoning: "Framework content must be preserved for proper operation"
Critical Protection: Framework components receive zero compression to ensure operational integrity.
User Content Preservation
user_content_preservation:
patterns:
- "project_files"
- "user_documentation"
- "source_code"
- "configuration_files"
- "custom_content"
compression_level: "minimal" # Light compression only
reasoning: "User content requires high fidelity preservation"
Quality Guarantee: User content maintains 98% fidelity through minimal compression only.
Session Data Optimization
session_data_optimization:
patterns:
- "session_metadata"
- "checkpoint_data"
- "cache_content"
- "working_artifacts"
- "analysis_results"
compression_level: "efficient" # 40-70% compression
reasoning: "Session data can be compressed while maintaining utility"
Balanced Approach: Session operational data compressed efficiently while preserving utility.
3. Symbol Systems (symbol_systems)
Core Logic and Flow Symbols
core_logic_flow:
enabled: true
mappings:
"leads to": "→"
"implies": "→"
"transforms to": "⇒"
"rollback": "←"
"bidirectional": "⇄"
"and": "&"
"separator": "|"
"sequence": "»"
"therefore": "∴"
"because": "∵"
"equivalent": "≡"
"approximately": "≈"
"not equal": "≠"
Purpose: Express logical relationships and flow with mathematical precision Token Savings: 50-70% reduction in logical expression length
Status and Progress Symbols
status_progress:
enabled: true
mappings:
"completed": "✅"
"failed": "❌"
"warning": "⚠️"
"information": "ℹ️"
"in progress": "🔄"
"waiting": "⏳"
"critical": "🚨"
"target": "🎯"
"metrics": "📊"
"insight": "💡"
Purpose: Visual status communication with immediate recognition User Experience: Enhanced readability through universal symbols
Technical Domain Symbols
technical_domains:
enabled: true
mappings:
"performance": "⚡"
"analysis": "🔍"
"configuration": "🔧"
"security": "🛡️"
"deployment": "📦"
"design": "🎨"
"network": "🌐"
"mobile": "📱"
"architecture": "🏗️"
"components": "🧩"
Purpose: Domain-specific communication with contextual relevance Persona Integration: Symbols adapt to active persona domains
4. Abbreviation Systems (abbreviation_systems)
System and Architecture
system_architecture:
enabled: true
mappings:
"configuration": "cfg"
"implementation": "impl"
"architecture": "arch"
"performance": "perf"
"operations": "ops"
"environment": "env"
Technical Focus: Core system terminology with consistent abbreviations
Development Process
development_process:
enabled: true
mappings:
"requirements": "req"
"dependencies": "deps"
"validation": "val"
"testing": "test"
"documentation": "docs"
"standards": "std"
Workflow Integration: Development lifecycle terminology optimization
Quality Analysis
quality_analysis:
enabled: true
mappings:
"quality": "qual"
"security": "sec"
"error": "err"
"recovery": "rec"
"severity": "sev"
"optimization": "opt"
Quality Focus: Quality assurance and analysis terminology
5. Structural Optimization (structural_optimization)
Whitespace Optimization
whitespace_optimization:
enabled: true
remove_redundant_spaces: true
normalize_line_breaks: true
preserve_code_formatting: true
Code Safety: Preserves code formatting while optimizing prose content
Phrase Simplification
phrase_simplification:
enabled: true
common_phrase_replacements:
"in order to": "to"
"it is important to note that": "note:"
"please be aware that": "note:"
"for the purpose of": "for"
"with regard to": "regarding"
Natural Language: Simplifies verbose phrasing while maintaining meaning
Redundancy Removal
redundancy_removal:
enabled: true
remove_articles: ["the", "a", "an"] # Only in high compression levels
remove_filler_words: ["very", "really", "quite", "rather"]
combine_repeated_concepts: true
Intelligent Reduction: Context-aware redundancy elimination
6. Quality Preservation (quality_preservation)
Minimum Thresholds
minimum_thresholds:
information_preservation: 0.95
semantic_accuracy: 0.95
technical_correctness: 0.98
user_content_fidelity: 0.99
Quality Gates: Enforces minimum quality standards across all compression levels
Validation Criteria
validation_criteria:
key_concept_retention: true
technical_term_preservation: true
code_example_accuracy: true
reference_link_preservation: true
Content Integrity: Ensures critical content elements remain intact
Quality Monitoring
quality_monitoring:
real_time_validation: true
effectiveness_tracking: true
user_feedback_integration: true
adaptive_threshold_adjustment: true
Continuous Improvement: Real-time quality assessment and adaptation
7. Adaptive Compression (adaptive_compression)
Context Awareness
context_awareness:
user_expertise_factor: true
project_complexity_factor: true
domain_specific_optimization: true
Personalization: Compression adapts to user expertise and project context
Learning Integration
learning_integration:
effectiveness_feedback: true
user_preference_learning: true
pattern_optimization: true
Machine Learning: Continuous improvement through usage patterns
Dynamic Adjustment
dynamic_adjustment:
resource_pressure_response: true
quality_threshold_adaptation: true
performance_optimization: true
Real-Time Adaptation: Adjusts compression based on system state
Performance Targets
Processing Performance
performance_targets:
processing_time_ms: 150
compression_ratio_target: 0.50 # 50% compression
quality_preservation_target: 0.95
token_efficiency_gain: 0.40 # 40% token reduction
Optimization Goals: Balances speed, compression, and quality
Compression Level Performance
Each compression level has specific performance characteristics:
- Minimal: 1.0x processing time, 98% quality
- Efficient: 1.2x processing time, 95% quality
- Compressed: 1.5x processing time, 90% quality
- Critical: 1.8x processing time, 85% quality
- Emergency: 2.0x processing time, 80% quality
Integration Points
MCP Server Integration
integration:
mcp_servers:
morphllm: "coordinate_compression_with_editing"
serena: "memory_compression_strategies"
modes:
token_efficiency: "primary_compression_mode"
task_management: "session_data_compression"
System Coordination: Integrates with MCP servers for coordinated optimization
Learning Engine Integration
learning_engine:
effectiveness_tracking: true
pattern_learning: true
adaptation_feedback: true
Continuous Learning: Improves compression effectiveness through usage analysis
Cache Configuration
Compression Results Caching
caching:
compression_results:
enabled: true
cache_duration_minutes: 30
max_cache_size_mb: 50
invalidation_strategy: "content_change_detection"
Performance Optimization: Caches compression results for repeated content
Pattern Recognition Caching
pattern_recognition:
enabled: true
adaptive_pattern_learning: true
user_specific_patterns: true
Intelligent Caching: Learns and caches user-specific compression patterns
Best Practices
1. Content Classification
Always classify content before compression:
- Framework content → Zero compression
- User project content → Minimal compression
- Session data → Efficient compression
- Temporary data → Compressed/Critical levels
2. Quality Monitoring
Monitor compression effectiveness:
- Track quality preservation metrics
- Monitor user satisfaction with compressed content
- Adjust thresholds based on effectiveness feedback
3. Context-Aware Application
Adapt compression to context:
- User expertise level (beginner → minimal, expert → compressed)
- Project complexity (simple → efficient, complex → minimal)
- Resource pressure (low → minimal, high → critical)
4. Performance Optimization
Balance compression with performance:
- Use caching for repeated content
- Monitor processing time vs. quality trade-offs
- Adjust compression levels based on system resources
5. Learning Integration
Enable continuous improvement:
- Track compression effectiveness
- Learn user preferences for compression levels
- Adapt symbol and abbreviation usage based on domain
Troubleshooting
Common Issues
Quality Degradation
- Symptom: Users report information loss or confusion
- Solution: Reduce compression level, adjust quality thresholds
- Prevention: Enable real-time quality monitoring
Performance Issues
- Symptom: Compression takes too long (>150ms target)
- Solution: Enable caching, reduce compression complexity
- Monitoring: Track processing time per compression level
Symbol/Abbreviation Confusion
- Symptom: Users don't understand compressed content
- Solution: Adjust to user expertise level, provide symbol legend
- Adaptation: Learn user preference patterns
Cache Issues
- Symptom: Stale compression results, cache bloat
- Solution: Adjust cache invalidation strategy, reduce cache size
- Maintenance: Enable automatic cache cleanup
Configuration Validation
The framework validates compression configuration:
- Range Validation: Quality thresholds between 0.0-1.0
- Performance Validation: Processing time targets achievable
- Pattern Validation: Symbol and abbreviation mappings are valid
- Integration Validation: MCP server and mode coordination settings
Related Documentation
- Token Efficiency Mode: See
MODE_Token_Efficiency.mdfor behavioral patterns - Pre-Compact Hook: Review hook implementation for compression execution
- MCP Integration: Reference Morphllm documentation for editing coordination
- Quality Gates: See validation documentation for quality preservation
Version History
- v1.0.0: Initial compression configuration with 5-level strategy
- Selective compression with framework protection
- Symbol and abbreviation systems implementation
- Adaptive compression with learning integration
- Quality preservation with real-time monitoring