Whitepaper: The Composable Intelligence Architecture
Source: OpenKor_ Whitepaper - The Composable Intelligence Architecture.pdf
Status: π§ Extraction in Progress
Roadmap: Vision & Innovation
Overviewβ
This document extracts and documents the detailed architectural patterns and principles from the OpenKor whitepaper, providing a comprehensive view of the composable intelligence architecture.
Core Architectural Principlesβ
Composable Intelligenceβ
Definition: AI systems built from reusable, validated components that can be automatically assembled to solve complex problems.
Key Characteristics
- Modularity: Components are independent and reusable
- Composability: Components can be combined in various ways
- Validation: Components are validated for quality and compatibility
- Discovery: Components are discoverable through global graph
- Assembly: Systems compose themselves from available components
Self-Assembling Infrastructureβ
Concept: Infrastructure that automatically assembles itself from available components based on goals and constraints.
Assembly Mechanisms
- Goal-driven selection
- Constraint satisfaction
- Optimal composition
- Dynamic reconfiguration
Continuous Improvementβ
Improvement Mechanisms
- Self-healing (DACR)
- Self-improving
- Learning from usage
- Quality maintenance
Architectural Patternsβ
Pattern 1: Component-Centric Architectureβ
Core Principle: Everything is a component.
Component Hierarchy
System
ββ Workflow
ββ Task
ββ Component
ββ Sub-component
Benefits
- Reusability
- Testability
- Maintainability
- Scalability
Pattern 2: Graph-Based Discoveryβ
Discovery Model: Components organized in a global graph with rich relationships.
Graph Structure
- Nodes: Components, interfaces, categories
- Edges: Dependencies, compositions, similarities
- Properties: Metadata, capabilities, quality metrics
Discovery Process
- Query graph
- Find matching components
- Rank by relevance
- Return results
Pattern 3: Autonomous Assemblyβ
Assembly Process
- Define goal
- Discover components
- Evaluate compatibility
- Compose system
- Validate composition
- Execute
Assembly Intelligence
- AI-driven component selection
- Constraint satisfaction
- Optimization algorithms
- Learning from experience
Pattern 4: Recursive Generationβ
Generation Model: Components that generate other components.
Generation Process
Component A
β (generates)
Component B
β (generates)
Component C
Benefits
- Exponential capability growth
- Self-extending systems
- Reduced manual creation
- Innovation acceleration
System Architectureβ
Layered Architectureβ
Layer 1: Component Layer
- Individual components
- Component interfaces
- Component metadata
Layer 2: Composition Layer
- Composition engine
- Dependency resolution
- Validation framework
Layer 3: Intelligence Layer
- Agent integration
- Goal-driven assembly
- Learning systems
Layer 4: Infrastructure Layer
- Storage
- Compute
- Network
- Monitoring
Component Lifecycleβ
Lifecycle Stages
- Creation: Component designed and implemented
- Validation: Quality and compatibility verified
- Registration: Added to component registry
- Discovery: Made discoverable via graph
- Composition: Used in composed systems
- Evolution: Updated and improved
- Deprecation: Replaced or removed
Quality Assurance Frameworkβ
Quality Dimensions
- Functionality
- Performance
- Security
- Reliability
- Usability
- Documentation
Quality Processes
- Automated testing
- Performance benchmarking
- Security scanning
- Peer review
- User feedback
Innovation Patternsβ
Component Foundry Pattern (CFP)β
Pattern Description: Systematic approach to creating, validating, and composing reusable components.
Key Elements
- Standardized interfaces
- Validation framework
- Composition rules
- Version management
Benefits
- Consistent quality
- Easy composition
- Reduced complexity
- Faster development
Durable Autonomous Continuous Remediation (DACR)β
Pattern Description: Self-healing systems that maintain component quality over time.
Remediation Mechanisms
- Quality monitoring
- Automatic fixes
- Adaptive learning
- Failure recovery
Benefits
- Reduced maintenance
- Improved reliability
- Self-sustaining systems
- Quality preservation
Durable Recursive Component Generation (DRCG)β
Pattern Description: Components that generate other components recursively.
Generation Mechanisms
- Template-based generation
- Pattern-based generation
- AI-driven generation
- Evolution tracking
Benefits
- Exponential growth
- Innovation acceleration
- Reduced manual work
- Self-extending systems
Autonomous Component-Centric Assembly (ACCA)β
Pattern Description: Systems that automatically assemble themselves from available components.
Assembly Mechanisms
- Goal specification
- Constraint satisfaction
- Component selection
- Dynamic reconfiguration
Benefits
- Reduced manual assembly
- Optimal compositions
- Adaptive systems
- Goal-driven development
Economic Modelβ
Component Economyβ
Economic Principles
- Value creation through components
- Fair compensation for creators
- Quality-based rewards
- Sustainable growth
Economic Mechanisms
- Component pricing
- Usage-based payments
- Quality incentives
- Revenue sharing
Marketplace Dynamicsβ
Market Principles
- Supply and demand
- Quality-based ranking
- Competitive pricing
- Market transparency
Market Mechanisms
- Discovery and search
- Ratings and reviews
- Recommendations
- Analytics
Governance Modelβ
Decentralized Governanceβ
Governance Principles
- Community-driven
- Transparent
- Participatory
- Sustainable
Governance Mechanisms
- DAO structure
- Proposal system
- Voting mechanisms
- Treasury management
Federation Modelβ
Federation Principles
- Multi-organization support
- Autonomy preservation
- Collaboration enablement
- Data sovereignty
Implementation Roadmapβ
Phase 1: Foundationβ
- Core architecture
- Component system
- Basic composition
Phase 2: Intelligenceβ
- Agent integration
- Autonomous assembly
- Learning systems
Phase 3: Ecosystemβ
- Global component graph
- Marketplace
- Federation
Phase 4: Maturityβ
- Full ecosystem
- Advanced features
- Market leadership
Related Documentationβ
Note: This specification is extracted from the OpenKor whitepaper. Detailed architectural patterns may need manual review from the source PDF.