Skip to main content

T2: Component Foundry Implementation Guide

Source: T2_ Component Foundry Implementation Guide.pdf Status: 🚧 Extraction in Progress Roadmap: Technical Architecture Roadmap

Overview​

The Component Foundry provides a systematic approach to creating, validating, and composing reusable AI components. This guide provides detailed implementation specifications for building the Component Foundry system.

Component Foundry Pattern (CFP)​

Core Principles​

  1. Standardized Interfaces: Components follow consistent patterns
  2. Validation Framework: Automated quality assurance
  3. Composition Rules: Clear guidelines for combining components
  4. Version Management: Semantic versioning and compatibility

Component Metadata Schema​

Core Metadata​

{
  "id": "component-id",
  "name": "Component Name",
  "version": "1.0.0",
  "description": "Component description",
  "author": "Author Name",
  "license": "MIT",
  "created": "2025-01-01T00:00:00Z",
  "updated": "2025-01-01T00:00:00Z"
}

Component Classification​

{
  "category": "agent|tool|workflow|data|integration",
  "tags": ["tag1", "tag2"],
  "domain": "coding|analysis|communication|automation",
  "complexity": "simple|moderate|complex"
}

Interface Specification​

{
  "interfaces": {
    "input": {
      "schema": "json-schema-url",
      "required": ["field1"],
      "optional": ["field2"]
    },
    "output": {
      "schema": "json-schema-url",
      "guarantees": ["property1", "property2"]
    }
  }
}

Dependencies​

{
  "dependencies": [
    {
      "component_id": "dependency-id",
      "version_range": "^1.0.0",
      "type": "required|optional|peer"
    }
  ],
  "peer_dependencies": [],
  "optional_dependencies": []
}

Component Registry​

Registry Structure​

pub struct ComponentRegistry {
    components: HashMap<ComponentId, ComponentEntry>,
    index: ComponentIndex,
}

pub struct ComponentEntry {
    pub metadata: ComponentMetadata,
    pub versions: Vec<VersionedComponent>,
    pub latest: Version,
    pub stats: ComponentStats,
}

pub struct ComponentStats {
    pub downloads: u64,
    pub usage_count: u64,
    pub rating: f64,
    pub last_used: Option<DateTime<Utc>>,
}

Registry Operations​

Registration

pub trait ComponentRegistry {
    fn register(&mut self, component: Component) -> Result<ComponentId>;
    fn update(&mut self, id: &ComponentId, version: Version, component: Component) -> Result<()>;
    fn unregister(&mut self, id: &ComponentId) -> Result<()>;
}

Discovery

pub trait ComponentDiscovery {
    fn search(&self, query: SearchQuery) -> Vec<ComponentResult>;
    fn find_by_id(&self, id: &ComponentId) -> Option<ComponentEntry>;
    fn find_by_tag(&self, tag: &str) -> Vec<ComponentEntry>;
    fn find_dependencies(&self, id: &ComponentId) -> Vec<ComponentDependency>;
}

Component Validation Framework​

Validation Levels​

  1. Syntax Validation: Structure and format
  2. Schema Validation: Interface compliance
  3. Dependency Validation: Dependency resolution
  4. Security Validation: Security scanning
  5. Performance Validation: Performance benchmarks
  6. Compatibility Validation: Version compatibility

Validation Rules​

pub struct ValidationRule {
    pub name: String,
    pub severity: Severity,
    pub check: Box<dyn ValidationCheck>,
}

pub enum Severity {
    Error,
    Warning,
    Info,
}

pub trait ValidationCheck {
    fn validate(&self, component: &Component) -> ValidationResult;
}

Validation Pipeline​

pub struct ValidationPipeline {
    rules: Vec<ValidationRule>,
}

impl ValidationPipeline {
    pub fn validate(&self, component: &Component) -> ValidationReport {
        let mut report = ValidationReport::new();

        for rule in &self.rules {
            let result = rule.check.validate(component);
            report.add_result(rule.name.clone(), result);
        }

        report
    }
}

Component Creation Tools​

Component Template System​

Template Structure

component-template/
├── manifest.json
├── src/
│   └── component.rs
├── tests/
│   └── component_test.rs
├── docs/
│   └── README.md
└── .componentignore

Template Generation

pub struct ComponentTemplate {
    pub name: String,
    pub category: ComponentCategory,
    pub structure: TemplateStructure,
}

pub trait ComponentGenerator {
    fn generate(&self, template: &ComponentTemplate, config: &GeneratorConfig) -> Result<Component>;
}

Component Generator CLI​

# Create new component from template
rad component create my-component --template agent

# Generate component from specification
rad component generate --spec component-spec.yaml

# Validate component
rad component validate ./my-component

# Build component
rad component build ./my-component

# Publish component
rad component publish ./my-component

Quality Assurance Framework​

Automated Testing​

Test Types

  • Unit tests
  • Integration tests
  • Performance tests
  • Security tests
  • Compatibility tests

Test Framework

pub trait ComponentTest {
    fn run_tests(&self, component: &Component) -> TestResults;
}

pub struct TestResults {
    pub passed: u32,
    pub failed: u32,
    pub warnings: u32,
    pub coverage: f64,
}

Performance Benchmarking​

Benchmark Metrics

  • Execution time
  • Memory usage
  • CPU utilization
  • Network I/O
  • Throughput

Benchmark Framework

pub trait BenchmarkRunner {
    fn benchmark(&self, component: &Component, scenarios: &[BenchmarkScenario]) -> BenchmarkResults;
}

Security Scanning​

Security Checks

  • Dependency vulnerabilities
  • Code security issues
  • Configuration security
  • Data privacy compliance

Security Scanner

pub trait SecurityScanner {
    fn scan(&self, component: &Component) -> SecurityReport;
}

Version Management​

Semantic Versioning​

Version Format: MAJOR.MINOR.PATCH

  • MAJOR: Breaking changes
  • MINOR: New features, backward compatible
  • PATCH: Bug fixes, backward compatible

Version Compatibility​

Compatibility Matrix

pub struct CompatibilityMatrix {
    pub compatible_versions: Vec<VersionRange>,
    pub breaking_changes: Vec<BreakingChange>,
}

pub fn is_compatible(version1: &Version, version2: &Version) -> bool {
    // Compatibility checking logic
}

Version Resolution​

Dependency Resolution Algorithm

  1. Collect all dependencies
  2. Build dependency graph
  3. Resolve version conflicts
  4. Verify compatibility
  5. Generate resolution plan

Component Composition​

Composition Rules​

Compatibility Rules

  • Interface compatibility
  • Version compatibility
  • Dependency compatibility
  • Resource compatibility

Composition Patterns

  • Sequential composition
  • Parallel composition
  • Conditional composition
  • Recursive composition

Composition Engine​

pub trait CompositionEngine {
    fn compose(&self, components: &[ComponentId], pattern: CompositionPattern) -> Result<ComposedSystem>;
    fn validate_composition(&self, composition: &Composition) -> ValidationResult;
    fn optimize_composition(&self, composition: &Composition) -> OptimizedComposition;
}

Implementation Status​

📋 Planned​

  • Component registry and catalog
  • Component metadata schema
  • Version management system
  • Dependency resolution
  • Component template system
  • Component generator CLI
  • Validation test framework
  • Documentation generator
  • Automated testing framework
  • Performance benchmarking
  • Security scanning
  • Compatibility checking

Note: This specification is extracted from the OpenKor T2 document. Detailed implementation steps may need manual review from the source PDF.