- Core Components
- Change Management
- Resource Management
- Verification System
- AI Integration
- [Novel Solution Management]{#novel-management}
- Cross-Cutting Concerns
- Error Handling
- Common Types
Primary interface for managing fractal structures.
class FractalManager:
def create_fractal(self, specification: FractalSpecification) -> Fractal:
"""
Create a new fractal based on the provided specification.
Args:
specification (FractalSpecification): Detailed specification for the fractal
including implementation, knowledge, and contract layers
Returns:
Fractal: The newly created fractal instance
Raises:
InvalidSpecificationError: If the specification is invalid
ResourceConflictError: If required resources are unavailable
"""
pass
def modify_fractal(self, fractal_id: str, changes: FractalChanges) -> Fractal:
"""
Modify an existing fractal with the specified changes.
Args:
fractal_id (str): Unique identifier of the fractal
changes (FractalChanges): Set of changes to apply
Returns:
Fractal: The updated fractal instance
Raises:
FractalNotFoundError: If the fractal doesn't exist
InvalidChangeError: If the changes are invalid
"""
pass
def get_fractal(self, fractal_id: str) -> Fractal:
"""
Retrieve a fractal by its ID.
Args:
fractal_id (str): Unique identifier of the fractal
Returns:
Fractal: The requested fractal instance
Raises:
FractalNotFoundError: If the fractal doesn't exist
"""
passManages contracts between fractals.
class ContractManager:
def create_contract(self, specification: ContractSpecification) -> Contract:
"""
Create a new contract between fractals.
Args:
specification (ContractSpecification): Detailed contract specification
including interfaces, behaviors, and resources
Returns:
Contract: The newly created contract instance
Raises:
InvalidContractError: If the contract specification is invalid
ConflictingContractError: If conflicting contracts exist
"""
pass
def verify_contract(self, contract: Contract) -> VerificationResult:
"""
Verify a contract's consistency and completeness.
Args:
contract (Contract): The contract to verify
Returns:
VerificationResult: Detailed verification results
Raises:
ContractNotFoundError: If the contract doesn't exist
"""
pass
def evolve_contract(self,
contract_id: str,
changes: ContractChanges) -> ContractEvolution:
"""
Evolve a contract while maintaining compatibility.
Args:
contract_id (str): Unique identifier of the contract
changes (ContractChanges): Proposed changes to the contract
Returns:
ContractEvolution: Details of the contract evolution including
compatibility layers and migration paths
Raises:
ContractNotFoundError: If the contract doesn't exist
IncompatibleChangeError: If changes break compatibility
"""
passAnalyzes potential impacts of changes across the system.
class ProbabilisticImpactAnalyzer:
def analyze_impact(self,
change: Change,
fractal_system: FractalSystem) -> ImpactAnalysisResult:
"""
Analyze the potential impact of a change across the system.
Args:
change (Change): The proposed change
fractal_system (FractalSystem): The system to analyze
Returns:
ImpactAnalysisResult: Detailed impact analysis including:
- Impact probabilities
- Affected components
- Risk assessment
- Suggested mitigations
Raises:
InvalidChangeError: If the change specification is invalid
AnalysisTimeoutError: If analysis takes too long
"""
pass
def validate_change(self,
change: Change,
impact: ImpactAnalysisResult) -> ValidationResult:
"""
Validate a change against its analyzed impact.
Args:
change (Change): The proposed change
impact (ImpactAnalysisResult): Previously analyzed impact
Returns:
ValidationResult: Validation results including:
- Safety assessment
- Contract compliance
- Resource impacts
Raises:
InvalidChangeError: If the change is invalid
ValidationError: If validation fails
"""
passManages resource lifecycles across fractals.
class ResourceLifecycleManager:
def track_resource(self,
resource: Resource,
context: FractalContext) -> ResourceTracker:
"""
Begin tracking a resource's lifecycle.
Args:
resource (Resource): The resource to track
context (FractalContext): Context in which the resource exists
Returns:
ResourceTracker: Resource tracking interface
Raises:
ResourceExistsError: If resource is already tracked
InvalidResourceError: If resource specification is invalid
"""
pass
def optimize_resource(self,
resource_id: str,
constraints: OptimizationConstraints) -> OptimizationPlan:
"""
Generate a resource optimization plan.
Args:
resource_id (str): Unique identifier of the resource
constraints (OptimizationConstraints): Optimization constraints
Returns:
OptimizationPlan: Detailed optimization plan
Raises:
ResourceNotFoundError: If resource doesn't exist
OptimizationError: If optimization fails
"""
passManages property-based testing across the system.
class PropertyTestManager:
def generate_tests(self,
fractal: Fractal,
coverage_requirements: CoverageRequirements) -> TestSuite:
"""
Generate a comprehensive test suite for a fractal.
Args:
fractal (Fractal): The fractal to test
coverage_requirements (CoverageRequirements): Required coverage levels
Returns:
TestSuite: Generated test suite
Raises:
InvalidFractalError: If fractal is invalid
CoverageError: If coverage requirements cannot be met
"""
pass
def execute_tests(self,
test_suite: TestSuite,
context: TestContext) -> TestResults:
"""
Execute a test suite.
Args:
test_suite (TestSuite): The test suite to execute
context (TestContext): Test execution context
Returns:
TestResults: Detailed test results
Raises:
TestExecutionError: If test execution fails
"""
passManages AI integration across the system.
class AIIntegrationManager:
def generate_prompts(self,
task: Task,
context: AIContext) -> list[Prompt]:
"""
Generate AI prompts for a task.
Args:
task (Task): The task requiring AI assistance
context (AIContext): Context for AI processing
Returns:
list[Prompt]: Generated prompts
Raises:
InvalidTaskError: If task specification is invalid
ContextError: If context is insufficient
"""
pass
def process_response(self,
response: AIResponse,
validation_criteria: ValidationCriteria) -> ProcessedResult:
"""
Process and validate AI responses.
Args:
response (AIResponse): The AI response to process
validation_criteria (ValidationCriteria): Criteria for validation
Returns:
ProcessedResult: Processed and validated result
Raises:
ValidationError: If response fails validation
ProcessingError: If processing fails
"""
passPrimary interface for managing the discovery and validation of novel solutions.
class NovelSolutionManager:
def handle_novel_solution(self, solution_context: SolutionContext) -> DiscoveryResponse:
"""
Process and validate a newly discovered solution pattern.
Args:
solution_context (SolutionContext): Context object containing:
- solution: The novel solution implementation
- affected_fractals: List of fractals involved
- performance_metrics: Initial performance data
- resource_usage: Resource utilization data
Returns:
DiscoveryResponse: Processing results including:
- validation_results: Solution validation status
- behavioral_data: Monitored behavior metrics
- extracted_patterns: Identified reusable patterns
- suggested_contracts: Proposed contract updates
Raises:
ValidationError: If solution fails validation
ResourceError: If solution exceeds resource constraints
BoundaryError: If solution violates fractal boundaries
"""
pass
def validate_solution(self, solution: Solution) -> ValidationResult:
"""
Validate a novel solution against system constraints.
Args:
solution (Solution): The solution to validate
Returns:
ValidationResult: Validation results including:
- contract_compliance: Contract validation results
- resource_compliance: Resource usage validation
- boundary_compliance: Boundary compliance check
- stability_impact: System stability assessment
Raises:
ValidationError: If validation process fails
"""
pass
def extract_patterns(self, validated_solution: Solution) -> List[Pattern]:
"""
Extract reusable patterns from a validated solution.
Args:
validated_solution (Solution): Previously validated solution
Returns:
List[Pattern]: Extracted reusable patterns
Raises:
ExtractionError: If pattern extraction fails
"""
passManages discovered patterns and their application across the system.
class PatternRegistry:
def register_pattern(self, pattern: Pattern, context: PatternContext) -> str:
"""
Register a new pattern for potential reuse.
Args:
pattern (Pattern): The pattern to register
context (PatternContext): Pattern discovery context including:
- origin_fractal: Source fractal
- validation_results: Pattern validation data
- performance_metrics: Performance characteristics
Returns:
str: Unique pattern identifier
Raises:
DuplicatePatternError: If pattern already exists
ValidationError: If pattern fails validation
"""
pass
def query_patterns(self, search_context: SearchContext) -> List[Pattern]:
"""
Query for applicable patterns.
Args:
search_context (SearchContext): Search parameters including:
- target_fractal: Target application context
- requirements: Required capabilities
- constraints: Application constraints
Returns:
List[Pattern]: Matching patterns
Raises:
SearchError: If pattern search fails
"""
pass
def track_pattern_usage(self, pattern_id: str, usage_data: UsageData) -> UsageMetrics:
"""
Track pattern usage and effectiveness.
Args:
pattern_id (str): Pattern identifier
usage_data (UsageData): Pattern usage information
Returns:
UsageMetrics: Updated usage metrics
Raises:
PatternNotFoundError: If pattern doesn't exist
"""
passManages optimizations that span multiple fractals.
class CrossFractalOptimizer:
def analyze_optimization_opportunity(self, fractals: List[Fractal]) -> OptimizationAnalysis:
"""
Analyze potential cross-fractal optimizations.
Args:
fractals (List[Fractal]): Fractals to analyze
Returns:
OptimizationAnalysis: Analysis results including:
- optimization_points: Identified optimization opportunities
- impact_assessment: Potential impact analysis
- resource_implications: Resource usage implications
Raises:
AnalysisError: If analysis fails
"""
pass
def apply_optimization(self, optimization_plan: OptimizationPlan) -> OptimizationResult:
"""
Apply a cross-fractal optimization.
Args:
optimization_plan (OptimizationPlan): Plan details including:
- target_fractals: Fractals to optimize
- optimization_pattern: Pattern to apply
- validation_criteria: Success criteria
Returns:
OptimizationResult: Optimization results
Raises:
OptimizationError: If optimization fails
ValidationError: If validation fails
"""
pass
def monitor_optimization(self, optimization_id: str) -> OptimizationMetrics:
"""
Monitor an applied optimization.
Args:
optimization_id (str): Optimization identifier
Returns:
OptimizationMetrics: Current metrics
Raises:
MonitoringError: If monitoring fails
"""
pass@dataclass
class SolutionContext:
"""Context for a novel solution."""
solution: Solution
affected_fractals: List[Fractal]
performance_metrics: PerformanceMetrics
resource_usage: ResourceUsage
discovery_metadata: DiscoveryMetadata@dataclass
class Pattern:
"""Reusable solution pattern."""
pattern_type: PatternType
implementation: Implementation
applicability_criteria: List[Criterion]
resource_requirements: ResourceRequirements
validation_rules: List[ValidationRule]@dataclass
class OptimizationPlan:
"""Plan for cross-fractal optimization."""
target_fractals: List[Fractal]
optimization_pattern: Pattern
validation_criteria: List[ValidationRule]
rollback_procedure: RollbackProcedure
monitoring_config: MonitoringConfig# Core types
SolutionId = str
PatternId = str
OptimizationId = str
# Metric types
ConfidenceScore = float
EffectivenessScore = float
StabilityScore = float
# Collection types
PatternMap = Dict[PatternId, Pattern]
OptimizationMap = Dict[OptimizationId, OptimizationResult]
ValidationMap = Dict[str, ValidationResult]Manages security aspects across the system.
class SecurityManager:
def define_boundaries(self,
system: FractalSystem) -> SecurityBoundaries:
"""
Define security boundaries for a system.
Args:
system (FractalSystem): The system to analyze
Returns:
SecurityBoundaries: Defined security boundaries
Raises:
AnalysisError: If boundary analysis fails
"""
pass
def verify_security(self,
boundaries: SecurityBoundaries,
requirements: SecurityRequirements) -> SecurityReport:
"""
Verify security compliance.
Args:
boundaries (SecurityBoundaries): Defined security boundaries
requirements (SecurityRequirements): Security requirements
Returns:
SecurityReport: Security verification report
Raises:
ComplianceError: If security requirements are not met
"""
passclass FractalError(Exception):
"""Base exception for all fractal-related errors."""
pass
class InvalidSpecificationError(FractalError):
"""Raised when a specification is invalid."""
pass
class ResourceError(FractalError):
"""Base exception for resource-related errors."""
pass
class ContractError(FractalError):
"""Base exception for contract-related errors."""
pass
class ValidationError(FractalError):
"""Base exception for validation failures."""
pass
class SecurityError(FractalError):
"""Base exception for security-related errors."""
passfrom dataclasses import dataclass
from typing import Optional, List, Dict, Any
@dataclass
class FractalSpecification:
"""Specification for creating a new fractal."""
name: str
implementation: Dict[str, Any]
knowledge: Dict[str, Any]
contracts: List[ContractSpecification]
resources: Optional[List[ResourceSpecification]] = None
@dataclass
class ContractSpecification:
"""Specification for creating a new contract."""
name: str
interfaces: List[InterfaceSpecification]
behaviors: List[BehaviorSpecification]
resources: Optional[List[ResourceSpecification]] = None
@dataclass
class ValidationResult:
"""Results of a validation operation."""
is_valid: bool
issues: List[ValidationIssue]
recommendations: Optional[List[str]] = None# Core types
FractalId = str
ContractId = str
ResourceId = str
# Result types
ImpactScore = float
RiskLevel = float
ConfidenceScore = float
# Collection types
FractalMap = Dict[FractalId, Fractal]
ContractMap = Dict[ContractId, Contract]
ResourceMap = Dict[ResourceId, Resource]This API reference provides a comprehensive overview of the core interfaces and types in the Code Fractalization Protocol. Each section includes detailed documentation of parameters, return values, and possible exceptions. The reference focuses on the most commonly used components while maintaining extensibility for specific implementations.
For more detailed examples and usage patterns, refer to the Examples and Templates documentation. For implementation guidance, see the Implementation Guide.