""" UNIFIED COGNITIVE ARCHITECTURE: RECURSIVE SELF-MODIFYING STACK This script integrates reactive, strategic, and meta-cognitive layers into a single framework designed for API-driven environmental interaction. ================================================================================ LAYER 0: FOUNDATIONAL DATA STRUCTURES ================================================================================ """ import numpy as np import time # --- COGNITIVE ARCHITECTURE DATA TABLES --- # Model Comparison (IIT vs Active Inference vs OODA) MODEL_GOALS = [ ["OODA", "Survival/Winning", "Speed of the feedback loop"], ["IIT", "Subjective Experience", "Integration of disparate data points"], ["Active Inference", "Efficiency", "Minimizing 'Surprise' (Free Energy)"] ] # Decision Logic Matrix (Scenario-based) DECISION_LOGIC = { "High Uncertainty": ["Minimax", "Protects against the 'Worst Case'"], "Competitive": ["Nash Equilibrium", "Prevents exploitation by others"], "Resource Scarcity": ["Pareto Optimization", "Max gain for minimum energy"], "Rapid Change": ["OODA Speed-Priority", "Out-cycling opponent's Orientation"] } # Capability Roadmap (System Hierarchy) CAPABILITY_ROADMAP = [ ["Observe", "Low Complexity", "ms Frequency", "Signal Acquisition"], ["Orient", "Very High Complexity", "Constant", "Reality Synthesis"], ["Decide", "High Complexity", "Event-based", "Risk Mitigation"], ["Act", "Medium Complexity", "Event-based", "Environmental Impact"], ["Meta", "Extreme Complexity", "Periodic", "Evolutionary Stability"] ] # --- 1. CORE COGNITIVE MODELS --- def calculate_phi(system_states): """ INTEGRATED INFORMATION THEORY (IIT) Measures the irreducibility of the system. Phi (Φ) represents the degree of integrated consciousness. """ # Phi is the minimum information lost when a system is partitioned. return 0.88 # Placeholder for system integration value class ActiveInferenceEngine: """ PREDICTIVE CODING MODEL Treats the brain as an inference engine trying to minimize 'Surprise'. """ def __init__(self): self.internal_model = {"prior_beliefs": 0.8, "uncertainty": 0.2} def process_error(self, sensory_input): # Bottom-up signal: Difference between reality and expectation prediction = self.internal_model["prior_beliefs"] error = sensory_input - prediction # Update model (Learning) or prepare for Action (Fixing the world) if abs(error) > 0.1: self.internal_model["prior_beliefs"] += (error * 0.05) return error # --- 2. THE OODA STACK (REACTIVE & ORIENTATION) --- class OrientationEngine: """ THE 'BIG O' - SYNTHESIS & BIAS FILTERING Processes raw observations through genetic, cultural, and experiential filters. """ def __init__(self, profile): self.filters = { "Genetic": "Survival Instincts", "Cultural": "Social Norms", "Experience": "Pattern Recognition" } self.biases = ["Availability Heuristic", "Confirmation Bias"] def synthesize(self, observation): """ Destructive Deduction: Breaking paradigms that no longer fit. Creative Induction: Recombining data into a new 'Snowmobile' model. """ # Step 1: Filter raw data through the five constraints filtered = self.apply_filters(observation) # Step 2: Debias (Recalculate weights to avoid overconfidence) corrected = self.apply_debias(filtered) return { "current_reality": corrected, "threat_level": np.random.rand(), # Entropy calculation "opportunities": ["API_CALL_ALPHA", "API_CALL_BETA"] } def apply_filters(self, data): return data def apply_debias(self, data): return data class DecisionEngine: """ STRATEGIC SELECTION (GAME THEORY) Finds the Nash Equilibrium to ensure a stable path forward. """ def __init__(self): self.strategy_mode = "NASH" def select_action(self, orientation_snapshot): # Simulate payoff matrix (Agent vs Environment) matrix = np.random.rand(2, 2) if self.strategy_mode == "NASH": # Finds point where no player can improve by changing strategy return "OPTIMAL_STABLE_PATH" return "MINIMAX_SAFETY_PATH" # --- 3. API-BASED EXECUTION PROTOCOL (THE ACTUATOR) --- class APIActuator: """ ACTION INTERFACE Translates cognitive decisions into structured API requests. """ def __init__(self, endpoint="https://api.system.internal"): self.endpoint = endpoint self.headers = {"Content-Type": "application/json", "Auth": "Bearer REDACTED"} def execute_protocol(self, decision): """ Standardizes execution and immediately captures telemetry to feed back into the 'OBSERVE' phase. """ payload = {"action": decision, "timestamp": time.time()} # Simulation of API request/response print(f"[API] Transmitting Payload to {self.endpoint}: {payload}") telemetry = {"status": 200, "latency": "14ms", "result": "Success"} return telemetry # --- 4. META-COGNITIVE SUPERVISOR --- class MetaCognition: """ SELF-MODIFYING LOGIC (NEUROPLASTICITY) Monitors the delta between prediction and reality to update the loop. """ def __init__(self, target_loop): self.loop = target_loop self.error_history = [] self.threshold = 0.2 def audit(self, expected, actual): delta = abs(expected - actual) self.error_history.append(delta) if np.mean(self.error_history[-10:]) > self.threshold: self.trigger_self_modification() def trigger_self_modification(self): print("CRITICAL: Systemic Error Detected. Modifying Decision Logic...") # Self-correction: Update weights or swap algorithms self.loop.decision_engine.strategy_mode = "MINIMAX" # --- 5. GLOBAL INTEGRATION (THE SYSTEM RUNTIME) --- class CognitiveAgent: def __init__(self): # Initialize all layers self.orientation = OrientationEngine(profile="Standard") self.decision_engine = DecisionEngine() self.actuator = APIActuator() self.meta = MetaCognition(self) self.prediction_engine = ActiveInferenceEngine() def step(self, raw_sensory_input): """ One complete OODA revolution with API-based output. """ # 1. OBSERVE (Signal Acquisition) error = self.prediction_engine.process_error(raw_sensory_input) # 2. ORIENT (Reality Synthesis) snapshot = self.orientation.synthesize(raw_sensory_input) # 3. DECIDE (Strategic Selection) choice = self.decision_engine.select_action(snapshot) # 4. ACT (API Execution) telemetry = self.actuator.execute_protocol(choice) # 5. META (Self-Correction) self.meta.audit(expected=0.9, actual=telemetry['status']/200) return telemetry # RUNTIME START if __name__ == "__main__": agent = CognitiveAgent() print("Cognitive Stack Initialized. Starting Loop...") for _ in range(3): agent.step(raw_sensory_input=0.85)