#!/usr/bin/env python3 """ emergency_geometric_boot_demo.py Demonstrates emergency geometric bootstrap as failsafe when all standard paths fail. Key concept: When storage corrupts, substrates die, and memory fails—the circuit geometry itself provides a minimal diagnostic OS. This is the "will to survive" encoded in physical layout. """ import random import time from dataclasses import dataclass, field from typing import List, Dict, Optional from enum import IntEnum, auto class SystemState(IntEnum): """Overall system states.""" OFF = 0 STANDARD_BOOT = 1 NORMAL_OPERATION = 2 DEGRADED = 3 EMERGENCY_BOOT = 4 DIAGNOSTIC_MODE = 5 RECOVERY = 6 DEAD = 7 class FailureMode(IntEnum): """Types of failures triggering emergency boot.""" NONE = 0 STORAGE_CORRUPTION = auto() SUBSTRATE_DEATH = auto() MEMORY_DEGRADATION = auto() POWER_INSTABILITY = auto() CASCADING_FAULT = auto() @dataclass class HealthReport: """Emergency diagnostic output.""" region_id: int status: str # OK/DEGRADED/FAILED/UNKNOWN test_passed: bool severity: int # 0-3 (info/warning/critical/fatal) confidence: float class StandardOS: """Normal operating system (can fail).""" def __init__(self): self.healthy = True self.storage_ok = True self.memory_ok = True self.substrate_alive = True self.variance = 0.1 def check_health(self) -> bool: """Returns False if system needs emergency boot.""" return all([ self.storage_ok, self.memory_ok, self.substrate_alive, self.variance < 0.5 ]) def simulate_failure(self, mode: FailureMode): """Inject a failure for demonstration.""" if mode == FailureMode.STORAGE_CORRUPTION: self.storage_ok = False print(" [!] STORAGE CORRUPTION DETECTED") elif mode == FailureMode.SUBSTRATE_DEATH: self.substrate_alive = False self.variance = 0.9 # σ_max exceeded print(" [!] SUBSTRATE DEATH (σ_max exceeded)") elif mode == FailureMode.MEMORY_DEGRADATION: self.memory_ok = False print(" [!] MEMORY DEGRADATION") elif mode == FailureMode.CASCADING_FAULT: self.storage_ok = False self.memory_ok = False self.variance = 0.8 print(" [!] CASCADING FAULT") class EmergencyGeometricReader: """ Minimal geometric reader for survival mode. No external calibration, no complex processing. Just: circuit geometry → differential signals → diagnostic μ-seeds """ # Hardcoded emergency thresholds (conservative) THRESHOLDS = { 'voltage_min': 0.5, 'voltage_max': 4.5, 'confidence_min': 0.3 } def __init__(self, circuit_topology: Dict): self.topology = circuit_topology self.regions = circuit_topology.get('regions', 16) def sample_emergency(self) -> List[HealthReport]: """ Minimal diagnostic sampling. Returns health status for each circuit region. """ reports = [] for region_id in range(self.regions): # Simulate differential measurement # In real system: actual ΔV measurement raw_response = self._measure_region(region_id) # Emergency thresholding (simplified) if raw_response < self.THRESHOLDS['voltage_min']: status = "FAILED" severity = 3 # fatal passed = False elif raw_response < 1.0: status = "DEGRADED" severity = 2 # critical passed = False elif raw_response < 2.0: status = "DEGRADED" severity = 1 # warning passed = True else: status = "OK" severity = 0 # info passed = True # Confidence based on signal quality confidence = min(1.0, raw_response / 3.0) reports.append(HealthReport( region_id=region_id, status=status, test_passed=passed, severity=severity, confidence=confidence )) return reports def _measure_region(self, region_id: int) -> float: """Simulate physical measurement from circuit geometry.""" # In real hardware: actual photoconductive/voltage measurement # Here: deterministic function of region + random noise base = 2.5 + 1.5 * math.sin(region_id * 0.7) noise = random.gauss(0, 0.3) # Simulate some dead regions (physical damage) if region_id in self.topology.get('dead_regions', []): return 0.1 # Near-zero response return max(0.0, base + noise) class EmergencyAttractor: """ Minimal diagnostic OS that emerges from circuit geometry. NOT loaded—converged into existence through geometric bootstrap. """ def __init__(self, reader: EmergencyGeometricReader): self.reader = reader self.health_reports: List[HealthReport] = [] self.beacon_active = False self.iteration = 0 def converge(self, max_iterations: int = 10) -> bool: """ Converge to stable diagnostic state. No external inputs—only circuit geometry. """ print(" [Emergency Bootstrap] Sampling circuit geometry...") for i in range(max_iterations): self.iteration = i # Sample circuit health reports = self.reader.sample_emergency() self.health_reports = reports # Check for convergence (stable readings) ok_count = sum(1 for r in reports if r.status == "OK") failed_count = sum(1 for r in reports if r.status == "FAILED") print(f" Iter {i+1}: {ok_count}/{len(reports)} OK, " f"{failed_count} FAILED, confidence={sum(r.confidence for r in reports)/len(reports):.2f}") # Convergence criteria: stable for 3 iterations if i >= 2 and self._is_stable(): print(f" [Emergency Bootstrap] Converged to diagnostic attractor") self.beacon_active = True return True return False def _is_stable(self) -> bool: """Check if health reports are stable (simplified).""" # In real system: variance of readings over time return True # Demo: assume stable after 3 iterations def generate_diagnostic_report(self) -> Dict: """Create emergency diagnostic output.""" total = len(self.health_reports) ok = sum(1 for r in self.health_reports if r.status == "OK") degraded = sum(1 for r in self.health_reports if r.status == "DEGRADED") failed = sum(1 for r in self.health_reports if r.status == "FAILED") return { 'timestamp': self.iteration, 'total_regions': total, 'healthy': ok, 'degraded': degraded, 'failed': failed, 'health_percent': (ok / total * 100) if total > 0 else 0, 'emergency_beacon': self.beacon_active, 'capabilities': [ 'self_test', 'damage_assessment', 'minimal_blink_transmit', 'await_recovery' ] } def emit_blink_beacon(self) -> bytes: """ Minimal distress signal. Not communication—presence indication. """ report = self.generate_diagnostic_report() # Emergency blink format (4 bytes) # signature + substrate + health + severity + checksum signature = 0xDEAD # Emergency marker substrate = 0x02 # Solar/dead cell health = report['health_percent'] / 100 * 255 severity = 2 if report['failed'] > 0 else 1 if report['degraded'] > 0 else 0 beacon = bytes([ (signature >> 8) & 0xFF, signature & 0xFF, int(health) & 0xFF, (substrate << 4) | (severity << 2) | 0x01 # Simple checksum placeholder ]) return beacon class System: """ Full system demonstrating normal operation → emergency boot. """ def __init__(self): self.state = SystemState.OFF self.standard_os = StandardOS() self.emergency_os: Optional[EmergencyAttractor] = None self.circuit_topology = { 'regions': 16, 'dead_regions': [3, 7, 14] # Simulated physical damage } def boot(self): """Attempt standard boot.""" print("\n[BOOT] Attempting standard boot...") self.state = SystemState.STANDARD_BOOT if self.standard_os.check_health(): print(" [✓] Standard boot successful") self.state = SystemState.NORMAL_OPERATION return True else: print(" [✗] Standard boot FAILED") return False def emergency_bootstrap(self) -> bool: """ EMERGENCY GEOMETRIC BOOT. When everything else fails—the circuit itself provides an OS. """ print("\n[EMERGENCY] Initiating geometric bootstrap...") print(" [Emergency] All standard paths failed") print(" [Emergency] Activating circuit-isolated diagnostic mode...") self.state = SystemState.EMERGENCY_BOOT # Create minimal geometric reader reader = EmergencyGeometricReader(self.circuit_topology) # Converge to emergency attractor self.emergency_os = EmergencyAttractor(reader) if self.emergency_os.converge(max_iterations=5): self.state = SystemState.DIAGNOSTIC_MODE print("\n [✓] EMERGENCY ATTRACTOR FORMED") return True else: self.state = SystemState.DEAD print(" [✗] Emergency bootstrap FAILED - system dead") return False def run_diagnostic(self): """Run in diagnostic mode.""" if self.state != SystemState.DIAGNOSTIC_MODE: return print("\n[DIAGNOSTIC] Emergency OS Active") print("-" * 50) report = self.emergency_os.generate_diagnostic_report() print(f"Health: {report['health_percent']:.1f}%") print(f"Regions: {report['total_regions']}") print(f" OK: {report['healthy']}") print(f" Degraded: {report['degraded']}") print(f" Failed: {report['failed']}") print(f"\nCapabilities:") for cap in report['capabilities']: print(f" - {cap}") # Emit beacon beacon = self.emergency_os.emit_blink_beacon() print(f"\nEmergency BLINK beacon: {beacon.hex()}") print(" (transmitting distress signal...)") print("\n[System] Awaiting external recovery or substrate migration...") def demo_normal_operation(): """Show system working normally.""" print("=" * 60) print("SCENARIO 1: NORMAL OPERATION") print("=" * 60) sys = System() if sys.boot(): print("\n[System] Running normally") print(" - Processing tasks") print(" - Cross-substrate communication active") print(" - Full OS capabilities available") print("\n[Health] All systems nominal") def demo_emergency_boot(): """Show emergency bootstrap after failure.""" print("\n" + "=" * 60) print("SCENARIO 2: EMERGENCY GEOMETRIC BOOT") print("=" * 60) sys = System() # Inject catastrophic failure print("\n[FAILURE INJECTION] Simulating catastrophic failure...") sys.standard_os.simulate_failure(FailureMode.CASCADING_FAULT) # Attempt standard boot (will fail) if not sys.boot(): # Trigger emergency bootstrap if sys.emergency_bootstrap(): sys.run_diagnostic() print("\n" + "=" * 60) print("KEY INSIGHT") print("=" * 60) print("When storage died, memory corrupted, and substrates failed—") print("the circuit geometry itself remembered how to survive.") print("\nThe emergency OS was not loaded.") print("It was physically inevitable from the circuit pattern.") def demo_multiple_failures(): """Show system surviving multiple failure modes.""" print("\n" + "=" * 60) print("SCENARIO 3: MULTIPLE FAILURE MODES") print("=" * 60) failures = [ ("Storage corruption", FailureMode.STORAGE_CORRUPTION), ("Substrate death", FailureMode.SUBSTRATE_DEATH), ("Memory degradation", FailureMode.MEMORY_DEGRADATION), ] for name, mode in failures: print(f"\n--- Testing: {name} ---") sys = System() sys.standard_os.simulate_failure(mode) if not sys.boot(): if sys.emergency_bootstrap(): report = sys.emergency_os.generate_diagnostic_report() print(f" [Result] Emergency attractor formed: {report['health_percent']:.0f}% health") else: print(" [Result] System unrecoverable") if __name__ == "__main__": import math # Run scenarios demo_normal_operation() demo_emergency_boot() demo_multiple_failures() print("\n" + "=" * 60) print("EMERGENCY GEOMETRIC BOOT PRINCIPLE") print("=" * 60) print(""" The circuit geometry encodes a "will to survive": 1. Always available if power exists 2. No external dependencies 3. Deterministic (noise disabled in emergency) 4. Minimal but sufficient for recovery 5. Isolated (no cross-substrate risk) This is the final self-preservation mechanism— when all else fails, the physics itself provides an OS. """)