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