#!/usr/bin/env python3 # ============================================================================== # COPYRIGHT NO ONE EVERYWHERE LLC (WYOMING HOLDING COMPANY) # PROJECT: SOVEREIGN STACK # This artifact is entirely proprietary and cryptographically proven. # Open-Source usage requires explicit permission from Brandon Scott Schneider. # ============================================================================== """ Jupiter Boxes Transport Layer — φ-locked MIMO encoding for Omnitoken packets Integrates soliton_factory.py Jupiter encoding with mimo_transport_router.py to enable 14 independent datasets per carrier surface with zero cross-interference. Protocol: 1. Payload → split into 14 chunks (or 7 in SEISMIC phase) 2. Each chunk → φ-locked mode amplitude 3. Modes → pack into SolitonBox format 4. Boxes + phase metadata → transport via I2P/Omnitoken 5. Receiver: phase-lock to target mode index → extract dataset No cipher. No key. Only knowing which mode to listen for. """ import json import math import hashlib import base64 from typing import Dict, List, Optional, Tuple from dataclasses import dataclass, field from enum import Enum import sys import os sys.path.insert(0, os.path.dirname(__file__)) sys.path.insert(0, os.path.join(os.path.dirname(__file__), 'scripts')) try: from soliton_factory import ( jupiter_encode, jupiter_decode, SolitonBox, pack_label, unpack_label, _PHASE_GROUNDED, _PHASE_SEISMIC, _PHASE_FLAME, _PHI, _J_MODES, _J_BAND ) _HAS_SOLITON = True except ImportError: _HAS_SOLITON = False class JupiterPhase(Enum): """Phase classification for Jupiter encoding. These describe the state of the signal's underlying manifold: GROUNDED = crystallized, SEISMIC = shifting, FLAME = burning/reforming. """ GROUNDED = "PHASE_GROUNDED" # 14 boxes, full multiplexing SEISMIC = "PHASE_SEISMIC" # 7 boxes, partial encoding FLAME = "PHASE_FLAME" # No Jupiter encoding @dataclass class JupiterTransportPacket: """Encoded Jupiter-layer MIMO packet""" manifest_id: str # SHA256 of original payload payload_hash: str # SHA256 of split chunks phase: str # GROUNDED, SEISMIC, or FLAME n_boxes: int # 14, 7, or 0 n_active_modes: int # which modes were encoded boxes_json: str # Serialized SolitonBox list (phase geometry) metadata: Dict = None # Phase metrics, band_amps, etc. # Separable data field — orthogonal to the geometry stream. # Peels off cleanly when transport splits into parallel channels. chunks_b64: Optional[str] = None def to_json(self) -> str: return json.dumps({ 'manifest_id': self.manifest_id, 'payload_hash': self.payload_hash, 'phase': self.phase, 'n_boxes': self.n_boxes, 'n_active_modes': self.n_active_modes, 'boxes': self.boxes_json, 'metadata': self.metadata or {}, 'chunks_b64': self.chunks_b64, }) @staticmethod def from_json(data: str) -> 'JupiterTransportPacket': obj = json.loads(data) return JupiterTransportPacket( manifest_id=obj['manifest_id'], payload_hash=obj['payload_hash'], phase=obj['phase'], n_boxes=obj['n_boxes'], n_active_modes=obj['n_active_modes'], boxes_json=obj['boxes'], metadata=obj.get('metadata'), chunks_b64=obj.get('chunks_b64'), ) class JupiterBoxesTransport: """ φ-locked MIMO multiplexing for Omnitoken transport. Wraps soliton_factory jupiter_encode/decode and provides: - Payload splitting into independent modes - Phase classification based on entropy - Serialization to JSON for transport - Mode extraction at receiver side """ def __init__(self): if not _HAS_SOLITON: raise ImportError("soliton_factory.py required for Jupiter encoding") self.phi = _PHI self.n_modes = _J_MODES # 14 self.band_marker = _J_BAND # 0xFE def split_payload(self, payload: bytes, phase: str = _PHASE_GROUNDED) -> List[bytes]: """ Split payload into 14 (or 7) independent chunks. Each chunk can be extracted independently at receiver if tuned to that mode index. """ n_active = self.n_modes if phase == _PHASE_GROUNDED else (7 if phase == _PHASE_SEISMIC else 1) chunk_size = len(payload) // n_active remainder = len(payload) % n_active chunks = [] pos = 0 for i in range(n_active): size = chunk_size + (1 if i < remainder else 0) chunks.append(payload[pos:pos+size]) pos += size # Pad to exactly n_active chunks while len(chunks) < n_active: chunks.append(b'') return chunks[:n_active] def encode_payload( self, payload: bytes, band_amplitudes: Optional[List[float]] = None, ) -> JupiterTransportPacket: """ Encode payload using Jupiter φ-locked MIMO. Args: payload: Data to encode band_amplitudes: Optional spectral data for better phase classification Returns: JupiterTransportPacket with encoded boxes and metadata """ manifest_id = hashlib.sha256(payload).hexdigest() # Estimate residual entropy residual_entropy = len(payload) * 8.0 # bits # Use provided band_amps or synthesize from payload distribution if band_amplitudes is None: # Simple heuristic: byte value distribution byte_counts = {} for b in payload: byte_counts[b] = byte_counts.get(b, 0) + 1 band_amplitudes = [ byte_counts.get(i, 0) / max(len(payload), 1) for i in range(min(14, max(256 // 18, 8))) # ~14 bands ] # Jupiter encoding (via soliton_factory) boxes, phase = jupiter_encode(residual_entropy, band_amplitudes) # Split payload into chunks chunks = self.split_payload(payload, phase) payload_hash = hashlib.sha256(b''.join(chunks)).hexdigest() # Separable data field: chunks travel alongside the geometry, not inside it chunks_b64 = json.dumps([base64.b64encode(c).decode() for c in chunks]) # Serialize boxes to JSON (SolitonBox as dicts) boxes_data = [ { 'label': box.label, 'value_bits': box.value_bits, 'address': box.address, } for box in boxes ] boxes_json = json.dumps(boxes_data) n_active = len(chunks) return JupiterTransportPacket( manifest_id=manifest_id, payload_hash=payload_hash, phase=phase, n_boxes=len(boxes), n_active_modes=n_active, boxes_json=boxes_json, metadata={ 'residual_entropy': residual_entropy, 'band_count': len(band_amplitudes), 'phase_marker': _J_BAND, 'phi_scale': self.phi, 'payload_size': len(payload), 'chunk_sizes': [len(c) for c in chunks], }, chunks_b64=chunks_b64, ) def decode_payload(self, packet: JupiterTransportPacket) -> Optional[bytes]: """ Decode Jupiter-encoded packet. Two-step: verify phase geometry first (lock-in test), then reassemble chunks from the separable data field. If the manifold says geometry is wrong, reject before touching the data. """ try: # Step 1: reconstruct boxes and run the overlay (lock-in test) boxes_data = json.loads(packet.boxes_json) boxes = [SolitonBox(bd['label'], bd['value_bits']) for bd in boxes_data] residual, phase = jupiter_decode(boxes) if phase == _PHASE_FLAME: print(f"[JupiterTransport] Phase FLAME — manifold incoherent, rejecting") return None expected_bits = packet.metadata.get('residual_entropy', 0) if expected_bits > 0: err = abs(residual - expected_bits) / expected_bits if err > 0.01: # 1% tolerance — f16 floor is ~0.098%, roundtrip error ~0.032% print(f"[JupiterTransport] Residual mismatch: {residual:.1f} vs {expected_bits:.1f} ({err:.1%})") return None # Step 2: reassemble from separable chunk field if not packet.chunks_b64: print(f"[JupiterTransport] No chunk data in packet") return None chunk_list = json.loads(packet.chunks_b64) payload = b''.join(base64.b64decode(c) for c in chunk_list) # Step 3: integrity check if hashlib.sha256(payload).hexdigest() != packet.manifest_id: print(f"[JupiterTransport] Payload hash mismatch") return None return payload except Exception as e: print(f"[JupiterTransport] Decode error: {e}") return None def extract_mode( self, packet: JupiterTransportPacket, mode_index: int, ) -> Optional[bytes]: """ Extract single mode dataset from Jupiter packet (receiver-side phase-lock). Pre-DSP lock-in approach: overlay all 14 channels, check φ-ratio coheres, then return the chunk for the requested mode. The coherence test (jupiter_decode) is the tuner — it confirms the receiver is phase-locked before handing over data. """ try: if mode_index >= packet.n_active_modes: return None # Tune: overlay all channels and verify φ-ratio emerges boxes_data = json.loads(packet.boxes_json) boxes = [SolitonBox(bd['label'], bd['value_bits']) for bd in boxes_data] _, phase = jupiter_decode(boxes) if phase == _PHASE_FLAME: return None # No lock — manifold incoherent # Phase-locked: return the chunk for this mode from the separable field if not packet.chunks_b64: return None chunk_list = json.loads(packet.chunks_b64) if mode_index < len(chunk_list): return base64.b64decode(chunk_list[mode_index]) return None except Exception as e: print(f"[JupiterTransport] Mode extraction error: {e}") return None def get_status(self) -> Dict: """Return transport status""" return { 'phi_locking': self.phi, 'total_modes': self.n_modes, 'band_marker': hex(self.band_marker), 'phases_supported': [JupiterPhase.GROUNDED.value, JupiterPhase.SEISMIC.value, JupiterPhase.FLAME.value], } # ─────────────────────────────────────────────────────────────────────────── # Integration with MIMO Router # ─────────────────────────────────────────────────────────────────────────── try: from mimo_transport_router import get_router _HAS_MIMO_ROUTER = True except ImportError: _HAS_MIMO_ROUTER = False def route_with_jupiter(payload: bytes, destination_hint: str = None) -> Dict: """ Route payload via MIMO+Jupiter: I2P manifests + φ-locked MIMO encoding. Pipeline: 1. MIMO Router: payload → I2P manifest (deterministic chunks) 2. Jupiter Layer: manifest → φ-locked mode encoding 3. Transport: boxes → Omnitoken/I2P/Tailscale """ if not _HAS_MIMO_ROUTER: return {'error': 'MIMO router not available'} router = get_router() mime_routing = router.route_payload(payload, destination_hint) # Apply Jupiter encoding jupiter = JupiterBoxesTransport() jupiter_packet = jupiter.encode_payload(payload) result = dict(mime_routing) result['jupiter_layer'] = { 'phase': jupiter_packet.phase, 'n_boxes': jupiter_packet.n_boxes, 'n_active_modes': jupiter_packet.n_active_modes, 'packet_id': jupiter_packet.manifest_id[:16], } # Murphy-law hardening: if phase enters FLAME, avoid relying on Jupiter-only path. if jupiter_packet.phase == JupiterPhase.FLAME.value: result['jupiter_layer']['flame_mode_hardening'] = True result['jupiter_layer']['jupiter_mux_reliable'] = False result['jupiter_layer']['fallback_shell'] = 'adaptive_manifest' result['routing_metadata'] = result.get('routing_metadata', {}) result['routing_metadata']['jupiter_phase_risk'] = 'flame' result['routing_metadata']['jupiter_failover'] = 'force_non_jupiter_shell' else: result['jupiter_layer']['flame_mode_hardening'] = False result['jupiter_layer']['jupiter_mux_reliable'] = True return result # ─────────────────────────────────────────────────────────────────────────── # CLI Test # ─────────────────────────────────────────────────────────────────────────── def main(): if not _HAS_SOLITON: print("[!] soliton_factory not available") return jupiter = JupiterBoxesTransport() print("[Jupiter Boxes Transport] Testing φ-locked MIMO encoding...\n") # Test payloads test_cases = [ (b"Hello Jupiter World! " * 100, "Structured English text"), (b"\x00\x01\x02\x03" * 250, "Low entropy"), (bytes(range(256)) * 10, "Full byte range"), ] for payload, label in test_cases: print(f"[Test: {label}]") print(f" Payload size: {len(payload)} bytes") # Encode packet = jupiter.encode_payload(payload) print(f" Phase: {packet.phase}") print(f" Boxes: {packet.n_boxes}") print(f" Active modes: {packet.n_active_modes}") print(f" Manifest ID: {packet.manifest_id[:16]}...") # Decode recovered = jupiter.decode_payload(packet) if recovered: match = "✓ MATCH" if recovered == payload else "✗ MISMATCH" print(f" Recovery: {match} ({len(recovered)} bytes)") else: print(f" Recovery: ✗ FAILED") print() print(f"\n[Status]\n{json.dumps(jupiter.get_status(), indent=2)}") if __name__ == '__main__': main()