import argparse
import binascii
import hashlib
import base58
import os
import time
import random
import secp256k1 as ice
import secrets
# Import the bitcoinlib library
import bitcoinlib
# Import the bit library
import bit
from bloomfilter import BloomFilter, ScalableBloomFilter, SizeGrowthRate
from bip32utils import BIP32Key
from bip32utils import BIP32_HARDEN
from mnemonic import Mnemonic
start_time_overall = time.time() # Get the current time
def find_key_worker(mnemonic_phrase, language, strength, tree, childs, start_time, bloom_filtereth1, bloom_filtereth2):
elapsed_time = time.time() - start_time
# Generate the mnemonic phrase using the Mnemonic class
mnemonic_obj = Mnemonic(language)
mnemonic_words = mnemonic_phrase
print("Currently checking: ", mnemonic_words)
print("------------------")
# Generate the BIP39 seed from the mnemonic phrase
bip39_seed = mnemonic_obj.to_seed(mnemonic_words)
# Use the BIP39 seed to create the root BIP-32 key
root_key = BIP32Key.fromEntropy(bip39_seed)
for t in range(tree):
# Increment the account index for each tree
current_account_index = t
print(current_account_index)
for i in range(childs):
# Increment the account index and address index for each child
current_address_index = i
print(current_address_index)
# Derive the Ethereum private key from the root key for derivation path ETH m/44'/60'/x'/0/y for Metamask
child_key_eth = root_key.ChildKey(44 + BIP32_HARDEN).ChildKey(60 + BIP32_HARDEN).ChildKey(current_account_index + BIP32_HARDEN).ChildKey(0).ChildKey(current_address_index)
eth_private_key = child_key_eth.PrivateKey()
eth_private_key_hex = binascii.hexlify(eth_private_key)
private_key_int_eth = int(eth_private_key_hex, 16)
#print(eth_private_key_hex)
# Convert the keys to Ethereum addresses
eth_address = ice.privatekey_to_ETH_address(private_key_int_eth)
eth_address_without_prefix = eth_address.strip("0x")
#print(eth_address_without_prefix)
# Derive the Ethereum private key from the root key for derivation path ETH m/44'/60'/0'/0/y for MyEtherWallet & Ledger Live
child_key_eth2 = root_key.ChildKey(44 + BIP32_HARDEN).ChildKey(60 + BIP32_HARDEN).ChildKey(0 + BIP32_HARDEN).ChildKey(0).ChildKey(current_address_index)
eth_private_key2 = child_key_eth2.PrivateKey()
eth_private_key_hex2 = binascii.hexlify(eth_private_key2)
private_key_int_eth2 = int(eth_private_key_hex2, 16)
#print(eth_private_key_hex)
# Convert the keys to Ethereum addresses
eth_address2 = ice.privatekey_to_ETH_address(private_key_int_eth)
eth_address_without_prefix2 = eth_address2.strip("0x")
#print(eth_address_without_prefix2)
# Check the Ethereum public address against the Ethereum bloom filter
if eth_address_without_prefix in bloom_filtereth1 or eth_address_without_prefix in bloom_filtereth2:
# The Ethereum public address has been seen before in bloom filter
with open(eth_address, '.txt', 'w') as f:
# Write the mnemonic phrase to the file and return True
f.write("Ethereum address: {}\n".format(eth_address))
f.write("---------")
f.write("Mnemonic phrase: {}\n".format(mnemonic_words))
f.write("---------")
f.write("Account index derivation path: {}\n".format(current_account_index))
f.write("---------")
f.write("Address index derivation path: {}\n".format(current_address_index))
f.write("---------")
f.write("Private key HEX: {}\n".format(eth_private_key_hex))
f.write("---------")
# Print the informations
print("Found ETH: ")
print("---------")
print("Ethereum address: {}\n".format(eth_address))
print("---------")
print("Mnemonic phrase: {}\n".format(mnemonic_words))
print("---------")
print("Account index derivation path: {}\n".format(current_account_index))
print("---------")
print("Address index derivation path: {}\n".format(current_address_index))
print("---------")
print("Private key HEX: {}\n".format(eth_private_key_hex))
print("---------")
# Print the elapsed time
print("Time elapsed before finding ETH: {} seconds".format(time.time() - start_time_overall))
print("---------")
return False
# Check the Ethereum public address against the Ethereum bloom filter
if eth_address_without_prefix2 in bloom_filtereth1 or eth_address_without_prefix2 in bloom_filtereth2:
# The Ethereum public address has been seen before in bloom filter
with open(eth_address2, '.txt', 'w') as f:
# Write the mnemonic phrase to the file and return True
f.write("Ethereum address: {}\n".format(eth_address2))
f.write("---------")
f.write("Mnemonic phrase: {}\n".format(mnemonic_words))
f.write("---------")
f.write("Account index derivation path: {}\n".format(current_account_index))
f.write("---------")
f.write("Address index derivation path: {}\n".format(current_address_index))
f.write("---------")
f.write("Private key HEX: {}\n".format(eth_private_key_hex2))
f.write("---------")
# Print the informations
print("Found ETH: ")
print("---------")
print("Ethereum address: {}\n".format(eth_address2))
print("---------")
print("Mnemonic phrase: {}\n".format(mnemonic_words))
print("---------")
print("Account index derivation path: {}\n".format(current_account_index))
print("---------")
print("Address index derivation path: {}\n".format(current_address_index))
print("---------")
print("Private key HEX: {}\n".format(eth_private_key_hex2))
print("---------")
# Print the elapsed time
print("Time elapsed before finding ETH: {} seconds".format(time.time() - start_time_overall))
print("---------")
return False
# Return False if the Bitcoin or Ethereum or Litecoin public address was not found in the bloom filters
#print("Generated and checked all accounts & addresses index... Restart")
#print("---------")
return False
def main():
start_time = time.time() # Get the current time
# Parse the command-line arguments
parser = argparse.ArgumentParser()
parser.add_argument("-l", "--language", type=str, help="Language of the mnemonic phrase (english, french, italian, japanese, chinese_simplified, chinese_traditional, korean, spanish)")
parser.add_argument("-s", "--strength", type=str, help="Length of the mnemonic phrase (128, 160, 192, 224, 256, or 'random')")
parser.add_argument("-c", "--childs", type=int, help="Number of child keys to generate")
parser.add_argument("-t", "--tree", type=int, help="Number of trees to generate for the Bitcoin derivation path (default 100)")
args = parser.parse_args()
# Set the default values for the command-line arguments
language = args.language if args.language else "english"
strength = args.strength if args.language else 128
childs = args.childs if args.childs else 4294967295
tree = args.tree if args.tree else 2147483647
with open('eth1.bf', "rb") as fp:
bloom_filtereth1 = BloomFilter.load(fp)
with open('eth2.bf', "rb") as fp:
bloom_filtereth2 = BloomFilter.load(fp)
# Read mnemonic phrases from the text file
with open('mnemonic_phrases.txt', 'r') as file:
mnemonic_phrases = file.readlines()
addr_count = len(bloom_filtereth2)
print("Mnemonic research for Ethereum by Kratos")
print("Total Ethereum addresses loaded: ", addr_count)
print("Launch of the research... May the (brute) force be with you!")
print("-----------------------------------------------------------")
# Iterate through each mnemonic phrase and find the key
for mnemonic_phrase in mnemonic_phrases:
# Clean up the mnemonic phrase (remove leading/trailing spaces and newlines)
mnemonic_phrase = mnemonic_phrase.strip()
if mnemonic_phrase:
find_key_worker(mnemonic_phrase, language, strength, tree, childs, start_time, bloom_filtereth1, bloom_filtereth2)
pass
# Call the main function
if __name__ == "__main__":
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