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fee.py
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fee.py
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import random
def simple_crypto_mixer(input_transactions, input_private_keys, output_addresses):
# Ensure the number of input transactions matches the number of private keys
assert len(input_transactions) == len(input_private_keys)
# Shuffle the input transactions
shuffled_transactions = input_transactions.copy()
random.shuffle(shuffled_transactions)
# Calculate the total amount of cryptocurrency in the input transactions
total_amount = sum([tx['amount'] for tx in shuffled_transactions])
# Distribute the total amount evenly among the output addresses
amount_per_output = total_amount / len(output_addresses)
# Create a new transaction for each output address
mixed_transactions = []
for address in output_addresses:
mixed_transactions.append({
'address': address,
'amount': amount_per_output
})
# Sign each mixed transaction with the corresponding private key
signed_transactions = []
for i, tx in enumerate(mixed_transactions):
signed_tx = sign_transaction(tx, input_private_keys[i])
signed_transactions.append(signed_tx)
return signed_transactions
def sign_transaction(transaction, private_key):
# This is a placeholder function for signing a transaction
# In a real implementation, you would use a library like bitcoinlib or a similar library for other cryptocurrencies to sign the transaction
transaction['signature'] = f"signed_with_{private_key}"
return transaction
# Example usage
input_transactions = [
{'address': 'TFoCLV2PEaDZFbxufx22jhLfQNQyNmuUUY', 'amount': 1},
]
input_private_keys = [
'aff1f3439e15890b9c97c01a03fc46586fba114396e0645d3fb9d1f9fe019aa3',
]
output_addresses = [
'output_address_1',
]
mixed_transactions = simple_crypto_mixer(input_transactions, input_private_keys, output_addresses)
print(mixed_transactions)