





'''simple docstring'''




import math
import sys







def _lowerCAmelCase     (      _lowerCAmelCase    )->     Tuple:

 '''simple docstring'''





 __UpperCAmelCase					=   ''
 try:
  with open(lowerCAmelCase__       ,    'rb'    ) as binary_file:
   __UpperCAmelCase					=   binary_file.read()
  for dat in data:
   __UpperCAmelCase					=   F'{dat:08b}'
   result += curr_byte
  return result
 except OSError:
  print('File not accessible'    )
  sys.exit()







def _lowerCAmelCase     (      _lowerCAmelCase    )->     List[str]:

 '''simple docstring'''





 __UpperCAmelCase					=   {'0': '0', '1': '1'}
 __UpperCAmelCase					,    __UpperCAmelCase					=   '', ''
 __UpperCAmelCase					=   len(lowerCAmelCase__    )

 for i in range(len(lowerCAmelCase__    )    ):
  curr_string += data_bits[i]
  if curr_string not in lexicon:
   continue

  __UpperCAmelCase					=   lexicon[curr_string]
  result += last_match_id
  __UpperCAmelCase					=   last_match_id + '0'

  if math.loga(lowerCAmelCase__    ).is_integer():
   __UpperCAmelCase					=   {}
   for curr_key in list(lowerCAmelCase__    ):
    __UpperCAmelCase					=   lexicon.pop(lowerCAmelCase__    )
   __UpperCAmelCase					=   new_lex

  __UpperCAmelCase					=   last_match_id + '1'
  index += 1
  __UpperCAmelCase					=   ''
 return result







def _lowerCAmelCase     (      _lowerCAmelCase       ,    _lowerCAmelCase    )->     Tuple:

 '''simple docstring'''





 __UpperCAmelCase					=   8
 try:
  with open(lowerCAmelCase__       ,    'wb'    ) as opened_file:
   __UpperCAmelCase					=   [
       to_write[i : i + byte_length]
       for i in range(0       ,    len(lowerCAmelCase__    )       ,    lowerCAmelCase__    )
   ]

   if len(result_byte_array[-1]    ) % byte_length == 0:
    result_byte_array.append('10000000'    )
   else:
    result_byte_array[-1] += "1" + "0" * (
        byte_length - len(result_byte_array[-1]    ) - 1
    )

   for elem in result_byte_array[:-1]:
    opened_file.write(int(lowerCAmelCase__       ,    2    ).to_bytes(1       ,    byteorder='big'    )    )
 except OSError:
  print('File not accessible'    )
  sys.exit()







def _lowerCAmelCase     (      _lowerCAmelCase    )->     List[Any]:

 '''simple docstring'''





 __UpperCAmelCase					=   0
 for letter in data_bits:
  if letter == "1":
   break
  counter += 1

 __UpperCAmelCase					=   data_bits[counter:]
 __UpperCAmelCase					=   data_bits[counter + 1 :]
 return data_bits







def _lowerCAmelCase     (      _lowerCAmelCase       ,    _lowerCAmelCase    )->     str:

 '''simple docstring'''





 __UpperCAmelCase					=   read_file_binary(lowerCAmelCase__    )
 __UpperCAmelCase					=   remove_prefix(lowerCAmelCase__    )
 __UpperCAmelCase					=   decompress_data(lowerCAmelCase__    )
 write_file_binary(lowerCAmelCase__       ,    lowerCAmelCase__    )


if __name__ == "__main__":
    compress(sys.argv[1], sys.argv[2])












'''simple docstring'''




import math

import numpy as np
import qiskit
from qiskit import Aer, ClassicalRegister, QuantumCircuit, QuantumRegister, execute







def _lowerCAmelCase     (      _lowerCAmelCase = 3    )->     qiskit.result.counts.Counts:
 if isinstance(_lowerCAmelCase       ,    _lowerCAmelCase    ):
  raise TypeError('number of qubits must be a integer.'    )
 if number_of_qubits <= 0:
  raise ValueError('number of qubits must be > 0.'    )
 if math.floor(_lowerCAmelCase    ) != number_of_qubits:
  raise ValueError('number of qubits must be exact integer.'    )
 if number_of_qubits > 10:
  raise ValueError('number of qubits too large to simulate(>10).'    )

 __UpperCAmelCase					=   QuantumRegister(_lowerCAmelCase       ,    'qr'    )
 __UpperCAmelCase					=   ClassicalRegister(_lowerCAmelCase       ,    'cr'    )

 __UpperCAmelCase					=   QuantumCircuit(_lowerCAmelCase       ,    _lowerCAmelCase    )

 __UpperCAmelCase					=   number_of_qubits

 for i in range(_lowerCAmelCase    ):
  quantum_circuit.h(number_of_qubits - i - 1    )
  counter -= 1
  for j in range(_lowerCAmelCase    ):
   quantum_circuit.cp(np.pi / 2 ** (counter - j)       ,    _lowerCAmelCase       ,    _lowerCAmelCase    )

 for k in range(number_of_qubits // 2    ):
  quantum_circuit.swap(_lowerCAmelCase       ,    number_of_qubits - k - 1    )

 # measure all the qubits
 quantum_circuit.measure(_lowerCAmelCase       ,    _lowerCAmelCase    )
 # simulate with 10000 shots
 __UpperCAmelCase					=   Aer.get_backend('qasm_simulator'    )
 __UpperCAmelCase					=   execute(_lowerCAmelCase       ,    _lowerCAmelCase       ,    shots=1_00_00    )

 return job.result().get_counts(_lowerCAmelCase    )


if __name__ == "__main__":
    print(
        F"""Total count for quantum fourier transform state is: \
    {quantum_fourier_transform(3)}"""
    )





