Python-ELMO is a Python library which offers an encapsulation of the binary tool ELMO, in order to manipulate it easily in Python and SageMath script.
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executor.py 3.8KB

  1. import shutil
  2. import os, re
  3. import sys
  4. from .server.servicethread import OneShotServiceThread
  5. from .config import (
  6. MODULE_PATH,
  7. ELMO_TOOL_REPOSITORY,
  8. ELMO_INPUT_FILE_NAME,
  9. DEFAULT_HOST,
  10. DEFAULT_PORT,
  11. )
  12. from .project_base import SimulationProject
  13. from .manage import execute_simulation
  14. from .utils import Color
  15. class Executor(OneShotServiceThread):
  16. def execute(self):
  17. data = self.protocol.get_data()
  18. self.protocol.please_assert(data)
  19. elmo_path = os.path.join(MODULE_PATH, ELMO_TOOL_REPOSITORY)
  20. # Set the input of ELMO
  21. self.protocol.please_assert('input' in data)
  22. with open(os.path.join(elmo_path, ELMO_INPUT_FILE_NAME), 'w') as _input_file:
  23. _input_file.write(data['input'])
  24. self.protocol.send_ack()
  25. # Get the binary
  26. binary_content = self.protocol.get_file()
  27. binary_path = os.path.join(elmo_path, 'project.bin')
  28. with open(binary_path, 'wb') as _binary_file:
  29. _binary_file.write(binary_content)
  30. self.protocol.send_ack()
  31. ### Generate the traces by launching ELMO
  32. print(Color.OKGREEN + ' - Simulation accepted...' + Color.ENDC)
  33. simulation = SimulationProject()
  34. simulation.get_binary_path = lambda: os.path.abspath(binary_path)
  35. data = execute_simulation(simulation)
  36. if data['error']:
  37. print(Color.FAIL + ' - Simulation failed.' + Color.ENDC)
  38. self.protocol.send_data(results)
  39. self.protocol.close()
  40. return
  41. print(Color.OKGREEN + ' - Simulation finished: {} traces, {} instructions'.format(
  42. data['nb_traces'],
  43. data['nb_instructions'],
  44. ) + Color.ENDC)
  45. output_path = os.path.join(elmo_path, 'output')
  46. ### Get the trace
  47. data['results'] = []
  48. for i in range(data['nb_traces']):
  49. filename = os.path.join(output_path, 'traces', 'trace%05d.trc' % (i+1))
  50. with open(filename, 'r') as _file:
  51. data['results'].append(
  52. list(map(float, _file.readlines()))
  53. )
  54. ### Get asmtrace and printed data
  55. asmtrace = None
  56. if ('asmtrace' not in data) or data['asmtrace']:
  57. with open(os.path.join(output_path, 'asmoutput', 'asmtrace00001.txt'), 'r') as _file:
  58. data['asmtrace'] = _file.read()
  59. printed_data = None
  60. if ('printdata' not in data) or data['printdata']:
  61. with open(os.path.join(output_path, 'printdata.txt'), 'r') as _file:
  62. data['printed_data'] = list(map(lambda x: int(x, 16), _file.readlines()))
  63. ### Send results
  64. print(Color.OKCYAN + ' - Sending results...' + Color.ENDC, end='')
  65. sys.stdout.flush()
  66. self.protocol.send_data(data)
  67. print(Color.OKGREEN + ' Sent!' + Color.ENDC)
  68. self.protocol.close()
  69. def launch_executor(host=DEFAULT_HOST, port=DEFAULT_PORT, waiting_function=True):
  70. from .server.servicethread import ListeningThread
  71. def do_main_program():
  72. thread = ListeningThread(host, port, Executor, debug=True)
  73. thread.start()
  74. return thread
  75. def program_cleanup(signum, frame):
  76. thread.stop()
  77. thread = do_main_program()
  78. import signal
  79. signal.signal(signal.SIGINT, program_cleanup)
  80. signal.signal(signal.SIGTERM, program_cleanup)
  81. if waiting_function is True:
  82. import time
  83. while thread.is_running():
  84. time.sleep(1)
  85. return
  86. return_value = None
  87. if waiting_function:
  88. return_value = waiting_function()
  89. if thread.is_running():
  90. program_cleanup(None, None)
  91. return return_value