我尝试使用Python 3.3编译一些cx_freeze代码，并且在编译之后，生成的test.exe文件将创建无限数量的程序实例，导致我的Windows 7系统变得不稳定。它只是在Python中运行时正常工作，但一旦编译就会导致问题。以下是我的主要脚本中的导入：
import sys
from multiprocessing import Pool, Queue
from threading import Thread
from time import sleep, time
from inspect import getmembers
from PyQt5 import QtWidgets, QtCore, QtGui
from main_ui import Ui_MainWindow # Generated UI from pyuic, imports
# QtWidgets, QtCore, and QtGui
from devices import Device1, Device2 # Both are serial.Serial objects
setup.py脚本：
import sys
from cx_Freeze import setup, Executable
product_name = 'Product Name'
path_platforms = ("C:\Python33\Lib\site-packages\PyQt5\plugins\platforms\qwindows.dll",
"platforms\qwindows.dll")
includes = ['PyQt5.QtWidgets', 'PyQt5.QtCore', 'PyQt5.QtGui']
include_files = [path_platforms]
excludes = ['_gtkagg', '_tkagg', 'bsddb', 'curses', 'email', 'pywin.debugger',
'pywin.debugger.dbgcon', 'pywin.dialogs', 'tcl',
'Tkconstants', 'Tkinter']
packages = ['os']
path = []
bdist_msi_options = {'add_to_path': False}
build_exe_options = {'includes': includes,
'include_files': include_files,
'excludes': excludes,
'packages': packages,
'path': path,
'silent': True}
base = None
if sys.platform == 'win32':
base = 'Win32GUI'
exe = Executable(script='main.pyw',
base=base,
targetName='test.exe')
setup(name=product_name,
version='1.0',
description='The Test Program',
executables=[exe],
options = {'bdist_msi': bdist_msi_options, 'build_exe': build_exe_options})
当我运行python setup.py build时，会发生以下错误：
Missing modules:
? System imported from serial.serialcli
? TERMIOS imported from serial.serialposix
? __main__ imported from bdb
? _gestalt imported from platform
? _posixsubprocess imported from subprocess
? clr imported from serial.serialcli
尽管存在这些错误，但仍会生成test.exe个文件。当我执行它时，它会生成一个看似无限数量的窗口，并且阻止它的唯一方法是硬重置计算机。同样，主脚本在Python下运行良好，但编译后失败。任何帮助将不胜感激！
编辑：根据要求，这是我的主要脚本：
import sys
from multiprocessing import Pool, Queue, freeze_support
from threading import Thread
from time import sleep, time
from inspect import getmembers
from PyQt5 import QtWidgets, QtCore, QtGui
from main_ui import Ui_MainWindow # Generated by pyuic
import parts # Imports time.sleep, datetime.datetime, and threading.Thread
from devices import GwPowerSupply, DataQ # Imports time.sleep and serial.Serial
# GwPowerSupply is a serial.Serial object to handle communications with a GwInstek PSP-603
# DataQ is also a serial.Serial object to handle communications with a DataQ-155
def file_logger(message):
logging = True
if logging:
with open('log.txt', 'a') as f:
f.write('{}: {}\n'.format(time(), message))
def compute():
"""
A function, designed as an independent process, to gather data from the DataQ and Power Supply
input queues, convert to human values, and output as a single queue
"""
compute.running = True
compute.paused = False
# The initial dict to pass on to the queue
data_dict = {'upstream': 0, 'downstream': 0, 'high_flow': 0, 'low_flow': 0, 'voltage': 0, 'current': 0, 'offset': 0}
while compute.running:
if compute.paused or compute.input_queue.empty():
continue
# Get the raw voltage data and convert to pressure/flow
analog_input = compute.input_queue.get()
file_logger('Compute received {}'.format(analog_input))
if analog_input is None:
continue
# Four items comes from the DataQ for pressures and flow
if len(analog_input) == 4:
# Pressure Transducers are both 1-11V, 0-500 PSI
if isinstance(analog_input[0], (float, int)):
data_dict['upstream'] = (analog_input[0]-1) * 50
if isinstance(analog_input[1], (float, int)):
data_dict['downstream'] = (analog_input[1]-1) * 50
# High Flow is 0-5V, 0-1000 Liters/min
if isinstance(analog_input[2], (float, int)):
data_dict['high_flow'] = (analog_input[2]*200) * .035147 # Convert SLM to SCFM
# Low Flow is 0-5V, 0-5 Liters/min
if isinstance(analog_input[3], (float, int)):
data_dict['low_flow'] = analog_input[3] * 1000 # Convert SLM to SCCM
# Two items are from the power supply for voltage and current
elif len(analog_input) == 2:
if isinstance(analog_input[0], (float, int)):
data_dict['voltage'] = analog_input[0]
if isinstance(analog_input[1], (float, int)):
data_dict['current'] = analog_input[1]
# A single item is the offset from the Valve program
elif len(analog_input) == 1:
data_dict['offset'] = analog_input[0]
else:
return
compute.output_queue.put(data_dict)
file_logger('Compute put out {}'.format(data_dict))
def data_q_producer():
"""
A function, designed as an independent process, to gather data from the DataQ and feed it
to the computing process
"""
# Initialize COM port
data_q = DataQ('COM4')
data_q.start()
# Continuously gather data
while True:
if not data_q.paused and not data_q.stopped:
# Gather data and put to queue, either for response or normal
file_logger('Getting Data from DataQ')
if data_q.response:
data = data_q.get_response_data()
data_q_producer.response_queue.put(data)
else:
data = data_q.get_data()
data_q_producer.queue.put(data)
file_logger('Got {} from DataQ'.format(data))
# If a command is received, such as to energize a relay, handle
if not data_q_producer.output.empty():
output = data_q_producer.output.get()
file_logger('Sending {} to DataQ'.format(output))
# Strings are to stop, run response, etc.
if isinstance(output, str):
if output == 'stop':
data_q.set_output(0, 0, 0, 0)
data_q.stop()
data_q.close()
data_q_producer.queue.put([])
return
elif output == 'start resp':
data_q.response = True
data_q.pause()
data_q.start_resp()
data_q.start()
elif output == 'stop resp':
print('Stopping Response Test')
data_q.pause()
data_q.setup()
data_q.start()
data_q.response = False
# If a single integer is received, it is the new leakage offset.
elif isinstance(output, float):
data_q_producer.queue.put([output, ])
# A List is to set the digital outputs
elif isinstance(output, list):
data_q.set_output(output[0], output[1], output[2], output[3])
def pps_producer():
"""
A function, designed as an independent process, to gather data from the Power Supply and feed it
to the computing process
"""
# Initialize COM port
pps = GwPowerSupply('COM1')
pps.set_relay(True)
# Continuously gather voltage and current readings
while True:
file_logger('Getting Data from Power Supply')
voltage = pps.get_value('V')
current = pps.get_value('A')
file_logger('Got {}V, {}A from power supply'.format(voltage, current))
pps_producer.queue.put([voltage, current])
# If a command is received to change voltage, current, etc.; handle
if not pps_producer.output.empty():
output = pps_producer.output.get()
file_logger('Got {} for Power Supply'.format(output))
# Bool is to set the relay on or off
if isinstance(output, bool):
pps.set_relay(output)
# String is primarily to stop the power supply (set the relay to Off)
elif isinstance(output, str) and output == 'stop':
pps.set_relay(False)
pps.close()
pps_producer.queue.put([])
return
# A tuple is changing a power supply output setting
else:
pps.set_value(output[0], output[1])
def pool_init(input_queue, output_queue, data_q_out, pps_out, response_queue):
"""
Initializes the above functions with external queue variables.
see http://stackoverflow.com/a/3843313/852994 for more details
"""
compute.output_queue = output_queue
compute.input_queue = input_queue
data_q_producer.queue = input_queue
data_q_producer.output = data_q_out
data_q_producer.response_queue = response_queue
pps_producer.queue = input_queue
pps_producer.output = pps_out
class MainGui(QtWidgets.QMainWindow):
"""
The Main interface builder for the program
"""
def __init__(self):
# Initialize MainGui and create the window
super(MainGui, self).__init__()
self.ui = Ui_MainWindow()
self.ui.setupUi(self)
# The current valve part being tested
self.valve = None
# Disables the 'Energize' button when running ATP
self.auto_mode = False
# The current measured leakage offset based on the current run's test
self.measured_offset = 0
# The leakage offset table based on initial testing
# @TODO: retest offsets and go to 450 PSI
self.offset_table = ((-50, 30), (0, 31), (50, 44), (100, 37), (150, 41), (200, 44),
(250, 49), (300, 54), (350, 63), (400, 72), (450, 81))
# A table of calculated leakage offsets to give single-incremental points based on the
# above tested values
self.calculated_offsets = []
for i in range(len(self.offset_table)-1):
for x in range(self.offset_table[i][0], self.offset_table[i-1][0]):
x1 = self.offset_table[i][0]
x2 = self.offset_table[i+1][0]
y1 = self.offset_table[i][1]
y2 = self.offset_table[i+1][1]
y = ((x-x1) * (y2-y1)) / (x2-x1) + y1
self.calculated_offsets.append(y)
# Connect UI clicks and presses to commands
self.ui.btn_all.clicked.connect(lambda: self.select_all_tests(True))
self.ui.btn_none.clicked.connect(lambda: self.select_all_tests(False))
self.ui.comboBox.currentTextChanged.connect(self.select_part)
self.ui.btn_energize.clicked.connect(self.energize)
self.ui.btn_start.clicked.connect(self.start_tests)
self.ui.btn_skip.clicked.connect(self.skip_press)
# Select the initial part
self.select_part()
# Initialize queues
self.input_queue = Queue(10)
self.output_queue = Queue(10)
self.data_q_out = Queue(10)
self.pps_out = Queue(10)
self.response_queue = Queue(400)
self.test_queue = Queue(5)
self.log_queue = Queue(10)
# Initialize timer to update on-screen values
self.timer = QtCore.QTimer()
self.timer.timeout.connect(self.update_data)
self.timer.start(25)
# Initialize process pool
self.pool = Pool(processes=4, initializer=pool_init,
initargs=(self.input_queue, self.output_queue, self.data_q_out,
self.pps_out, self.response_queue))
# Place the data producing functions into the process pool
self.pool.apply_async(func=data_q_producer)
self.pool.apply_async(func=compute)
self.pool.apply_async(func=pps_producer)
def closeEvent(self, *args, **kwargs):
# Verify COM ports are closed properly before exiting
file_logger('Attempting Exit')
self.timer.stop()
self.test_queue.put('ESC')
self.data_q_out.put('stop')
self.pps_out.put('stop')
sleep(.5)
file_logger('Exited')
def keyPressEvent(self, event):
file_logger('Keypress Event: {}'.format(event.key()))
# Capture different key presses for different functions
if event.key() == QtCore.Qt.Key_Return:
self.test_queue.put(float(self.ui.lineEdit.text()))
elif event.key() == QtCore.Qt.Key_Backspace:
self.test_queue.put('ESC')
elif event.key() == QtCore.Qt.Key_S:
self.test_queue.put('SKIP')
def skip_press(self):
file_logger('Skip press Event')
self.test_queue.put('SKIP')
def print_to_log(self, text):
# Enter a line into the log with auto-scrolling
self.ui.log_output.append(text)
cursor = self.ui.log_output.textCursor()
QtGui.QTextCursor.movePosition(cursor, QtGui.QTextCursor.End)
self.ui.log_output.setTextCursor(cursor)
def update_data(self):
# Update status boxes
if not self.output_queue.empty():
file_logger('Update Interface Event')
data_dict = self.output_queue.get()
# Before calculating corrected leakage, get the offset
self.measured_offset = data_dict['offset']
# Modify low flow with offset
data_dict['low_flow'] -= self.measured_offset - self.calculated_offsets[int(data_dict['upstream'])]
# Update the status on the UI
self.ui.upstream_pressure.setText('{:.1f}'.format(data_dict['upstream']))
self.ui.downstream_pressure.setText('{:.1f}'.format(data_dict['downstream']))
self.ui.flow_sensor.setText('{:.2f}'.format(data_dict['high_flow']))
self.ui.leakage_sensor.setText('{:.0f}'.format(data_dict['low_flow']))
self.ui.voltage.setText('{:.2f}'.format(data_dict['voltage']))
self.ui.current.setText('{:.3f}'.format(data_dict['current']))
# Pass the values on to the test queue so the ATP process can use them
self.test_queue.put(data_dict)
if self.test_queue.full():
self.test_queue.get()
file_logger('Updated Interface')
# Update log
if not self.log_queue.empty():
text = self.log_queue.get()
file_logger('Printing to log: {}'.format(text))
# For the countdown timer, delete the previous line, but not the first count!
if isinstance(text, int) and text != 1:
cursor = self.ui.log_output.textCursor()
QtGui.QTextCursor.movePosition(cursor, QtGui.QTextCursor.End, QtGui.QTextCursor.MoveAnchor)
QtGui.QTextCursor.movePosition(cursor, QtGui.QTextCursor.StartOfLine, QtGui.QTextCursor.KeepAnchor)
QtGui.QTextCursor.removeSelectedText(cursor)
# Delete last newline character so the number doesn't print on the next line
QtGui.QTextCursor.deletePreviousChar(cursor)
self.print_to_log(str(text))
file_logger('Printed to log: {}'.format(text))
def select_all_tests(self, state=True):
# Select (or deselect if state is False) all tests
for i in range(len(self.ui.listWidget)):
self.ui.listWidget.item(i).setSelected(state)
def select_part(self):
# Update test list with a new part every time the combo box is changed
part_name = self.ui.comboBox.currentText()
for name, obj in getmembers(parts):
# Get the objects only labled as 'Part'
if 'Part' in name:
# Get the object with a part name that corresponds the the selected part
if part_name in obj().part_name:
self.valve = obj()
# Clear out the current contents of the test list
self.select_all_tests(False)
self.ui.listWidget.clear()
# Update test list with new tests
for test in self.valve.procedure:
self.ui.listWidget.addItem(test[0])
# Pre-select all tests
self.select_all_tests()
# Set Coils up properly; if there is only one coil in the unit, disable the second coil
self.ui.coil_1.setChecked(True)
if self.valve.coils < 2:
self.ui.coil_2.setChecked(False)
self.ui.coil_2.setEnabled(False)
else:
self.ui.coil_2.setEnabled(True)
self.ui.coil_2.setChecked(True)
return
def energize(self):
# Energize function for the energize button, but only if not running any test!
if self.auto_mode:
pass
else:
if self.ui.btn_energize.isChecked():
coil1 = int(self.ui.coil_1.checkState() / 2)
coil2 = int(self.ui.coil_2.checkState() / 2)
self.data_q_out.put([coil1, coil2, 2, 2])
else:
self.data_q_out.put([0, 0, 2, 2])
def start_tests(self):
file_logger('Starting Tests')
# Starts the testing thread
self.ui.log_output.setHtml('')
t = Thread(target=self.run_tests)
t.daemon = True
t.start()
def run_tests(self):
# Don't let the user try to start while running nor change the part number mid-test!
self.ui.btn_start.setEnabled(False)
self.ui.comboBox.setEnabled(False)
line = '-----------------------------------------------'
for test in self.valve.procedure:
# Verify the test is selected to run by iterating through all the test items in
# the test list and, if matching the current test name, verify the checked state
for i in range(len(self.ui.listWidget)):
if test[0] == self.ui.listWidget.item(i).text() and self.ui.listWidget.item(i).isSelected():
file_logger('Testing {}'.format(test[0]))
self.log_queue.put('<b>{1}\r\nRunning {0}\r\n{1}</b> '.format(test[0], line))
test[1](self.log_queue, self.test_queue, self.pps_out, self.data_q_out, self.response_queue)
# Tell the user of an escape or a skip
if self.valve.escape:
file_logger('Escaped'.format(test[0]))
self.log_queue.put('<b><font color="blue">Escaped</b></font> ')
self.ui.btn_start.setEnabled(True)
self.ui.comboBox.setEnabled(True)
self.valve.escape = False
# If escaping, break out of all loops
return
elif self.valve.skip:
file_logger('Skipped'.format(test[0]))
self.log_queue.put('<b><font color="orange">Skipped</b></font> ')
self.valve.skip = False
else:
file_logger('Test Successful')
# Once the test is found, break out of the test name matching loop
break
# If the test is not selected, notify user by displaying 'Skipping'
elif test[0] == self.ui.listWidget.item(i).text():
self.log_queue.put('<b>{1}</b>\r\nSkipping {0}'.format(test[0], line))
break
# Re-enable starting tests and selecting part numbers
self.ui.btn_start.setEnabled(True)
self.ui.comboBox.setEnabled(True)
if __name__ == '__main__':
freeze_support()
#input_queue = Queue(10)
#output_queue = Queue(10)
#data_q_out = Queue(10)
#pps_out = Queue(10)
#response_queue = Queue(400)
## Initialize process pool
#pool = Pool(processes=4, initializer=pool_init,
# initargs=(input_queue, output_queue, data_q_out, pps_out, response_queue))
#
## Place the data producing functions into the process pool
#pool.apply_async(func=data_q_producer)
#pool.apply_async(func=compute)
#pool.apply_async(func=pps_producer)
file_logger('####### NEW RUN #######\n')
app = QtWidgets.QApplication(sys.argv)
window = MainGui()
window.show()
file_logger('####### END RUN #######\n')
sys.exit(app.exec_())
答案 0 :(得分：0)