def doConfigDialog(self, Locomotif):
print "open configuration dialog"
dialog = ConfigDialog(self)
dialog.setModal(1)
ret = dialog.exec_()
# transfer some values
mapWidth = configData.getMapWidth()
rundata.setMapWidth(mapWidth)
self.ui.cmdMapWidth.setText(str(mapWidth))
mapHeight = configData.getMapHeight()
rundata.setMapHeight(mapHeight)
self.ui.cmdMapHeight.setText(str(mapHeight))
def __init__(self, desktop_control, configure_glade_file, shell, plugin):
Gtk.Menu.__init__(self)
self.shell = shell
self.show_player = Gtk.CheckMenuItem.new_with_label('Show Music Player')
self.show_player.set_active(True)
self.show_player.connect('activate', self.toggle_player_visibility)
self.add(self.show_player)
self.add(Gtk.SeparatorMenuItem.new())
#preferences = Gtk.ImageMenuItem(Gtk.STOCK_PREFERENCES)
preferences = Gtk.MenuItem.new_with_label('Preferences')
#preferences.set_label('gtk-properties')
self.conf_dialog = ConfigDialog(configure_glade_file, GConf_plugin_path, self, plugin)
preferences.connect('activate', self.show_preferences_dialog, desktop_control, configure_glade_file)
self.add(preferences)
self.show_all()
def onclick_open_txt(self, list_num):
print("num of list", list_num)
fname = QFileDialog.getOpenFileName(self, 'Open File', '', 'Data File (*.txt)')[0]
try:
f = open(fname, 'rb')
except:
print("error reading file")
return
rawData = bytearray()
byte = f.read(1)
while byte != b'':
rawData.append(int.from_bytes(byte, byteorder='big'))
byte = f.read(1)
f.close()
print("Len of file:", len(rawData))
self.data[list_num] = dict(timings=[], accX=[], accY=[], accZ=[], LF=[], RF=[],
LR=[], RR=[], vLF=[], vRF=[], vLR=[], vRR=[],
LFMax='0', LFRef='0', RFMax='0', RFRef='0',
LRMax='0', LRRef='0', RRMax='0', RRRef='0')
rawData = rawData[rawData.index(127):]
if rawData[17] == 10:
print("Найдена калибровочная позиция")
self.data[list_num]['LFMax'] = struct.unpack(">H", rawData[1:3])[0]
self.data[list_num]['LFRef'] = struct.unpack(">H", rawData[3:5])[0]
self.data[list_num]['RFMax'] = struct.unpack(">H", rawData[5:7])[0]
self.data[list_num]['RFRef'] = struct.unpack(">H", rawData[7:9])[0]
self.data[list_num]['LRMax'] = struct.unpack(">H", rawData[9:11])[0]
self.data[list_num]['LRRef'] = struct.unpack(">H", rawData[11:13])[0]
self.data[list_num]['RRMax'] = struct.unpack(">H", rawData[13:15])[0]
self.data[list_num]['RRRef'] = struct.unpack(">H", rawData[15:17])[0]
print("Калибровка:", self.data[list_num]['LFMax'],
self.data[list_num]['LFRef'],
self.data[list_num]['RFMax'],
self.data[list_num]['RFRef'],
self.data[list_num]['LRMax'],
self.data[list_num]['LRRef'],
self.data[list_num]['RRMax'],
self.data[list_num]['RRRef'])
rawData = rawData[18:]
progressList = [i for i in range(1, len(rawData), int(len(rawData) / 100))]
intData = []
curProgressBar = 0
for i in range(0, len(rawData), self.messageLength):
tempStruct = []
for j in range(1, self.messageLength - 1, 2):
if j < 5:
tempStruct.append(struct.unpack(">H", rawData[i + j:i + j + 2])[0])
else:
tempStruct.append(struct.unpack(">h", rawData[i + j:i + j + 2])[0])
intData.append(tempStruct)
if i > progressList[curProgressBar] and curProgressBar < (len(progressList) - 1):
curProgressBar += 1
print(curProgressBar, '%')
del rawData
for slice in intData:
self.data[list_num]['timings'].append(slice[0] * 65536 + slice[1])
self.data[list_num]['accX'].append(slice[2])
self.data[list_num]['accY'].append(slice[3])
self.data[list_num]['accZ'].append(slice[4])
self.data[list_num]['LF'].append(slice[9])
self.data[list_num]['RF'].append(slice[10])
self.data[list_num]['LR'].append(slice[11])
self.data[list_num]['RR'].append(slice[12])
del intData
dotsInCm = ConfigDialog([self.data[list_num]['LFMax'],
self.data[list_num]['LFRef'],
self.data[list_num]['RFMax'],
self.data[list_num]['RFRef'],
self.data[list_num]['LRMax'],
self.data[list_num]['LRRef'],
self.data[list_num]['RRMax'],
self.data[list_num]['RRRef']
]).exec_()
print("Entered values:", dotsInCm)
if len(dotsInCm) == 8:
self.data[list_num]['LF'] = self.approx_data_to_cm(self.data[list_num]['LF'],
self.data[list_num]['LFMax'],
self.data[list_num]['LFRef'],
dotsInCm[0],
dotsInCm[1])
self.data[list_num]['RF'] = self.approx_data_to_cm(self.data[list_num]['RF'],
self.data[list_num]['RFMax'],
self.data[list_num]['RFRef'],
dotsInCm[2],
dotsInCm[3])
self.data[list_num]['LR'] = self.approx_data_to_cm(self.data[list_num]['LR'],
self.data[list_num]['LRMax'],
self.data[list_num]['LRRef'],
dotsInCm[4],
dotsInCm[5])
self.data[list_num]['RR'] = self.approx_data_to_cm(self.data[list_num]['RR'],
self.data[list_num]['RRMax'],
self.data[list_num]['RRRef'],
dotsInCm[6],
dotsInCm[7])
print("RR:", self.data[list_num]['RR'][20:50])
min_val = min([min(self.data[list_num]['LF']), min(self.data[list_num]['RF']), min(self.data[list_num]['LR']), min(self.data[list_num]['RR'])])
max_val = max(
[max(self.data[list_num]['LF']), max(self.data[list_num]['RF']), max(self.data[list_num]['LR']),
max(self.data[list_num]['RR'])])
self.tYMax.setText('{:.2f}'.format(max_val))
self.tYmin.setText('{:.2f}'.format(min_val))
# self.data[list_num]['LF'] = self.simple_filter(self.data[list_num]['LF'], 2)
# self.data[list_num]['RF'] = self.simple_filter(self.data[list_num]['RF'], 2)
# self.data[list_num]['LR'] = self.simple_filter(self.data[list_num]['LR'], 2)
# self.data[list_num]['RR'] = self.simple_filter(self.data[list_num]['RR'], 2)
min_timing = min(self.data[list_num]['timings'])
print("Min timings is: ", min_timing, self.data[list_num]['timings'][:10])
for i in range(len(self.data[list_num]['timings'])):
self.data[list_num]['timings'][i] = (self.data[list_num]['timings'][i] - min_timing) / 1000
self.data[list_num]['accX'][i] = self.data[list_num]['accX'][i] / 16384
self.data[list_num]['accY'][i] = self.data[list_num]['accY'][i] / 16384
self.data[list_num]['accZ'][i] = self.data[list_num]['accZ'][i] / 16384
self.data[list_num]['vLF'] = self.calc_vel(self.data[list_num]['timings'], self.data[list_num]['LF'])
self.data[list_num]['vRF'] = self.calc_vel(self.data[list_num]['timings'], self.data[list_num]['RF'])
self.data[list_num]['vLR'] = self.calc_vel(self.data[list_num]['timings'], self.data[list_num]['LR'])
self.data[list_num]['vRR'] = self.calc_vel(self.data[list_num]['timings'], self.data[list_num]['RR'])
self.chbox_draw_plots()
self.draw_accel_plots(0, 0)
def actionConfig(self):
"""根据配置对话框的内容获取相关参数"""
config_dialog = ConfigDialog(self.tcp_link.getLineState)
config_dialog.show()
config_dialog.exec_()
if config_dialog.getPassFlag():
self.group_digital = [(i[0].text(), i[1].isChecked())
for i in config_dialog.group_digital]
self.group_press = [(i[0].text(), i[1].isChecked(),
i[2].currentIndex())
for i in config_dialog.group_press]
self.group_speed_trigger = [
config_dialog.speed_chk.isChecked(),
config_dialog.trigger_combo.currentIndex()
]
#测试项目，项目名称，测试人员，测试日期
self.groupNPTInfo = [
config_dialog.testProject.currentIndex(),
config_dialog.projectName_edit.text(),
config_dialog.person_edit.text(),
config_dialog.time_edit.text()
]
#测试时长
self.measure_time = config_dialog.measureTime
#测试距离
self.measure_distance = config_dialog.measureDistance
#set默认通道
self.default_press = config_dialog.default_press.currentIndex()
#设置默认膛压通道
self.notice_window.setDefault(self.default_press)
self.default_digital = config_dialog.default_digital.currentIndex()
self.tcp_link.setPressChannel(self.default_press)
self.tcp_link.setDigitalChannel(self.default_digital)
self.tcp_link.setThresholdPress(config_dialog.threshold_press)
self.tcp_link.setCalibration(config_dialog.calibration)
self.tcp_link.setSpeedFactor(self.groupNPTInfo[0])
#需要绘制的坐标系
self.exist_axis = []
#需要调整宽度的坐标系
axis_num = []
for i, j in enumerate(self.group_press):
if j[1]:
self.exist_axis.append(i)
axis_num.append((i, j[2]))
self.scaleFactor[i] = self.scaleRegion[j[2]]
#if j[0]:
#self.report['PRESS'][i] = j[0]
#else:
#self.report['PRESS'][i] = u'通道%d' %(i + 1)
else:
self.scaleFactor[i] = 0
#self.report['PRESS'][i] = None
for i, j in enumerate(self.group_digital):
if j[1]:
self.exist_axis.append(i + 6)
#if j[0]:
#self.report['DIGITAL'][i] = j[0]
#else:
#self.report['DIGITAL'][i] = '通道%d' %(i + 1)
#else:
#self.report['DIGITAL'][i] = None
if self.group_speed_trigger[0]:
self.exist_axis.extend([10, 11, 12])
if self.groupNPTInfo[0] == 0:
axis_num.append((12, 1))
else:
axis_num.append((12, 4))
self.tcp_link.setFactor(self.scaleFactor[:])
#print self.scaleFactor
self.curve_window.produceAxis(self.exist_axis[:])
for i in (axis_num):
self.curve_window.setTicker(i[0], i[1])
#开始根据配置获取需求值并显示当前压力
self.tcp_link.setTestFlag(False)
self.tcp_link.setCurrentFlag(True)
#报告关键值
#序列号
self.report['SERIAL'] = self.groupNPTInfo[1]
_test_type = [u'鱼雷', u'诱饵']
self.report['TYPE'] = _test_type[self.groupNPTInfo[0]]
_trigger = [u'自动触发', u'手动触发', u'外触发']
self.report['TRIGGER'] = _trigger[
self.group_speed_trigger[1]] #触发方式
self.report['PERSON'] = self.groupNPTInfo[2] #测试人员
self.report['DATE'] = self.groupNPTInfo[3] #测试日期
self.tcp_link.setCurrentFlag(True)
self.actionOrder('ready')
#print self.measure_distance
self.configuration_window.readConfig()
states.DEBUG = args.debug
if not args.cli:
teams = set()
strategies = []
config = dict()
defaults = {
'width': int(args.size.split()[0]),
'height': int(args.size.split()[1]),
'delay': args.delay,
'enable_logs': args.logs_flag,
'theme': args.theme,
'strategies': (args.strategies if args.strategies else [])
}
ConfigDialog(strategies, config, defaults)
size = (config['width'], config['height'])
delay = config['delay']
ready_log_name = (log_name if config['enable_logs'] else None)
# turn name to path
themeStr = os.path.join(themes.__path__[0], config['theme'] + '.yml')
else:
size = tuple(map(int, args.size.split()))
delay = args.delay
ready_log_name = (log_name if args.logs_flag else None)
themeStr = args.theme
teams = set()
if args.strategies:
strategies = Loader().loadStrategies(args.strategies)
else:
strategies = []
