dev: конец II идеального этапа совмещен с реальным
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@ -104,28 +104,14 @@ class PlotWindow:
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delta = 10 #points_per_ms
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delta = 10 #points_per_ms
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for key, items in self.timings_dict.items():
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for key, items in self.timings_dict.items():
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for item in items:
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item_data = []
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time_data = []
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if key == 'closure':
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if key == 'closure':
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ideal_time = self.idealTime[0]
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ideal_time = self.idealTime[0]
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calc = self.opt.calcPhaseClose
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calc = self.opt.calcPhaseClose
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color = qts.RGBA[0]
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color = qts.RGBA[0]
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elif key == 'compression':
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ideal_time = self.idealTime[1]
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calc = self.opt.calcPhaseGrow
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color = qts.RGBA[1]
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elif key == 'welding':
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ideal_time = self.WeldTime
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calc = self._returnWeldData
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color = qts.RGBA[2]
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elif key == 'opening':
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calc = self.opt.calcPhaseOpen
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ideal_time = self.idealTime[2]
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ideal_closure = self.idealTime[3]
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color = qts.RGBA[3]
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color_closure = qts.RGBA[4]
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for item in items:
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item_data = []
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time_data = []
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for i in range(0, int(ideal_time*self.scaler)*delta):
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for i in range(0, int(ideal_time*self.scaler)*delta):
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time = i/delta
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time = i/delta
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item_data.append(calc(time/self.scaler))
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item_data.append(calc(time/self.scaler))
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@ -134,7 +120,62 @@ class PlotWindow:
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self._plotIdealData(np.array(time_data), np.array(item_data).T)
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self._plotIdealData(np.array(time_data), np.array(item_data).T)
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self._addBackgroundSplitter([item[0]*self.scaler,item[0]*self.scaler + time], color)
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self._addBackgroundSplitter([item[0]*self.scaler,item[0]*self.scaler + time], color)
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if key == 'opening':
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elif key == 'compression':
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ideal_time = self.idealTime[1]
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calc = self.opt.calcPhaseGrow
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color = qts.RGBA[1]
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for i in range(int(ideal_time*self.scaler)*delta, 0, -1):
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time = i/delta
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item_data.append(calc(time/self.scaler))
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time_data.append(item[1]*self.scaler-(ideal_time*self.scaler-time))
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#print (item_data[-1], time_data[-1])
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self._plotIdealData(np.array(time_data), np.array(item_data).T)
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self._addBackgroundSplitter([(item[1]-ideal_time)*self.scaler, item[1]*self.scaler], color)
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temp = item_data[0][4]
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x = [time_data[0], time_data[-1], time_data[-1]-0.0001]
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y = [temp, temp, temp]
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a1, b1, c1 = self._calculate_equidistant(x, y, 2.5, 3)
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self.p11.addItem(a1)
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self.p11.addItem(b1)
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self.p11.addItem(c1)
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elif key == 'welding':
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ideal_time = self.WeldTime
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calc = self._returnWeldData
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color = qts.RGBA[2]
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for i in range(0, int(ideal_time*self.scaler)*delta):
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time = i/delta
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item_data.append(calc(time/self.scaler))
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time_data.append(time+item[0]*self.scaler)
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#print (item_data[-1], time_data[-1])
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self._plotIdealData(np.array(time_data), np.array(item_data).T)
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self._addBackgroundSplitter([item[0]*self.scaler,item[0]*self.scaler + time], color)
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x = [time_data[0], time_data[-1], time_data[-1]+0.0001]
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y = [item_data[0][4], item_data[0][4], item_data[0][4]]
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a1, b1, c1 = self._calculate_equidistant(x, y, 0.75, 3)
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self.p11.addItem(a1)
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self.p11.addItem(b1)
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self.p11.addItem(c1)
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elif key == 'opening':
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calc = self.opt.calcPhaseOpen
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ideal_time = self.idealTime[2]
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ideal_closure = self.idealTime[3]
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color = qts.RGBA[3]
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color_closure = qts.RGBA[4]
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for i in range(0, int(ideal_time*self.scaler)*delta):
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time = i/delta
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item_data.append(calc(time/self.scaler))
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time_data.append(time+item[0]*self.scaler)
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#print (item_data[-1], time_data[-1])
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self._plotIdealData(np.array(time_data), np.array(item_data).T)
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self._addBackgroundSplitter([item[0]*self.scaler,item[0]*self.scaler + time], color)
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item_data = []
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item_data = []
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time_data = []
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time_data = []
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for i in range(0, int(ideal_closure*self.scaler)*delta):
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for i in range(0, int(ideal_closure*self.scaler)*delta):
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@ -144,23 +185,6 @@ class PlotWindow:
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self._plotIdealData(np.array(time_data), np.array(item_data).T)
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self._plotIdealData(np.array(time_data), np.array(item_data).T)
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self._addBackgroundSplitter([item[1]*self.scaler,item[1]*self.scaler + time], color_closure)
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self._addBackgroundSplitter([item[1]*self.scaler,item[1]*self.scaler + time], color_closure)
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elif key == 'welding':
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x = [time_data[0], time_data[-1], time_data[-1]+0.0001]
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y = [item_data[0][4], item_data[0][4], item_data[0][4]]
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a1, b1, c1 = self._calculate_equidistant(x, y, 0.75, 3)
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self.p11.addItem(a1)
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self.p11.addItem(b1)
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self.p11.addItem(c1)
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elif key == 'compression':
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temp = item_data[-1][4]
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x = [time_data[0], time_data[-1], time_data[-1]+0.0001]
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y = [temp, temp, temp]
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a1, b1, c1 = self._calculate_equidistant(x, y, 2.5, 3)
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self.p11.addItem(a1)
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self.p11.addItem(b1)
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self.p11.addItem(c1)
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def _returnWeldData(self, _):
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def _returnWeldData(self, _):
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return self.WeldData
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return self.WeldData
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Binary file not shown.
@ -21,6 +21,10 @@ class UMLCreator:
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real_data.append([item[0]*self.scaler+0.0001, str(key) + '#green'])
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real_data.append([item[0]*self.scaler+0.0001, str(key) + '#green'])
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real_data.append([item[1]*self.scaler, '{-}'])
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real_data.append([item[1]*self.scaler, '{-}'])
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if key == 'compression':
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ideal_data.append([(item[1]-ideal_time)*self.scaler, str(key) + '#yellow'])
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ideal_data.append([(item[1]-0.0001)*self.scaler, '{-}'])
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else:
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ideal_data.append([item[0]*self.scaler+0.0001, str(key) + '#yellow'])
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ideal_data.append([item[0]*self.scaler+0.0001, str(key) + '#yellow'])
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ideal_data.append([(item[0]+ideal_time)*self.scaler, '{-}'])
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ideal_data.append([(item[0]+ideal_time)*self.scaler, '{-}'])
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if key == 'opening':
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if key == 'opening':
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