550 lines
20 KiB
Python
Executable File
550 lines
20 KiB
Python
Executable File
#!/usr/bin/env python
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# -*- encoding: utf-8 -*-
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import os
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import sys
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import re
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import signal
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from PyQt4.QtCore import *
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from PyQt4.QtGui import *
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import matplotlib
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from mathlib import fit_anneal, fit_lbfgsb, fit_odr_cmplx, FunctionRegister, FitRoutine
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matplotlib.use('agg')
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from matplotlib import pyplot
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from matplotlib.colors import hex2color
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#matplotlib.rc_file("default.mplrc")
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import numpy as np
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import QDSMain
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from data import Data, Conductivity, Peak, PowerComplex, Static, YAFF
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import pyqtgraph as pg
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#import yaff
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from CustomWidgets import ParameterWidget, YaffWidget
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USE_CROSSH=False
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class AppWindow(QMainWindow):
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def __init__(self, parent=None):
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super(AppWindow, self).__init__(parent)
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self.ui = QDSMain.Ui_MainWindow()
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self.ui.setupUi(self)
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self._last_written_header = None
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actions = {
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self.ui.actionAdd_Peak:self.addPeak,
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self.ui.actionAdd_Cond:self.addCond,
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self.ui.actionAdd_PowerLaw:self.addPowerComplex,
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self.ui.actionAdd_Eps_Infty:self.addEpsInfty,
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self.ui.actionYAFF:self.addYaff,
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}
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self.myActionGroup = QActionGroup(self)
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for a in actions.keys(): self.myActionGroup.addAction(a)
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self.function_registry = FunctionRegister()
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self.peakId = 0
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self.parameterWidget = ParameterWidget()
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self.ui.dockWidget_3.setWidget(self.parameterWidget)
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## menubar
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fileMenu = self.menuBar().addMenu("File")
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openFile = QAction("&Open", self)
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openFile.setShortcut(QKeySequence.Open)
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openFile.triggered.connect(self.openFile)
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fileMenu.addAction(openFile)
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saveFile = QAction("&Save Fit Result", self)
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saveFile.setShortcut(QKeySequence.Save)
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saveFile.triggered.connect(self.saveFitResult)
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fileMenu.addAction(saveFile)
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# fitting methods
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fitMenu = self.menuBar().addMenu("Standard Fits")
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# lm
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fit_lmAction = QAction("&Levenberg-Marquardt", self)
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fit_lmAction.setShortcut(QKeySequence("Ctrl+F"))
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fitMenu.addAction(fit_lmAction)
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# lbfgsb
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fit_lbfgsbAction = QAction("&L-BFGS-B", self)
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fitMenu.addAction(fit_lbfgsbAction)
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# Simulated Annealing
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fit_annealAction = QAction("&Simulated Annealing", self)
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fitMenu.addAction(fit_annealAction)
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# YAFF
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yaffMenu = self.menuBar().addMenu("YAFF")
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start_yaff = QAction("&Startparam.", self)
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yaffMenu.addAction(start_yaff)
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fit_yaff = QAction("&Fit", self)
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yaffMenu.addAction(fit_yaff)
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self._fit_thread = QThread()
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# self._fit_method = FitRoutine()
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# self._fit_method.moveToThread(self._fit_thread)
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# self._fit_method.finished.connect(self._fit_thread.quit)
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# self._fit_queue = QEventLoop()
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# self._fit_timer = QTimer()
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# self._fit_timer.setSingleShot(True)
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# self._fit_timer.timeout.connect(self._fit_queue.quit)
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# self._fit_method.finished.connect(self._fit_queue.quit)
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self.signalMapper = QSignalMapper(self)
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for i, fit_action in enumerate([fit_lmAction, fit_lbfgsbAction, fit_annealAction
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]):
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self.signalMapper.setMapping(fit_action, i)
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fit_action.triggered.connect(self.signalMapper.map)
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self.signalMapper.mapped.connect(self.fitData_start)
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# save fitted values
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#self.ui.actionSave_FitResult.triggered.connect(self.saveFitResult)# replaced by menu
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self.data = Data()
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self.fit_boundary = pg.LinearRegionItem(brush=QColor(0,127,254,15))
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self.ui.pgPlotWidget_imag.addItem(self.data.data_curve_imag)
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self.ui.pgPlotWidget_real.addItem(self.data.data_curve_real)
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self.ui.pgPlotWidget_imag.addItem(self.data.fitted_curve_imag)
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self.ui.pgPlotWidget_real.addItem(self.data.fitted_curve_real)
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# cross hair
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if USE_CROSSH:
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#self.poslabel = pg.LabelItem(justify='right')
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self.horizontalLine = pg.InfiniteLine(angle=0)
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self.verticalLine = pg.InfiniteLine(angle=90)
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#self.ui.pgPlotWidget_imag.plotItem.addItem(self.poslabel)
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self.ui.pgPlotWidget_imag.addItem(self.horizontalLine)
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self.ui.pgPlotWidget_imag.addItem(self.verticalLine)
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self.ui.pgPlotWidget_imag.addItem(self.fit_boundary)
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for pltwidgt in (self.ui.pgPlotWidget_real, self.ui.pgPlotWidget_imag):
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pltwidgt.setLogMode(x=True, y=True)
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pltwidgt.showGrid(x=True, y=True)
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pltwidgt.disableAutoRange()
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pltwidgt.setLabel("bottom", "Frequency", units="Hz")
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self.ui.pgPlotWidget_imag.setLabel("left", u'Dielectric loss ε"' , units="Debye")
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self.ui.pgPlotWidget_real.setLabel("left", u"Dielectric loss ε' ", units="Debye")
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sc_real = self.ui.pgPlotWidget_real.scene()
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sc_real.sigMouseClicked.connect(self.mousePress)
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sc_real.sigMouseMoved.connect(self.updateCrosshair)
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sc_imag = self.ui.pgPlotWidget_imag.scene()
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sc_imag.sigMouseClicked.connect(self.mousePress)
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sc_imag.sigMouseMoved.connect(self.updateCrosshair)
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def updateCrosshair(self,evt):
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vb_real = self.ui.pgPlotWidget_real.getPlotItem().vb
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vb_imag = self.ui.pgPlotWidget_imag.getPlotItem().vb
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if self.ui.pgPlotWidget_imag.underMouse():
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pos = vb_imag.mapSceneToView(evt)
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elif self.ui.pgPlotWidget_real.underMouse():
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pos = vb_real.mapSceneToView(evt)
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else:
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pos = QPointF(0.0, 0.0)
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self.last_pos = pos
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if USE_CROSSH:
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self.horizontalLine.setBounds([self.data.frequency.min(), self.data.frequency.max()])
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self.horizontalLine.setPos(pos.y())
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self.verticalLine.setPos(pos.x())
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#self.poslabel.setText("<span style='font-size: 12pt'>f=%0.1f Hz <span style='color: red'>e=%0.1f</span>"\
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# % (pos.x(),pos.y()))
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def mousePress(self, evt):
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data_pos = self.last_pos
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mouse_in_imag = self.ui.pgPlotWidget_imag.underMouse()
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mouse_in_real = self.ui.pgPlotWidget_real.underMouse()
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msgBox = QMessageBox()
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if self.ui.actionAdd_Peak.isChecked():
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if mouse_in_imag:
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self.addPeak(data_pos)
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self.ui.actionAdd_Peak.setChecked(False)
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else:
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msgBox.setText("Click in imaginary part")
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msgBox.exec_()
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if self.ui.actionAdd_Cond.isChecked():
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if mouse_in_imag:
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self.addCond(data_pos)
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self.ui.actionAdd_Cond.setChecked(False)
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else:
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msgBox.setText("Click in imaginary part")
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msgBox.exec_()
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if self.ui.actionYAFF.isChecked():
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if mouse_in_imag:
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self.addYaff(data_pos)
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self.ui.actionYAFF.setChecked(False)
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else:
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msgBox.setText("Click in imaginary part")
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msgBox.exec_()
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if self.ui.actionAdd_PowerLaw.isChecked():
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if mouse_in_imag:
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self.addPowerComplex(data_pos)
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self.ui.actionAdd_PowerLaw.setChecked(False)
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else:
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msgBox.setText("Click in imaginary part")
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msgBox.exec_()
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if self.ui.actionAdd_Eps_Infty.isChecked():
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if mouse_in_real:
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self.addEpsInfty(data_pos)
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self.ui.actionAdd_Eps_Infty.setChecked(False)
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else:
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msgBox.setText("Click in real part")
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msgBox.exec_()
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def saveFitResult(self):
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"""
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Saving fit parameters to fitresults.log
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including temperature
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"""
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self.saveFitFigure()
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if not os.path.exists("fitresults.log"):
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f = open("fitresults.log", "w")
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else:
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f = open("fitresults.log", "a")
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# prepare header
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header="# T "
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pars = []
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for fcn in self.function_registry.get_registered_functions():
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for name in fcn.widget.names: # variable names
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header += "{n:11}{n_sd:11}".format(n=name, n_sd=name+"_sd")
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for i,par in enumerate(fcn._beta): # params # TODO: ughh
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if fcn._selector_mask is not None:
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if fcn._selector_mask[i]:
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pars.extend([par])
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pars.extend([fcn._sd_beta[i]])
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else:
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pars.extend([par])
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pars.extend([fcn._sd_beta[i]])
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header += "%-11s%-11s\n"%("fit_xlow","fit_xhigh")
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# write new header if fit model changed
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if self._last_written_header != header:
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f.write(header)
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f.flush()
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self._last_written_header = header
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else:
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pass
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pars.insert(0, self.data.meta["T"])
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pars.append(self.data.fit_limits[0])
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pars.append(self.data.fit_limits[1])
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pars = np.array([pars])
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np.savetxt(f, pars, fmt = '%-10.3e', delimiter=" ")
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f.close()
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def saveFitFigure(self):
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fig = pyplot.figure(figsize=(3.54*1.4, 2.75*1.4))
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font = {'family' : 'sans serif',
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'weight' : 'normal',
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'size' : 9}
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matplotlib.rc('font', **font)
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pyplot.grid(linestyle="solid",alpha=0.3, color="0.5")
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pyplot.loglog(self.data.frequency, self.data.epsilon.imag, 'bo', markersize=4, label="Data")
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pyplot.loglog(self.data.frequency_fit, self.data.epsilon_fit.imag, 'r-', lw=1.2, label="Fit")
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for fcn in self.function_registry.get_registered_functions():
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f,eps = fcn.get_data()
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label = fcn.id_string
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color = hex2color(str(fcn.color.name()))
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pyplot.loglog(f,eps[1], ls=":", color=color, lw=1, dashes=(1,1), label=label)
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for i in (0,1): pyplot.axvline(x=self.data.fit_limits[i], color='b', ls="-", lw=0.5)
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pyplot.legend(title = "T=%.1f K"%(self.data.meta["T"]))
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pyplot.xlabel('f/Hz')
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pyplot.ylabel(u'ε"')
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pyplot.ylim(self.data.epsilon.imag.min(), self.data.epsilon.imag.max() )
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#pyplot.savefig(os.path.splitext(self.filepath)[0]+".png")
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pyplot.savefig(os.path.splitext(self.filepath)[0]+".pdf")
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fig.clear()
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def addYaff(self, pos):
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_yaff = YAFF(plt_real=self.ui.pgPlotWidget_real,
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plt_imag=self.ui.pgPlotWidget_imag,
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limits=self.data.fit_limits)
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_yaff.blockSignals(True)
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_yaff.changedData.connect(self.updatePlot)
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_yaff.removeObj.connect(self.delParamterObject)
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gg_y = 10**pos.y()*2
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gg_x = 1/(10**pos.x()*2*np.pi)
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yaff_par = [ gg_y, gg_x , 20.0, 1.0, 0.5, gg_x/100, 1.0, 1.0]
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_yaff.setParameter(beta=yaff_par)
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self.parameterWidget.add(_yaff.widget)
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self.function_registry.register_function(_yaff)
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self.updatePlot()
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_yaff.blockSignals(False)
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def addCond(self, pos):
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_conductivity = Conductivity(plt_real=self.ui.pgPlotWidget_real,
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plt_imag=self.ui.pgPlotWidget_imag,
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limits=self.data.fit_limits)
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_conductivity.blockSignals(True)
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_conductivity.changedData.connect(self.updatePlot)
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_conductivity.removeObj.connect(self.delParamterObject)
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cond_par = [0.0, 10**(pos.y() + pos.x())*2*np.pi , 1.0]
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_conductivity.setParameter(beta=cond_par)
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self.parameterWidget.add(_conductivity.widget)
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self.function_registry.register_function(_conductivity) ##todo
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self.updatePlot()
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_conductivity.blockSignals(False)
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def addPowerComplex(self, pos):
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_power_complex = PowerComplex(plt_imag=self.ui.pgPlotWidget_imag,
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plt_real=self.ui.pgPlotWidget_real,
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limits=self.data.fit_limits)
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_power_complex.changedData.connect(self.updatePlot)
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_power_complex.removeObj.connect(self.delParamterObject)
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cond_par = [10**(pos.y() + pos.x())*2*np.pi , 1.0]
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_power_complex.setParameter(beta=cond_par)
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self.parameterWidget.add(_power_complex.widget)
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self.function_registry.register_function(_power_complex)
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self.updatePlot()
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def addEpsInfty(self, pos):
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_eps_infty = Static(plt_imag=self.ui.pgPlotWidget_imag,
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plt_real=self.ui.pgPlotWidget_real,
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limits=self.data.fit_limits)
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_eps_infty.changedData.connect(self.updatePlot)
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_eps_infty.removeObj.connect(self.delParamterObject)
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cond_par = [10**pos.y()]
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_eps_infty.setParameter(beta=cond_par)
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self.parameterWidget.add(_eps_infty.widget)
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self.function_registry.register_function(_eps_infty)
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self.updatePlot()
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def delParamterObject(self, obj):
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print "unregister",obj
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self.function_registry.unregister_function(obj)
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self.updatePlot()
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def addPeak(self, pos):
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id_list = [ key.id_num for key in
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self.function_registry.get_registered_functions().keys()
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if key.id_string == 'hn']
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self.peakId = 1
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while self.peakId in id_list:
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self.peakId += 1
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_peak = Peak(id_num=self.peakId,
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plt_real=self.ui.pgPlotWidget_real,
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plt_imag=self.ui.pgPlotWidget_imag,
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limits=self.data.fit_limits)
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_peak.changedData.connect(self.updatePlot)
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_peak.removeObj.connect(self.delParamterObject)
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new_peak = [2*10**pos.y(), 1 / (2*np.pi*10**pos.x()), 1, 1]
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_peak.setParameter(beta = new_peak)
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self.function_registry.register_function(_peak)
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self.parameterWidget.add(_peak.widget)
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self.updatePlot()
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def delPeak(self):
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for i, peak in enumerate(self.peakBoxes.keys()):
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if peak.widget.isHidden():
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self.ui.pgPlotWidget_imag.removeItem(peak.mpl_line)
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self.parameterWidget.vlayout.removeWidget(peak.widget)
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self.function_registry.unregister_function(peak)
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self.peakBoxes.pop(peak)
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self.parameterWidget.vlayout.update()
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self.updatePlot()
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@pyqtSlot(np.ndarray)
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def test(self, t=None):
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print "test",t
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def fitData_start(self, method):
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fit_methods = [fit_odr_cmplx, fit_lbfgsb, fit_anneal]
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# build function list
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p0,funcs,fixed_params = [],[],[]
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for fcn in self.function_registry.get_registered_functions():
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p0.extend(fcn.getParameter())
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funcs.append(fcn)
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fixed_params.extend(fcn.getFixed())
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fcn.clearData()
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_freq, _fit = self.data.get_data()
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# Prepare
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if not self._fit_thread.isRunning():
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self._fit_method = FitRoutine()
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self._fit_method.moveToThread(self._fit_thread)
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self._fit_method.finished_fit.connect(self.fitData_update)
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self._fit_method.fit_odr_cmplx(_freq, _fit, p0, fixed_params, funcs)
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self._fit_method.data_ready.connect(self.updateIntermediatePlot)
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#for fun in funcs:
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# self._fit_method.data_ready.connect(fun.updateData)
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self._fit_thread.started.connect(self._fit_method.fit)
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self._fit_thread.finished.connect(self._fit_method.deleteLater)
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self._fit_thread.start()
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self.ui.statusbar.showMessage("Fitting ...")
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else:
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print "fit is still running"
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pass
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def fitData_update(self):
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print "before thread.quit"
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print "running thread?:",self._fit_thread.isRunning()
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self._fit_thread.quit()
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print "after thread.quit"
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print "running thread?:",self._fit_thread.isRunning()
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odr_result = self._fit_method.result()
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print odr_result
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# build function list
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p0,funcs,fixed_params = [],[],[]
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for fcn in self.function_registry.get_registered_functions():
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p0.extend(fcn.getParameter())
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funcs.append(fcn)
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fixed_params.extend(fcn.getFixed())
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#print "Set fit data"
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self.data.set_fit(odr_result.beta, funcs)
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self.ui.statusbar.showMessage(" ".join(odr_result.stopreason))
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i = 0
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for fcn in self.function_registry.get_registered_functions():
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num_p = len(fcn.getParameter())
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beta = odr_result.beta[i:num_p+i]
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sd_beta = odr_result.sd_beta[i:num_p+i]
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fcn.setParameter(beta, sd_beta)
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i += num_p
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#self.updatePlot()
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def openFile(self):
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#path = unicode(QFileDialog.getOpenFileName(self, "Open file"))
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path = "MCM42PG0_199.96K.dat"
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self.filepath=path
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# TODO analyize file (LF,MF, HF) and act accordingly
|
|
data = np.loadtxt(path, skiprows=4)
|
|
self.setWindowTitle(os.path.basename(path))
|
|
numpat = re.compile('\d+\.\d+')
|
|
try:
|
|
Temp = None
|
|
for line in open(path).readlines():
|
|
if re.search("Fixed", line) or re.search("Temp", line):
|
|
print "Found line with Fixed or Temp"
|
|
Temp = float(re.search(numpat, line).group())
|
|
print "Temperature found in file:", Temp
|
|
break
|
|
if Temp == None: raise ValueError
|
|
except:
|
|
Temp = QInputDialog.getDouble(self, "No temperature found in data set", "Temperature/K:", value=0.00)[0]
|
|
# mask the data to values > 0 (loglog plot)
|
|
mask = (data[:, 1] > 0) & (data[:, 2] > 0) #& (data[:,2]>1e-3) & (data[:,0] > 1e-2)
|
|
_freq = data[mask, 0]
|
|
_die_stor = data[mask, 1]
|
|
_die_loss = data[mask, 2]
|
|
self.data.set_data(_freq, _die_stor, _die_loss)
|
|
self.data.meta["T"] = Temp
|
|
self.fit_boundary.setRegion([np.log10(_freq.min()), np.log10(_freq.max())])
|
|
self.ui.pgPlotWidget_imag.enableAutoRange()
|
|
self.ui.pgPlotWidget_real.enableAutoRange()
|
|
self.updatePlot()
|
|
self.ui.pgPlotWidget_imag.disableAutoRange()
|
|
self.ui.pgPlotWidget_real.disableAutoRange()
|
|
|
|
|
|
def updatePlot(self):
|
|
log10fmin, log10fmax = self.fit_boundary.getRegion()
|
|
self.data.set_fit_xlimits(10**log10fmin, 10**log10fmax)
|
|
|
|
p0,funcs = [],[]
|
|
for fcn in self.function_registry.get_registered_functions():
|
|
p0.extend(fcn.getParameter())
|
|
funcs.append(fcn)
|
|
# calculate parametrized curve
|
|
self.data.set_fit(p0, funcs)
|
|
|
|
# replot data and fit, TODO: replot only if data changed
|
|
self.data.data_curve_real.setData(self.data.frequency, self.data.epsilon.real)
|
|
self.data.data_curve_imag.setData(self.data.frequency, self.data.epsilon.imag)
|
|
|
|
if len(funcs)> 0:
|
|
self.data.fitted_curve_real.setData(self.data.frequency_fit, self.data.epsilon_fit.real)
|
|
self.data.fitted_curve_imag.setData(self.data.frequency_fit, self.data.epsilon_fit.imag)
|
|
|
|
else:
|
|
self.data.fitted_curve_real.setData([np.nan],[np.nan])
|
|
self.data.fitted_curve_imag.setData([np.nan],[np.nan])
|
|
|
|
|
|
def updateIntermediatePlot(self, freq, intermediate_data):
|
|
self.data.fitted_curve_real.setData(freq, intermediate_data[0])
|
|
self.data.fitted_curve_imag.setData(freq, intermediate_data[1])
|
|
|
|
|
|
def sigint_handler(*args):
|
|
"""Handler for the SIGINT signal (CTRL + C).
|
|
"""
|
|
sys.stderr.write('\r')
|
|
if QMessageBox.question(None, '', "Are you sure you want to quit?",
|
|
QMessageBox.Yes | QMessageBox.No,
|
|
QMessageBox.Yes) == QMessageBox.Yes:
|
|
QApplication.quit()
|
|
|
|
if __name__ == '__main__':
|
|
signal.signal(signal.SIGINT, sigint_handler)
|
|
app = QApplication(sys.argv)
|
|
timer = QTimer()
|
|
timer.start(1000) # Check every second for Strg-c on Cmd line
|
|
timer.timeout.connect(lambda: None)
|
|
main = AppWindow()
|
|
main.showMaximized()
|
|
main.raise_()
|
|
sys.exit(app.exec_())
|