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/usr/share/pyshared/PyMca/Object3D/ClippingPlaneConfiguration.py is in pymca 4.5.0-4.

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import Object3DQt as qt
import PyQt4.Qwt5 as Qwt
from Object3DMovement import Object3DRotationWidget, Object3DTranslationWidget
import numpy

DEBUG = 0

class ClippingPlaneConfiguration(qt.QGroupBox):
    def __init__(self, parent = None):
        qt.QGroupBox.__init__(self, parent)
        self.setTitle("Clipping Planes: Only points satisfying Ax + By + Cz + D >=0 will be plotted")
        self.__disconnected = False
        self.build()

    def build(self):
	self.l = qt.QGridLayout(self)
        self.l.setMargin(4)
        self.l.setSpacing(2)
        i = 0
        j = 0
        for item in ['Use', 'Ax', 'By', 'Cz', 'D']:
	   label = qt.QLabel(self)
	   label.setText(item)
	   self.l.addWidget(label, i , j)
	   j += 1

	self.useList    = []
	self.planeList = []
	self.validatorList = []
	for item in [ 'XY', 'XZ', 'YZ', 'U0']:
	    use = qt.QCheckBox(self)
	    use.setText(item)
	    vector = [use]
	    self.connect(use,
			 qt.SIGNAL("clicked()"),
			 self._signal)
	    for k in [0, 1, 2, 3]:
		line = qt.QLineEdit(self)
		line.setFixedWidth(line.fontMetrics().width('########'))
		line.setText('0.0')
		line.setReadOnly(True)
		v = qt.QDoubleValidator(line)
		line.setValidator(v)
		self.validatorList.append(v)
		vector.append(line)
	    if item != "U0":
   	        slider = Qwt.QwtSlider(self, qt.Qt.Horizontal)
	        slider.setRange(-100, 100, 0.05)
	        slider.setValue(0.0)
	        self.connect(slider,
			 qt.SIGNAL("valueChanged(double)"),
			 self._sliderSlot)
			 
		vector.append(slider)
	    self.planeList.append(vector)

	#XY plane
	#vector and point
	self.planeList[0][3].setText('1.0')
	self.planeList[0][3].setReadOnly(False)
	self.planeList[0][4].setReadOnly(False)

	#XZ plane
	#vector and point
	self.planeList[1][2].setText('1.0')
	self.planeList[1][2].setReadOnly(False)
	self.planeList[1][4].setReadOnly(False)

	#YZ plane
	#vector and point
	self.planeList[2][1].setText('1.0')
	self.planeList[2][1].setReadOnly(False)
	self.planeList[2][4].setReadOnly(False)

	for i in range(3):
	    self.connect(self.planeList[i][4],
			 qt.SIGNAL('editingFinished()'),
                         self._lineSlot)
	for p in self.planeList:
	    i += 1
	    for j in range(len(p)):
		self.l.addWidget(p[j], i, j)

    def _sliderSlot(self, *var):
	if self.__disconnected: return
	if DEBUG:print "sliderSlot"
	for i in range(3):
	    value = self.planeList[i][5].value()
	    self.planeList[i][4].setText("%f" % value) 

	self._signal()

    def _lineSlot(self):
	if DEBUG:print "lineSlot"
	for i in range(3):
	    oldValue = self.planeList[i][5].value() 
	    value = float(str(self.planeList[i][4].text()))
	    if (oldValue-value) != 0.0:
	        self.planeList[i][5].setValue(value) 

    def getParameters(self):
	ddict = {}
	ddict['clippingplanes'] = []
	for plane in self.planeList:
	    use = plane[0].isChecked()
	    A   = float(str(plane[1].text()))
	    B   = float(str(plane[2].text()))
	    C   = float(str(plane[3].text()))
	    D   = float(str(plane[4].text()))
	    ddict['clippingplanes'].append([use, A, B, C, D])
	return ddict

    def setParameters(self, ddict=None):
	if ddict is None:return
	if ddict.has_key('limits'):
	    xmin, ymin, zmin = ddict['limits'][0]
	    xmax, ymax, zmax = ddict['limits'][1]
	    self.planeList[0][5].setRange(-abs(zmax), abs(zmax))
	    self.planeList[1][5].setRange(-abs(ymax), abs(ymax))
	    self.planeList[2][5].setRange(-abs(xmax), abs(xmax))
	if ddict.has_key('clippingplanes'):
	    i = 0
	    self.__disconnected = True
	    for plane in ddict['clippingplanes']:
		self.planeList[i][0].setChecked(plane[0])
		for j in [1, 2, 3, 4]:
		    self.planeList[i][j].setText("%f"% plane[j])
	        i += 1
	    self.__disconnected = False  

    def _signal(self, event = None):
	if event is None:
	    event = "ClippingPlaneUpdated"
	ddict = self.getParameters()
	ddict['event'] = event
	self.emit(qt.SIGNAL('ClippingPlaneSignal'),ddict)

class UserClippingPlaneWidget(qt.QWidget):
    def __init__(self, parent = None, vector = None, point = None, rotation=None):
        qt.QWidget.__init__(self, parent)
        self.l = qt.QHBoxLayout(self)
        self.l.setMargin(0)
        self.l.setSpacing(0)
        if vector is None: vector = [0.0, 0.0, 1.0]
        self.vectorWidget = Object3DTranslationWidget(self, vector, labels = ['Axis', 'Value'])
        self.vectorWidget.setTitle("U0 Plane Vector")
        text  = "Normal vector to the U0 Plane\n"
        text += "prior to rotations"
        self.vectorWidget.setToolTip(text)
        self.pointWidget  = Object3DTranslationWidget(self, point,  ['Axis', 'Value'])
        self.pointWidget.setTitle("U0 Plane Point")
        text  = "Coordinates of a U0 Plane point\n"
        text += "in object coordinates"
	self.pointWidget.setToolTip(text)
        self.rotationWidget = Object3DRotationWidget(self, rotation)
	self.rotationWidget.setTitle("U0 Plane Rotation")
	self.l.addWidget(self.vectorWidget)
	self.l.addWidget(self.pointWidget)
	self.l.addWidget(self.rotationWidget)
	self.__disconnected = False
	self.connect(self.vectorWidget,
		     qt.SIGNAL('Object3DTranslationSignal'),
		     self._slot)
	self.connect(self.pointWidget,
		     qt.SIGNAL('Object3DTranslationSignal'),
		     self._slot)
	self.connect(self.rotationWidget,
		     qt.SIGNAL('Object3DRotationSignal'),
		     self._slot)


    def _slot(self, ddict):
	self._emitSignal()

    def getParameters(self):
	ddict={}
	ddict['U0vector']   = self.vectorWidget.getTranslation()
	ddict['U0point']    = self.pointWidget.getTranslation()
	ddict['U0rotation'] = self.rotationWidget.getRotation()
	return ddict

    def setParameters(self, ddict):
	self.__disconnected = True
	if ddict.has_key('U0vector'):
	    self.vectorWidget.setTranslation(ddict['U0vector'])
	if ddict.has_key('U0point'):
	    self.pointWidget.setTranslation(ddict['U0point'])
	if ddict.has_key('U0rotation'):
	    self.rotationWidget.setRotation(ddict['U0rotation'])
	self.__disconnected = False
	
	
    def _emitSignal(self, event=None):
	if self.__disconnected: return
	if DEBUG:print "Emitting UserClippingPlaneSignal"
	if event is None:event="U0PlaneUpdated"
	ddict = self.getParameters()
	ddict['event'] = event
	self.emit(qt.SIGNAL('UserClippingPlaneSignal'), ddict)

class ClippingPlaneWidget(qt.QWidget):
    def __init__(self, parent = None):
        qt.QWidget.__init__(self, parent)
	self.mainLayout = qt.QVBoxLayout(self)
	self.standardClippingPlane = ClippingPlaneConfiguration(self)
	self.userClippingPlane = UserClippingPlaneWidget(self)
	self.mainLayout.addWidget(self.standardClippingPlane)
	self.mainLayout.addWidget(self.userClippingPlane)

	self.connect(self.standardClippingPlane,
		     qt.SIGNAL('ClippingPlaneSignal'),
		     self._emitSignal)

	self.connect(self.userClippingPlane,
		     qt.SIGNAL('UserClippingPlaneSignal'),
		     self._userPlaneSlot)

    def _userPlaneSlot(self, ddict):
	x, y, z = ddict['U0vector']
	if numpy.sqrt(x*x + y*y + z*z) == 0.0:
	    if 0:
		msg = qt.QMessageBox(self)
		msg.setIcon(qt.QMessageBox.Critical)
		msg.setText('Invalid Normal Vector. Module = 0')
		msg.exec_()
		return
	equation = self.calculatePlaneEquation(ddict['U0vector'],
					       ddict['U0point'],
					       ddict['U0rotation'])
	
	ddict = self.standardClippingPlane.getParameters()
	ddict['clippingplanes'][-1][1] = equation [0]
	ddict['clippingplanes'][-1][2] = equation [1]
	ddict['clippingplanes'][-1][3] = equation [2]
	ddict['clippingplanes'][-1][4] = equation [3]
	self.standardClippingPlane.setParameters(ddict)
	self._emitSignal()

    def calculatePlaneEquation(self, vector, point, rotation):
	if (rotation[0] != 0.0) or (rotation[1] != 0.0) or (rotation[2] != 0):
            #RotX
            angle = rotation[0]*numpy.pi/180.
            cs = numpy.cos(angle)
            sn = numpy.sin(angle)
            rotX = numpy.zeros((3,3), numpy.float64)
            rotX[0,0] =  1
            rotX[1,1] =  1
            rotX[2,2] =  1
            rotX[1,1] =  cs; rotX[1,2] = sn   
            rotX[2,1] = -sn; rotX[2,2] = cs

            #RotY
            angle = rotation[1]*numpy.pi/180.
            cs = numpy.cos(angle)
            sn = numpy.sin(angle)
            rotY = numpy.zeros((3,3), numpy.float64)
            rotY[0,0] =  1
            rotY[1,1] =  1
            rotY[2,2] =  1
            rotY[0,0] =  cs; rotY[0,2] = -sn   #inverted respect to the others
            rotY[2,0] =  sn; rotY[2,2] =  cs
            
            #RotZ
            angle = rotation[2]*numpy.pi/180.
            cs = numpy.cos(angle)
            sn = numpy.sin(angle)
            rotZ = numpy.zeros((3,3), numpy.float64)
            rotZ[0,0] =  1
            rotZ[1,1] =  1
            rotZ[2,2] =  1
            rotZ[0,0] =  cs; rotZ[0,1] = sn   
            rotZ[1,0] = -sn; rotZ[1,1] = cs

            #The final matrix
            rotMatrix = numpy.dot(rotZ,numpy.dot(rotY, rotX))
        else:
            rotMatrix = numpy.zeros((3,3), numpy.float64)
            rotMatrix[0,0] =  1
            rotMatrix[1,1] =  1
            rotMatrix[2,2] =  1

	#ABC
	A, B, C = numpy.dot(rotMatrix, numpy.array(vector)).tolist()

	#calculate D
	D = -(A * point[0] +\
	      B * point[1] +\
	      C * point[2] )

	return [A, B, C, D]

    def _emitSignal(self, event = None):
	if DEBUG:print "Emitting ClippingPlaneWidgetSignal"
	if event is None:event = 'ClippingPlaneWidgetUpdated'
	ddict = self.standardClippingPlane.getParameters()
	ddict.update(self.userClippingPlane.getParameters())
	ddict['event'] = event
	self.emit(qt.SIGNAL('ClippingPlaneWidgetSignal'), ddict)

    def setParameters(self, ddict):
	self.standardClippingPlane.setParameters(ddict)
	self.userClippingPlane.setParameters(ddict)
	
if __name__ == "__main__":
    import sys
    app = qt.QApplication(sys.argv)
    def myslot(ddict):
        print "Signal received"
        print "ddict      = ", ddict
    if 0:
	w = ClippingPlaneConfiguration()
	qt.QObject.connect(w,
                       qt.SIGNAL('ClippingPlaneSignal'),
                       myslot)
    elif 1:
	w = ClippingPlaneWidget()
	qt.QObject.connect(w,
                       qt.SIGNAL('ClippingPlaneWidgetSignal'),
                       myslot)
    w.show()    
    app.exec_()