class mainWindow(QMainWindow):
def __init__(self, mode):
super(mainWindow, self).__init__()
self.setGeometry(0, 0, 500, 500)
self.openGLWidget = QOpenGLWidget(self)
self.openGLWidget.setGeometry(0, 0, 500, 500)
if mode == 'unsafe':
self.shader = _shader(self, self.openGLWidget)
self.shader.resize(500, 500)
#self.cube1 = cube((0, 0, 0))
#self.cube2 = cube((1, 0, 0))
#self.cube3 = cube((0, 0, 1))
#self.shader.addShapes(self.cube1, self.cube2, self.cube3)
#self.shader.navigate(vVal = -45)
#self.shader.update()
else:
with shaderManager(self, self.openGLWidget) as shader:
self.shader = shader
self.shader.resize(500, 500)
class mainWindow(QMainWindow): #Main class.
shapes = [
] #place all instaces of shapes in this list in order to have them rendered.
dataPoints = []
zoomLevel = -5
rotateDegreeV = -90
rotateDegreeH = 0
marchActive = False
limit = 0.5
meshPoints = []
step = 0
pairs = [(0, 1), (0, 3), (0, 4), (2, 1), (2, 3), (2, 6), (7, 3), (7, 4),
(7, 6), (5, 1), (5, 4), (5, 6)]
def __init__(self):
super(mainWindow, self).__init__()
self.currentStep = 0
self.width = 700 #Variables used for the setting of the size of everything
self.height = 600
self.setGeometry(0, 0, self.width + 50,
self.height + 25) #Set the window size
self.initData()
self.shapes.append(cube((0, 0, 0)))
self.shapes.append(cube((0, -1, 0)))
for i in range(12):
locA = locByVal(self.pairs[i][0])
locB = locByVal(self.pairs[i][1])
loc = (float(avg(
(locA[0], locB[0]))), float(avg(
(locA[1], locB[1]))), float(avg((locA[2], locB[2]))))
shape = cube(loc, 0.05, False, True, (1, 0, 0))
self.meshPoints.append(shape)
self.shapes.append(shape)
#print(loc)
def setupUI(self):
self.openGLWidget = QOpenGLWidget(self) #Create the GLWidget
self.openGLWidget.setGeometry(0, 0, self.width, self.height)
self.openGLWidget.initializeGL()
self.openGLWidget.resizeGL(
self.width, self.height
) #Resize GL's knowledge of the window to match the physical size?
self.openGLWidget.paintGL = self.paintGL #override the default function with my own?
self.marchButton = QPushButton(self)
self.marchButton.setGeometry(350, self.height, 60, 25)
self.marchButton.setText('Step 0')
self.marchButton.clicked.connect(self.cycle)
self.readout = QLabel(self)
self.readout.setGeometry(240, self.height, 110, 25)
self.readout.setText("[0, 0, 0, 0, 0, 0, 0, 0]")
self.indicators = []
for i in range(8):
indicator = QWidget(self)
indicator.setGeometry(i * 30, self.height, 25, 25)
indicator.setStyleSheet("background-color: blue;")
self.indicators.append(indicator)
def initData(self):
for i in range(8):
loc = locByVal(i)
col = (0, 0.5, 0.5)
shape = cube(location=loc,
drawWires=False,
drawFaces=True,
color=col)
dp = dataPoint(location=loc, value=0.5, shape=shape)
self.dataPoints.append(dp)
self.shapes.append(dp.shape)
def paintGL(self):
glLoadIdentity()
gluPerspective(45, self.width / self.height, 0.1,
110.0) #set perspective?
glTranslatef(
0, 0,
self.zoomLevel) #I used -10 instead of -2 in the PyGame version.
glRotatef(self.rotateDegreeV, 1, 0,
0) #I used 2 instead of 1 in the PyGame version.
glRotatef(self.rotateDegreeH, 0, 0, 1)
glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT)
if len(self.shapes) != 0:
glBegin(GL_LINES)
for s in self.shapes:
glColor3fv(s.color)
if s.render and s.drawWires:
for e in s.edges:
for v in e:
glVertex3fv(s.vertices[v])
glEnd()
glBegin(GL_QUADS)
for s in self.shapes:
glColor3fv(s.color)
if s.render and s.drawFaces:
for f in s.facets:
for v in f:
glVertex3fv(s.vertices[v])
glEnd()
def keyPressEvent(
self, event
): #This is the keypress detector. I use this to determine input to edit grids.
try:
key = event.key()
#print(key)
if key == 87:
self.nav(rotV=5)
elif key == 65:
self.nav(rotH=5)
elif key == 83:
self.nav(rotV=-5)
elif key == 68:
self.nav(rotH=-5)
elif key == 67:
self.nav(zoomVal=1)
elif key == 88:
self.nav(zoomVal=-1)
elif key == 82:
self.cycle('up')
elif key == 70:
self.cycle('down')
except:
pass
def nav(self, zoomVal=0, rotV=0, rotH=0):
self.zoomLevel += zoomVal
self.rotateDegreeV += rotV
self.rotateDegreeH += rotH
self.openGLWidget.update()
def filter(self, value):
self.limit = rnd((value / 49.5) - 1, -2)
for d in self.dataPoints:
if d.value < self.limit:
d.shape.hide()
else:
d.shape.show()
self.limitDisplay.setText(str(self.limit))
self.openGLWidget.update()
def getDP(self, coord):
x, y, z = coord
#print(self.dataPoints)
#print('requested coordinates: {}'.format(coord))
for dp in self.dataPoints:
#print('dataPoint.location: {}'.format(dp.location))
if dp.location == (x, y, z):
return dp
return False
def cycle(self, dir='up'):
#housekeeping
if dir == 'up':
if self.step == 255:
self.step = 0
else:
self.step += 1
elif dir == 'down':
if self.step == 0:
self.step = 255
else:
self.step -= 1
#set the points
self.marchButton.setText("Step " + str(self.step))
binDat = intToBin(self.step)
self.readout.setText(str(binDat))
for dp in self.dataPoints:
dp.shape.recolor((0, 0.5, 0.5))
for indi in self.indicators:
indi.setStyleSheet("background-color: blue;")
for i in range(8):
rawDat = binDat[7 - i]
dat = (rawDat - 0.5) * 2 #0 --> -1 1 --> 1
self.dataPoints[i].set(dat)
self.dataPoints[i].shape.recolor((0, rawDat, 1 - rawDat))
if dat == 1:
self.indicators[7 -
i].setStyleSheet("background-color: green;")
#show/hide the meshPoints
for i in range(12):
pointA = self.dataPoints[self.pairs[i][0]]
pointB = self.dataPoints[self.pairs[i][1]]
if pointA.value != pointB.value:
self.meshPoints[i].show()
else:
self.meshPoints[i].hide()
self.openGLWidget.update()
class mainWindow(QMainWindow): #Main class.
shapes = [
] #place all instances of shapes in this list in order to have them rendered.
dataPoints = []
zoomLevel = -10
rotateDegreeV = -90
rotateDegreeH = 0
marchActive = False
limit = -1.0
meshPoints = []
animationActive = False
anLoops = 0
printConfigs = False
dataFieldSize = (3, 3, 3)
def keyPressEvent(self, event): #This is the keypress detector.
try:
key = event.key()
except:
key = -1
#print(key)
if key == 87:
self.nav(vVal=5)
elif key == 65:
self.nav(hVal=5)
elif key == 83:
self.nav(vVal=-5)
elif key == 68:
self.nav(hVal=-5)
elif key == 67:
self.nav(zVal=1)
elif key == 88:
self.nav(zVal=-1)
elif key == 77:
self.marchStep()
elif key == 16777216:
exit()
elif key == 16777235:
self.filter(0.1)
elif key == 16777237:
self.filter(-0.1)
def __init__(self, mode):
super(mainWindow, self).__init__()
self.opMode = mode
self.currentStep = 0
if self.opMode == 'show':
self.sizeX = self.screen().size().width(
) #Variables used for the setting of the size of everything
self.sizeY = self.screen().size().height()
elif self.opMode == 'config':
self.sizeX = 500
self.sizeY = 500
self.setGeometry(0, 0, self.sizeX + 50,
self.sizeY) #Set the window size
self.initData(self.dataFieldSize)
self.setupUI()
if self.opMode == 'show':
self.animateStep()
def setupUI(self):
self.openGLWidget = QOpenGLWidget(self) #Create the GLWidget
self.openGLWidget.setGeometry(0, 0, self.sizeX, self.sizeY)
self.openGLWidget.initializeGL()
self.openGLWidget.resizeGL(
self.sizeX, self.sizeY
) #Resize GL's knowledge of the window to match the physical size?
self.openGLWidget.paintGL = self.paintGL #override the default function with my own?
if self.opMode != 'show':
self.filterSlider = QSlider(Qt.Vertical, self)
self.filterSlider.setGeometry(self.sizeX + 10,
int(self.sizeY / 2) - 100, 30, 200)
self.filterSlider.valueChanged[int].connect(self.barFilter)
self.limitDisplay = QLabel(self)
self.limitDisplay.setGeometry(self.sizeX,
int(self.sizeY / 2) - 130, 50, 30)
self.limitDisplay.setAlignment(Qt.AlignCenter)
self.limitDisplay.setText('-1')
self.marchButton = QPushButton(self)
self.marchButton.setGeometry(self.sizeX,
int(self.sizeY / 2) - 160, 50, 30)
self.marchButton.setText('March!')
self.marchButton.clicked.connect(self.marchStep)
def initData(self, fieldSize):
sizeX, sizeY, sizeZ = fieldSize
marchSizeX = sizeX - 1
marchSizeY = sizeY - 1
marchSizeZ = sizeZ - 1
xOff = -(sizeX / 2) + 0.5
yOff = -(sizeY / 2) + 0.5
zOff = -(sizeZ / 2) + 0.5
xMarchOff = -(marchSizeX / 2) + 0.5
yMarchOff = -(marchSizeY / 2) + 0.5
zMarchOff = -(marchSizeZ / 2) + 0.5
self.marchPoints = []
for z in range(marchSizeZ):
for y in range(marchSizeY):
for x in range(marchSizeX):
self.marchPoints.append(
(x + xMarchOff, y + yMarchOff, z + zMarchOff))
for z in range(sizeZ):
for y in range(sizeY):
for x in range(sizeX):
val = generate(x + xOff, y + yOff, z + zOff)
dpColor = (0, (val + 1) / 2, (val + 1) / -2 + 1)
dpShape = cube((x + xOff, y + yOff, z + zOff),
drawWires=False,
drawFaces=True,
color=dpColor)
dp = dataPoint((x + xOff, y + yOff, z + zOff), val,
dpShape)
self.dataPoints.append(dp)
self.shapes.append(dpShape)
def marchStep(self):
#print(self.currentStep)
if not self.marchActive: #initialize
marchAddr = len(self.shapes)
self.marchingCube = cube(size=1)
self.shapes.append(self.marchingCube)
self.marchActive = True
self.currentStep = 0
self.mainMesh = mesh()
self.shapes.append(self.mainMesh)
if self.currentStep == len(self.marchPoints): #1 step after last
self.marchingCube.hide()
self.currentStep += 1
for mp in self.meshPoints:
mp.shape.hide()
self.meshPoints = []
self.openGLWidget.update()
return
if self.currentStep == len(self.marchPoints) + 1: #2 steps after last
#print('meshPoints: {}'.format(self.meshPoints))
for mp in self.meshPoints:
#print(mp.shape)
self.shapes.remove(mp.shape)
self.meshPoints.clear()
self.shapes.remove(self.mainMesh)
self.meshes = []
self.currentStep = -1
self.openGLWidget.update()
return
if self.currentStep == -1: #1 step before first
self.marchingCube.hide()
self.currentStep += 1
#print('self.meshPoints: {}\nself.meshes: {}\nself.shapes: {}'.format(self.meshPoints, self.meshes, self.shapes))
self.openGLWidget.update()
self.mainMesh = mesh()
self.shapes.append(self.mainMesh)
return
self.marchingCube.show()
p = self.marchPoints[self.currentStep]
x, y, z = p
self.marchingCube.move((x, y, z))
points = []
for i in range(8):
#print(self.marchingCube.vertices[i])
point = self.getDataPointByLocation(self.marchingCube.vertices[i])
points.append(point)
#place meshpoints and highlight the active ones.
MPs = []
for pair in self.marchingCube.wires:
pointA = points[pair[0]]
pointB = points[pair[1]]
#print('pointA.value: {} pointB.value: {} limit: {}'.formatpointA.value, pointB.value, self.limit)
xA, yA, zA = pointA.location
xB, yB, zB = pointB.location
valA = (pointA.value + 1) / 2
valB = (pointB.value + 1) / 2
xC = float(avg([xA, xB]))
yC = float(avg([yA, yB]))
zC = float(avg([zA, zB]))
mp = meshPoint()
mp.place(xC, yC, zC)
mp.setShape(
cube(size=0.05,
drawWires=False,
drawFaces=True,
color=(1, 0, 0)))
mp.shape.move((xC, yC, zC))
self.shapes.append(mp.shape)
self.meshPoints.append(mp)
MPs.append(mp)
if (pointA.value < self.limit and pointB.value > self.limit) or (
pointA.value > self.limit and pointB.value < self.limit):
mp.setActive(True)
else:
mp.setActive(False)
activeConfig = 0
for i in range(8):
if points[i].value > self.limit:
activeConfig += int(2**i)
oldConfig = activeConfig
if activeConfig > 127:
activeConfig = 255 - activeConfig
if self.printConfigs:
print('Old configuration number: {}\nConfiguration number: {}'.
format(oldConfig, activeConfig))
config = table[activeConfig]
if self.printConfigs:
print('Configuration: {}\nnumber of points: {}'.format(
config, len(MPs)))
for data in config:
a, b, c = data
locA = MPs[a].location
locB = MPs[b].location
locC = MPs[c].location
self.mainMesh.addFacet((locA, locB, locC))
self.currentStep += 1
self.openGLWidget.update()
def nav(self, hVal=0, vVal=0, zVal=0):
self.zoomLevel += zVal
self.rotateDegreeH += hVal
self.rotateDegreeV += vVal
self.openGLWidget.update()
def barFilter(self, value):
self.limit = rnd((value / 49.5) - 1, -2)
for d in self.dataPoints:
if d.value < self.limit:
d.shape.hide()
else:
d.shape.show()
self.limitDisplay.setText(str(self.limit))
self.openGLWidget.update()
def filter(self, value):
self.limit += value
self.limit = float(rnd(self.limit, -2))
for d in self.dataPoints:
if d.value < self.limit:
d.shape.hide()
else:
d.shape.show()
if self.opMode != 'show':
self.limitDisplay.setText(str(self.limit))
#print(self.limit)
self.openGLWidget.update()
def paintGL(self):
#This function uses shape objects, such as cube() or mesh(). Shape objects require the following:
#a list named 'vertices' - This list is a list of points, from which edges and faces are drawn.
#a list named 'wires' - This list is a list of tuples which refer to vertices, dictating where to draw wires.
#a list named 'facets' - This list is a list of tuples which refer to vertices, ditating where to draw facets.
#a bool named 'render' - This bool is used to dictate whether or not to draw the shape.
#a bool named 'drawWires' - This bool is used to dictate whether wires should be drawn.
#a bool named 'drawFaces' - This bool is used to dictate whether facets should be drawn.
glLoadIdentity()
gluPerspective(45, self.sizeX / self.sizeY, 0.1,
110.0) #set perspective?
glTranslatef(
0, 0,
self.zoomLevel) #I used -10 instead of -2 in the PyGame version.
glRotatef(self.rotateDegreeV, 1, 0,
0) #I used 2 instead of 1 in the PyGame version.
glRotatef(self.rotateDegreeH, 0, 0, 1)
glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT)
if len(self.shapes) != 0:
glBegin(GL_LINES)
for s in self.shapes:
glColor3fv(s.color)
if s.render and s.drawWires:
for w in s.wires:
for v in w:
glVertex3fv(s.vertices[v])
glEnd()
glBegin(GL_QUADS)
for s in self.shapes:
glColor3fv(s.color)
if s.render and s.drawFaces:
for f in s.facets:
for v in f:
glVertex3fv(s.vertices[v])
glEnd()
def getDataPointByLocation(self, coord):
x, y, z = coord
#print(self.dataPoints)
#print('requested coordinates: {}'.format(coord))
for dp in self.dataPoints:
#print('dataPoint.location: {}'.format(dp.location))
if dp.location == (x, y, z):
return dp
return False
def animateStep(self):
if not self.animationActive:
self.animationTimer = QTimer()
self.animationTimer.start(1000)
self.animationTimer.timeout.connect(self.animateStep)
self.nav(hVal=-15, vVal=20, zVal=-2)
self.animationActive = True
self.limit = 0
self.filter(0)
if self.currentStep == -1:
#print('current shapes: {}'.format(len(self.shapes)))
numMarchingCubes = 0
numMainMeshes = 0
cycles = 0
removedShapes = 0
keptShapes = 0
# for s in self.shapes:
# if s == self.marchingCube:
# numMarchingCubes += 1
# if s == self.mainMesh:
# numMainMeshes += 1
# if s != self.marchingCube and s != self.mainMesh:
# removedShapes += 1
# self.shapes.remove(s)
# else:
# keptShapes += 1
# cycles += 1
# print('cycled through {} shapes\nremoved {} shapes\n kept {} shapes\nremaining shapes: {}\nnumber of marchingCubes: {}\nnumber of mainMeshes: {}'.format(cycles, removedShapes, keptShapes, len(self.shapes), numMarchingCubes, numMainMeshes))
self.shapes = [self.marchingCube]
print("\n\nself.shapes: {}\nself.meshPoints: {}".format(
self.shapes, self.meshPoints))
self.dataPoints = []
self.initData(self.dataFieldSize)
self.filter(0)
self.anLoops += 1
# if self.anLoops == 2:
# self.animationTimer.stop()
# exit()
self.marchStep()
self.nav(hVal=2)
class mainWindow(QMainWindow): #Main class.
shapes = [] #place all instaces of shapes in this list in order to have them rendered.
dataPoints = []
zoomLevel = -10
rotateDegreeV = -90
rotateDegreeH = 0
marchActive = False
limit = -1
meshPoints = []
meshSectors = []
def keyPressEvent(self, event): #This is the keypress detector.
try:
key = event.key()
except:
key = -1
#print(key)
if key == 87:
self.rotateV(5)
elif key == 65:
self.rotateH(5)
elif key == 83:
self.rotateV(-5)
elif key == 68:
self.rotateH(-5)
elif key == 67:
self.zoom(1)
elif key == 88:
self.zoom(-1)
elif key == 77:
self.marchStep()
def __init__(self):
super(mainWindow, self).__init__()
self.currentStep = 0
self.width = 700 #Variables used for the setting of the size of everything
self.height = 600
self.setGeometry(0, 0, self.width + 50, self.height) #Set the window size
self.initData(4, 4, 4)
def setupUI(self):
self.openGLWidget = QOpenGLWidget(self) #Create the GLWidget
self.openGLWidget.setGeometry(0, 0, self.width, self.height)
self.openGLWidget.initializeGL()
self.openGLWidget.resizeGL(self.width, self.height) #Resize GL's knowledge of the window to match the physical size?
self.openGLWidget.paintGL = self.paintGL #override the default function with my own?
self.filterSlider = QSlider(Qt.Vertical, self)
self.filterSlider.setGeometry(self.width + 10, int(self.height / 2) - 100, 30, 200)
self.filterSlider.valueChanged[int].connect(self.filter)
self.limitDisplay = QLabel(self)
self.limitDisplay.setGeometry(self.width, int(self.height / 2) - 130, 50, 30)
self.limitDisplay.setAlignment(Qt.AlignCenter)
self.limitDisplay.setText('-1')
self.marchButton = QPushButton(self)
self.marchButton.setGeometry(self.width, int(self.height / 2) - 160, 50, 30)
self.marchButton.setText('March!')
self.marchButton.clicked.connect(self.marchStep)
def initData(self, sizeX, sizeY, sizeZ):
marchSizeX = sizeX - 1
marchSizeY = sizeY - 1
marchSizeZ = sizeZ - 1
xOff = -(sizeX / 2) + 0.5
yOff = -(sizeY / 2) + 0.5
zOff = -(sizeZ / 2) + 0.5
xMarchOff = -(marchSizeX / 2) + 0.5
yMarchOff = -(marchSizeY / 2) + 0.5
zMarchOff = -(marchSizeZ / 2) + 0.5
self.marchPoints = []
for z in range(marchSizeZ):
for y in range(marchSizeY):
for x in range(marchSizeX):
self.marchPoints.append((x + xMarchOff, y + yMarchOff ,z + zMarchOff))
for z in range(sizeZ):
for y in range(sizeY):
for x in range(sizeX):
val = self.generate(x + xOff, y + yOff, z + zOff)
dpColor = (0, (val + 1) / 2, (val + 1) / -2 + 1)
dpShape = cube((x + xOff, y + yOff, z + zOff), drawWires = False, drawFaces = True, color = dpColor)
dp = dataPoint((x + xOff, y + yOff, z + zOff), val, dpShape)
self.dataPoints.append(dp)
self.shapes.append(dpShape)
def paintGL(self):
#This function uses shape objects, such as cube() or meshSector(). Shape objects require the following:
#a list named 'vertices' - This list is a list of points, from which edges and faces are drawn.
#a list named 'wires' - This list is a list of tuples which refer to vertices, dictating where to draw wires.
#a list named 'facets' - This list is a list of tuples which refer to vertices, ditating where to draw facets.
#a bool named 'render' - This bool is used to dictate whether or not to draw the shape.
#a bool named 'drawWires' - This bool is used to dictate whether wires should be drawn.
#a bool named 'drawFaces' - This bool is used to dictate whether facets should be drawn.
glLoadIdentity()
gluPerspective(45, self.width / self.height, 0.1, 110.0) #set perspective?
glTranslatef(0, 0, self.zoomLevel) #I used -10 instead of -2 in the PyGame version.
glRotatef(self.rotateDegreeV, 1, 0, 0) #I used 2 instead of 1 in the PyGame version.
glRotatef(self.rotateDegreeH, 0, 0, 1)
glClear(GL_COLOR_BUFFER_BIT|GL_DEPTH_BUFFER_BIT)
if len(self.shapes) != 0:
glBegin(GL_LINES)
for s in self.shapes:
glColor3fv(s.color)
if s.render and s.drawWires:
for w in s.wires:
for v in w:
glVertex3fv(s.vertices[v])
glEnd()
glBegin(GL_QUADS)
for s in self.shapes:
glColor3fv(s.color)
if s.render and s.drawFaces:
for f in s.facets:
for v in f:
glVertex3fv(s.vertices[v])
glEnd()
def marchStep(self):
print(self.currentStep)
if not self.marchActive: #initialize
marchAddr = len(self.shapes)
self.marchingCube = cube(size = 1)
self.shapes.append(self.marchingCube)
self.marchActive = True
self.currentStep = 0
if self.currentStep == len(self.marchPoints): #1 step after last
self.marchingCube.hide()
self.currentStep += 1
for mp in self.meshPoints:
mp.shape.hide()
self.meshPoints = []
self.openGLWidget.update()
return
if self.currentStep == len(self.marchPoints) + 1: #2 steps after last
#print('meshPoints: {}'.format(self.meshPoints))
for mp in self.meshPoints:
#print(mp.shape)
self.shapes.remove(mp.shape)
self.meshPoints.clear()
for shape in self.shapes:
if shape in self.meshSectors:
self.shapes.remove(shape)
self.meshSectors = []
self.currentStep = -1
self.openGLWidget.update()
return
if self.currentStep == -1: #1 step before first
self.marchingCube.hide()
self.currentStep += 1
print('self.meshPoints: {}\nself.meshSectors: {}\nself.shapes: {}'.format(self.meshPoints, self.meshSectors, self.shapes))
self.openGLWidget.update()
return
self.marchingCube.show()
p = self.marchPoints[self.currentStep]
x, y, z = p
self.marchingCube.move((x, y, z))
points = []
for i in range(8):
#print(self.marchingCube.vertices[i])
point = self.getDataPointByLocation(self.marchingCube.vertices[i])
points.append(point)
#place meshpoints and highlight the active ones.
MPs = []
for pair in self.marchingCube.wires:
pointA = points[pair[0]]
pointB = points[pair[1]]
#print('pointA.value: {} pointB.value: {} limit: {}'.formatpointA.value, pointB.value, self.limit)
xA, yA, zA = pointA.location
xB, yB, zB = pointB.location
valA = (pointA.value + 1) / 2
valB = (pointB.value + 1) / 2
xC = float(avg([xA, xB]))
yC = float(avg([yA, yB]))
zC = float(avg([zA, zB]))
mp = meshPoint()
mp.place(xC, yC, zC)
mp.setShape(cube(size = 0.05, drawWires = False, drawFaces = True, color = (1, 0, 0)))
mp.shape.move((xC, yC, zC))
self.shapes.append(mp.shape)
self.meshPoints.append(mp)
MPs.append(mp)
if (pointA.value < self.limit and pointB.value > self.limit) or (pointA.value > self.limit and pointB.value < self.limit):
mp.setActive(True)
else:
mp.setActive(False)
activeConfig = 0
sector = meshSector()
self.meshSectors.append(sector)
self.shapes.append(sector)
for i in range(8):
if points[i].value > self.limit:
activeConfig += int(2 ** i)
print('Configuration number: {}'.format(activeConfig))
if activeConfig > 127:
activeConfig = 255 - activeConfig
print('Configuration number: {}'.format(activeConfig))
config = table[activeConfig]
print('Configuration: {}'.format(config))
print('number of points: {}'.format(len(MPs)))
for data in config:
a, b, c = data
locA = MPs[a].location
locB = MPs[b].location
locC = MPs[c].location
sector.addFacet((locA, locB, locC))
print('stepping')
self.currentStep += 1
self.rotateH(0)
def zoom(self, value):
self.zoomLevel += value
self.openGLWidget.update()
def rotateV(self, value):
self.rotateDegreeV += value
self.openGLWidget.update()
def rotateH(self, value):
self.rotateDegreeH += value
self.openGLWidget.update()
def filter(self, value):
self.limit = rnd((value / 49.5) -1, -2)
for d in self.dataPoints:
if d.value < self.limit:
d.shape.hide()
else:
d.shape.show()
self.limitDisplay.setText(str(self.limit))
self.openGLWidget.update()
def getDataPointByLocation(self, coord):
x, y, z = coord
#print(self.dataPoints)
#print('requested coordinates: {}'.format(coord))
for dp in self.dataPoints:
#print('dataPoint.location: {}'.format(dp.location))
if dp.location == (x, y, z):
return dp
return False
def generate2(self, xIn, yIn, zIn):
if xIn == 0 and yIn == 0 and zIn == 0:
return 0.5
return -0.5
def generate(self, xIn, yIn, zIn): #Function which produces semi-random values based on the supplied coordinates.
i = -int(xIn * yIn * (10 + zIn))
j = int(xIn * yIn * (10 + zIn))
if i < j:
mixer = random.randint(i, j + 1)
else:
mixer = random.randint(j, i + 1)
a = avg([sin(cos(xIn)), tan(tan(yIn)), cos(tan(zIn))])
out = mixer * a
while out > 10:
out -= 5
while out < -10:
out += 5
return float(out / 10)