def isLookupTrivial(self):
"""Return True if the gradient has exactly two stops in it: black at 0.0 and white at 1.0"""
ticks = self.listTicks()
if len(ticks) != 2:
return False
if ticks[0][1] != 0.0 or ticks[1][1] != 1.0:
return False
c1 = fn.colorTuple(ticks[0][0].color)
c2 = fn.colorTuple(ticks[1][0].color)
if c1 != (0,0,0,255) or c2 != (255,255,255,255):
return False
return True
def isLookupTrivial(self):
"""Return True if the gradient has exactly two stops in it: black at 0.0 and white at 1.0"""
ticks = self.listTicks()
if len(ticks) != 2:
return False
if ticks[0][1] != 0.0 or ticks[1][1] != 1.0:
return False
c1 = fn.colorTuple(ticks[0][0].color)
c2 = fn.colorTuple(ticks[1][0].color)
if c1 != (0,0,0,255) or c2 != (255,255,255,255):
return False
return True
def map(self, data):
data = data[self.fieldName]
colors = np.empty((len(data), 4))
default = np.array(fn.colorTuple(self['Default'])) / 255.
colors[:] = default
for v in self.param('Values'):
mask = data == v.maskValue
c = np.array(fn.colorTuple(v.value())) / 255.
colors[mask] = c
#scaled = np.clip((data-self['Min']) / (self['Max']-self['Min']), 0, 1)
#cmap = self.value()
#colors = cmap.map(scaled, mode='float')
#mask = np.isnan(data) | np.isinf(data)
#nanColor = self['NaN']
#nanColor = (nanColor.red()/255., nanColor.green()/255., nanColor.blue()/255., nanColor.alpha()/255.)
#colors[mask] = nanColor
return colors
def map(self, data):
data = data[self.fieldName]
colors = np.empty((len(data), 4))
default = np.array(fn.colorTuple(self['Default'])) / 255.
colors[:] = default
for v in self.param('Values'):
mask = data == v.maskValue
c = np.array(fn.colorTuple(v.value())) / 255.
colors[mask] = c
#scaled = np.clip((data-self['Min']) / (self['Max']-self['Min']), 0, 1)
#cmap = self.value()
#colors = cmap.map(scaled, mode='float')
#mask = np.isnan(data) | np.isinf(data)
#nanColor = self['NaN']
#nanColor = (nanColor.red()/255., nanColor.green()/255., nanColor.blue()/255., nanColor.alpha()/255.)
#colors[mask] = nanColor
return colors
def getSymbolCoords(self, opts):
"""
Given a list of spot records, return an object representing the coordinates of that symbol within the atlas
"""
coords = np.empty(len(opts), dtype=object)
for i, rec in enumerate(opts):
symbol, size, pen, brush = rec['symbol'], rec['size'], rec[
'pen'], rec['brush']
pen = fn.mkPen(pen) if not isinstance(pen, QtGui.QPen) else pen
brush = fn.mkBrush(brush) if not isinstance(
pen, QtGui.QBrush) else brush
key = (symbol, size, fn.colorTuple(pen.color()), pen.widthF(),
pen.style(), fn.colorTuple(brush.color()))
if key not in self.symbolMap:
newCoords = SymbolAtlas.SymbolCoords()
self.symbolMap[key] = newCoords
self.atlasValid = False
#try:
#self.addToAtlas(key) ## squeeze this into the atlas if there is room
#except:
#self.buildAtlas() ## otherwise, we need to rebuild
coords[i] = self.symbolMap[key]
return coords
def getSymbolCoords(self, opts):
"""
Given a list of spot records, return an object representing the coordinates of that symbol within the atlas
"""
coords = np.empty(len(opts), dtype=object)
for i, rec in enumerate(opts):
symbol, size, pen, brush = rec['symbol'], rec['size'], rec['pen'], rec['brush']
pen = fn.mkPen(pen) if not isinstance(pen, QtGui.QPen) else pen
brush = fn.mkBrush(brush) if not isinstance(pen, QtGui.QBrush) else brush
key = (symbol, size, fn.colorTuple(pen.color()), pen.width(), pen.style(), fn.colorTuple(brush.color()))
if key not in self.symbolMap:
newCoords = SymbolAtlas.SymbolCoords()
self.symbolMap[key] = newCoords
self.atlasValid = False
#try:
#self.addToAtlas(key) ## squeeze this into the atlas if there is room
#except:
#self.buildAtlas() ## otherwise, we need to rebuild
coords[i] = self.symbolMap[key]
return coords
def saveState(self):
return functions.colorTuple(self._color)
def saveState(self):
return functions.colorTuple(self._color)
def saveColorState(self):
state = Parameter.saveState(self)
state['value'] = fn.colorTuple(self.value())
return state
def saveColorState(self):
state = Parameter.saveState(self)
state['value'] = fn.colorTuple(self.value())
return state
