def makefuncdata(self):
'''Make a list of datasets for composite fitting function and its components
'''
nf = self.func.noOfFunctions
coords = _jinput(self.coords)
if nf > 1:
fdata = [_sciwrap(self.func.calculateValues(coords))]
fdata[0].name = "Composite function"
for n in range(nf):
fdata.append(_sciwrap(self.func.getFunction(n).calculateValues(*coords)))
elif nf == 1:
fdata = [_sciwrap(self.func.getFunction(0).calculateValues(coords))]
else:
fdata = []
return fdata
def makefuncdata(self, all=True):
'''Make a list of datasets for composite fitting function and its components
all -- if True, then make datasets for all contributing functions
'''
nf = self.func.noOfFunctions
coords = _jinput(self.coords)
if nf >= 1:
fdata = [_sciwrap(self.func.calculateValues(coords))]
if all:
if nf > 1:
fdata[0].name = "Composite function"
for n in range(nf):
fdata.append(_sciwrap(self.func.getFunction(n).calculateValues(*coords)))
else:
fdata = []
return fdata
def makefuncdata(self, all=True):
'''Make a list of datasets for composite fitting function and its components
all -- if True, then make datasets for all contributing functions
'''
nf = self.func.noOfFunctions
coords = _jinput(self.coords)
if nf >= 1:
fdata = [_sciwrap(self.func.calculateValues(coords))]
if all:
if nf > 1:
fdata[0].name = "Composite function"
for n in range(nf):
fdata.append(
_sciwrap(
self.func.getFunction(n).calculateValues(*coords)))
else:
fdata = []
return fdata
def makefuncdata(self):
'''Make a list of datasets for composite fitting function and its components
'''
nf = self.func.noOfFunctions
coords = _jinput(self.coords)
if nf > 1:
fdata = [_sciwrap(self.func.calculateValues(coords))]
fdata[0].name = "Composite function"
for n in range(nf):
fdata.append(
_sciwrap(
self.func.getFunction(n).calculateValues(*coords)))
elif nf == 1:
fdata = [
_sciwrap(self.func.getFunction(0).calculateValues(coords))
]
else:
fdata = []
return fdata
def _area(self):
'''Area or hypervolume under fit assuming coordinates are uniformly spaced
'''
deltax = self._calcdelta(self.coords)
return _sciwrap(self.func.calculateValues(_jinput(
self.coords)).sum()) * deltax
def _residual(self):
'''Residual of fit
'''
return self.func.residual(True, _jinput(self.data), None,
_jinput(self.coords))
def _area(self):
'''Area or hypervolume under fit assuming coordinates are uniformly spaced
'''
deltax = self._calcdelta(self.coords)
return _sciwrap(self.func.calculateValues(_jinput(self.coords))).sum() * deltax
def _residual(self):
'''Residual of fit
'''
return self.func.residual(True, _jinput(self.data), None, _jinput(self.coords))