def compute_d_single(self, experiment):
'''
Compute the resolution for each reflection.
:param experiment: The experimental models
:return: The resolution for each reflection
'''
from dials.array_family import flex
uc = flex.unit_cell(1)
uc[0] = experiment.crystal.get_unit_cell()
self['d'] = uc.d(self['miller_index'], flex.size_t(len(self), 0))
return self['d']
def compute_d_single(self, experiment):
'''
Compute the resolution for each reflection.
:param experiment: The experimental models
:return: The resolution for each reflection
'''
from dials.array_family import flex
uc = flex.unit_cell(1)
uc[0] = experiment.crystal.get_unit_cell()
self['d'] = uc.d(self['miller_index'], flex.size_t(len(self), 0))
return self['d']
def compute_d(self, experiments):
'''
Compute the resolution for each reflection.
:param experiments: The experiment list
:return: The resolution for each reflection
'''
from dials.array_family import flex
uc = flex.unit_cell(len(experiments))
for i, e in enumerate(experiments):
uc[i] = e.crystal.get_unit_cell()
assert self['id'].all_ge(0)
self['d'] = uc.d(self['miller_index'], flex.size_t(list(self['id'])))
return self['d']
def compute_d(self, experiments):
'''
Compute the resolution for each reflection.
:param experiments: The experiment list
:return: The resolution for each reflection
'''
from dials.array_family import flex
uc = flex.unit_cell(len(experiments))
for i, e in enumerate(experiments):
uc[i] = e.crystal.get_unit_cell()
assert self['id'].all_ge(0)
self['d'] = uc.d(self['miller_index'], flex.size_t(list(self['id'])))
return self['d']
