def with_individual_given_intensity(self, N, In, Ba, Bb, Bc, Bd):
"""Generate reflections with given intensity and background."""
from dials.algorithms.simulation import simulate_reciprocal_space_gaussian
from dials.algorithms.simulation.generate_test_reflections import (
random_background_plane2, )
from dials.util.command_line import ProgressBar
# Check the lengths
assert N == len(In)
assert N == len(Ba)
assert N == len(Bb)
assert N == len(Bc)
assert N == len(Bd)
# Generate some predictions
refl = self.generate_predictions(N)
# Calculate the signal
progress = ProgressBar(
title=f"Calculating signal for {len(refl)} reflections")
s1 = refl["s1"]
phi = refl["xyzcal.mm"].parts()[2]
bbox = refl["bbox"]
shoebox = refl["shoebox"]
m = int(len(refl) / 100)
I_exp = flex.double(len(refl), 0)
for i in range(len(refl)):
if In[i] > 0:
data = shoebox[i].data.as_double()
I_exp[i] = simulate_reciprocal_space_gaussian(
self.experiment.beam,
self.experiment.detector,
self.experiment.goniometer,
self.experiment.scan,
self.sigma_b,
self.sigma_m,
s1[i],
phi[i],
bbox[i],
In[i],
data,
shoebox[i].mask,
)
shoebox[i].data = data.as_float()
if i % m == 0:
progress.update(100.0 * float(i) / len(refl))
progress.finished(
f"Calculated signal impacts for {len(refl)} reflections")
# Calculate the background
progress = ProgressBar(
title=f"Calculating background for {len(refl)} reflections")
for l in range(len(refl)):
background = flex.float(flex.grid(shoebox[l].size()), 0.0)
random_background_plane2(background, Ba[l], Bb[l], Bc[l], Bd[l])
shoebox[l].data += background
shoebox[l].background = background
if l % m == 0:
progress.update(100.0 * float(l) / len(refl))
progress.update(100.0 * float(l) / len(refl))
progress.finished(f"Calculated background for {len(refl)} reflections")
## Calculate the expected intensity by monte-carlo integration
# progress = ProgressBar(title='Integrating expected signal for %d reflections' % len(refl))
# s1 = refl['s1']
# phi = refl['xyzcal.mm'].parts()[2]
# bbox = refl['bbox']
# shoebox = refl['shoebox']
# I_exp = flex.double(len(refl), 0)
# m = int(len(refl) / 100)
# for i in range(len(refl)):
# if In[i] > 0:
# I_exp[i] = integrate_reciprocal_space_gaussian(
# self.experiment.beam,
# self.experiment.detector,
# self.experiment.goniometer,
# self.experiment.scan,
# self.sigma_b,
# self.sigma_m,
# s1[i],
# phi[i],
# bbox[i],
# 10000,
# shoebox[i].mask) / 10000.0
# if i % m == 0:
# progress.update(100.0 * float(i) / len(refl))
# progress.finished('Integrated expected signal impacts for %d reflections' % len(refl))
# Save the expected intensity and background
refl["intensity.sim"] = In
refl["background.sim.a"] = Ba
refl["background.sim.b"] = Bb
refl["background.sim.c"] = Bc
refl["background.sim.d"] = Bd
refl["intensity.exp"] = I_exp
# Return the reflections
return refl
def with_individual_given_intensity(self, N, I, Ba, Bb, Bc, Bd):
""" Generate reflections with given intensity and background. """
from dials.array_family import flex
from dials.util.command_line import ProgressBar
from dials.algorithms.simulation import simulate_reciprocal_space_gaussian
from dials.algorithms.simulation.generate_test_reflections import random_background_plane2
# Check the lengths
assert N == len(I)
assert N == len(Ba)
assert N == len(Bb)
assert N == len(Bc)
assert N == len(Bd)
# Generate some predictions
refl = self.generate_predictions(N)
# Calculate the signal
progress = ProgressBar(title="Calculating signal for %d reflections" % len(refl))
s1 = refl["s1"]
phi = refl["xyzcal.mm"].parts()[2]
bbox = refl["bbox"]
shoebox = refl["shoebox"]
m = int(len(refl) / 100)
I_exp = flex.double(len(refl), 0)
for i in range(len(refl)):
if I[i] > 0:
data = shoebox[i].data.as_double()
I_exp[i] = simulate_reciprocal_space_gaussian(
self.experiment.beam,
self.experiment.detector,
self.experiment.goniometer,
self.experiment.scan,
self.sigma_b,
self.sigma_m,
s1[i],
phi[i],
bbox[i],
I[i],
data,
shoebox[i].mask,
)
shoebox[i].data = data.as_float()
if i % m == 0:
progress.update(100.0 * float(i) / len(refl))
progress.finished("Calculated signal impacts for %d reflections" % len(refl))
# Calculate the background
progress = ProgressBar(title="Calculating background for %d reflections" % len(refl))
for l in range(len(refl)):
background = flex.float(flex.grid(shoebox[l].size()), 0.0)
random_background_plane2(background, Ba[l], Bb[l], Bc[l], Bd[l])
shoebox[l].data += background
shoebox[l].background = background
if l % m == 0:
progress.update(100.0 * float(l) / len(refl))
progress.update(100.0 * float(l) / len(refl))
progress.finished("Calculated background for %d reflections" % len(refl))
## Calculate the expected intensity by monte-carlo integration
# progress = ProgressBar(title='Integrating expected signal for %d reflections' % len(refl))
# s1 = refl['s1']
# phi = refl['xyzcal.mm'].parts()[2]
# bbox = refl['bbox']
# shoebox = refl['shoebox']
# I_exp = flex.double(len(refl), 0)
# m = int(len(refl) / 100)
# for i in range(len(refl)):
# if I[i] > 0:
# I_exp[i] = integrate_reciprocal_space_gaussian(
# self.experiment.beam,
# self.experiment.detector,
# self.experiment.goniometer,
# self.experiment.scan,
# self.sigma_b,
# self.sigma_m,
# s1[i],
# phi[i],
# bbox[i],
# 10000,
# shoebox[i].mask) / 10000.0
# if i % m == 0:
# progress.update(100.0 * float(i) / len(refl))
# progress.finished('Integrated expected signal impacts for %d reflections' % len(refl))
# Save the expected intensity and background
refl["intensity.sim"] = I
refl["background.sim.a"] = Ba
refl["background.sim.b"] = Bb
refl["background.sim.c"] = Bc
refl["background.sim.d"] = Bd
refl["intensity.exp"] = I_exp
# Return the reflections
return refl