def plot(pp, mm):
from matplotlib import pyplot as plt
ba.plot_simulation_result(pp, postpone_show=True)
plt.semilogy(mm.axis(), mm.array())
plt.legend(['Up-Up', 'Down-Down'], loc='upper right')
plt.show()
def plot_data():
"""
Load data and plot results
"""
data = load_data(f65569)
plt.figure(figsize=(10, 10))
ba.plot_simulation_result(data,
units=ba.AxesUnits.QSPACE,
intensity_min=0.1,
intensity_max=8e+01)
plt.show()
def plot(result_wl, result_qz):
"""
Plots data for several selected layers
"""
ba.plot_simulation_result(result_qz, postpone_show=True)
plt.semilogy(result_wl.axis(), result_wl.array(), 'ko', markevery=10)
plt.legend([r'$q_z$-defined beam', r'$\lambda$-defined beam'],
loc='upper right')
plt.show()
def plot(results):
"""
:param results:
:return:
"""
from matplotlib import pyplot as plt
ba.plot_simulation_result(results, postpone_show=True)
genx_axis, genx_values = create_real_data()
plt.semilogy(genx_axis, genx_values, 'ko', markevery=300)
plt.legend(['BornAgain', 'GenX'], loc='upper right')
plt.show()
simulation.setSample(sample)
# set region of interest in mm
simulation.setRegionOfInterest(150.0, 390.0, 520.0, 650.0)
# uncomment lines below to add the beam divergence
# beware: this will increase the simulation time a lot!
# wavelength_distr = ba.DistributionLogNormal(wavelength*angstrom, 0.2*wavelength*angstrom)
# alpha_distr = ba.DistributionGaussian(ai * deg, 0.05 * deg)
# phi_distr = ba.DistributionGaussian(0.0 * deg, 0.15 * deg)
# simulation.addParameterDistribution("*/Beam/Wavelength", wavelength_distr, 5)
# simulation.addParameterDistribution("*/Beam/InclinationAngle", alpha_distr, 3)
# simulation.addParameterDistribution("*/Beam/AzimuthalAngle", phi_distr, 5)
# options
# simulation.getOptions().setUseAvgMaterials(True) # does not work for the microgel FF in 1.11
simulation.getOptions().setIncludeSpecular(True) # include specular peak
simulation.getOptions().setNumberOfThreads(
-1) # custom FF can be calculaten only in a single thread
simulation.setTerminalProgressMonitor() # show progress
simulation.runSimulation() # run simulation
return simulation.result() # return result
if __name__ == '__main__':
result = run_simulation()
# to save the simulated matrix to a file, uncomment the line below
# np.savetxt(sim_datafile, result.histogram2d(ba.AxesUnits.QSPACE).getArray())
ba.plot_simulation_result(result,
units=ba.AxesUnits.QSPACE,
intensity_min=1.0e-05,
intensity_max=0.2)
multilayer = ba.MultiLayer()
multilayer.addLayer(l_air)
multilayer.addLayer(l_substrate)
# print(multilayer.parametersToString())
return multilayer
def get_simulation():
simulation = ba.GISASSimulation()
simulation.setDetectorParameters(400, -2.0 * deg, 2.0 * deg, 400,
0.0 * deg, 3.0 * deg)
simulation.setBeamParameters(0.1 * nm, 0.2 * deg, 0.0 * deg)
simulation.setBeamIntensity(1.0e+06)
# simulation.getOptions().setMonteCarloIntegration(True, 20) # uncomment for large mesocrystals
simulation.setTerminalProgressMonitor()
return simulation
def run_simulation():
sample = get_sample()
simulation = get_simulation()
simulation.setSample(sample)
simulation.runSimulation()
return simulation.result()
if __name__ == '__main__':
result = run_simulation()
ba.plot_simulation_result(result, intensity_max=1e+06)
Returns an off-specular simulation with beam and detector defined.
"""
simulation = ba.OffSpecSimulation()
simulation.setDetectorParameters(20, phi_f_min * deg, phi_f_max * deg, 200,
alpha_f_min * deg, alpha_f_max * deg)
# define the beam with alpha_i varied between alpha_i_min and alpha_i_max
alpha_i_axis = ba.FixedBinAxis("alpha_i", 200, alpha_i_min * deg,
alpha_i_max * deg)
simulation.setBeamParameters(1.0 * angstrom, alpha_i_axis, 0.0 * deg)
simulation.setBeamIntensity(1e9)
return simulation
def run_simulation():
"""
Runs simulation and returns intensity map.
"""
sample = get_sample()
simulation = get_simulation()
simulation.setSample(sample)
simulation.runSimulation()
return simulation.result()
if __name__ == '__main__':
result = run_simulation()
ba.plot_simulation_result(result,
intensity_min=1.0,
cmap='jet',
aspect='auto')
multi_layer.addLayer(ni_layer)
multi_layer.addLayer(substrate_layer)
return multi_layer
def get_simulation(scan_size=500):
"""
Defines and returns a specular simulation.
"""
simulation = ba.SpecularSimulation()
scan = ba.AngularSpecScan(1.54 * angstrom, scan_size, 0.0 * deg, 2.0 * deg)
simulation.setScan(scan)
return simulation
def run_simulation():
"""
Runs simulation and returns its result.
"""
sample = get_sample()
simulation = get_simulation()
simulation.setSample(sample)
simulation.runSimulation()
return simulation.result()
if __name__ == '__main__':
results = run_simulation()
ba.plot_simulation_result(results, c='k')
multi_layer.addLayer(substrate_layer)
return multi_layer
def get_simulation():
"""
Create and return GISAXS simulation with beam and detector defined
"""
simulation = ba.GISASSimulation()
simulation.setDetectorParameters(200, -1.0*deg, 1.0*deg,
200, 0.0*deg, 2.0*deg)
simulation.setBeamParameters(1.0*angstrom, 0.2*deg, 0.0*deg)
simulation.getOptions().setMonteCarloIntegration(True, 100)
return simulation
def run_simulation():
"""
Runs simulation and returns intensity map.
"""
simulation = get_simulation()
simulation.setSample(get_sample())
simulation.setTerminalProgressMonitor()
simulation.runSimulation()
return simulation.result()
if __name__ == '__main__':
result = run_simulation()
ba.plot_simulation_result(result, 1e-03)
"""
simulation = ba.GISASSimulation()
simulation.setBeamParameters(wl * ba.angstrom, alpha_i * ba.deg,
0.0 * ba.deg)
simulation.setDetector(create_detector())
simulation.setBeamIntensity(beam_intensity)
return simulation
def run_simulation():
"""
Runs simulation and returns resulting intensity map.
"""
sample = get_sample()
simulation = get_simulation(wavelength)
simulation.setDetectorResolutionFunction(
ba.ResolutionFunction2DGaussian(2.0 * psize, 1.0 * psize))
simulation.setSample(sample)
simulation.setRegionOfInterest(20, 400, 650, 650)
# options
simulation.getOptions().setUseAvgMaterials(True)
#simulation.getOptions().setIncludeSpecular(True)
simulation.setTerminalProgressMonitor()
simulation.runSimulation()
return simulation.result()
if __name__ == '__main__':
result = run_simulation()
ba.plot_simulation_result(result, units=ba.AxesUnits.QSPACE)
roughness = ba.LayerRoughness(sigma, 0.5, 10.0*nm)
multiLayer_1.addLayerWithTopRoughness(layer_2, roughness)
multiLayer_1.addLayer(layer_3)
multiLayer_1.addLayerWithTopRoughness(layer_4, layerRoughness_1)
return multiLayer_1
def get_simulation():
simulation = ba.OffSpecSimulation()
simulation.setDetectorParameters(10, -1.0*deg, 1.0*deg, 100, 0.0*deg, 5*deg)
simulation.setDetectorResolutionFunction(ba.ResolutionFunction2DGaussian(0.005*deg, 0.005*deg))
alpha_i_axis = ba.FixedBinAxis("alpha_i", 100, 0.0*deg, 5*deg)
simulation.setBeamParameters(0.154*nm, alpha_i_axis, 0.0*deg)
simulation.setBeamIntensity(1.0e+08)
simulation.getOptions().setIncludeSpecular(True)
return simulation
def run_simulation():
sample = get_sample()
simulation = get_simulation()
simulation.setSample(sample)
simulation.runSimulation()
return simulation.result()
if __name__ == '__main__':
result = run_simulation()
ba.plot_simulation_result(result, intensity_max=10.0)
# Defining detector
simulation.setDetectorParameters(200, -3.0*deg, 3.0*deg, 200, -3.0*deg, 3.0*deg)
# Defining beam parameters
simulation.setBeamParameters(0.5*nm, 0.0*deg, 0.0*deg)
simulation.setBeamIntensity(1e12)
# Defining beam polarization and polarization analysis for spin-flip channel
analyzer_dir = kvector_t(0.0, 0.0, -1.0)
beampol = kvector_t(0.0, 0.0, 1.0)
simulation.setBeamPolarization(beampol)
simulation.setAnalyzerProperties(analyzer_dir, 1.0, 0.5)
return simulation
def run_simulation():
"""
Runs simulation and returns intensity map.
"""
simulation = get_simulation()
simulation.setSample(get_sample())
simulation.runSimulation()
return simulation.result()
if __name__ == '__main__':
result = run_simulation()
ba.plot_simulation_result(result, cmap='jet', units=ba.AxesUnits.QSPACE,
aspect='auto')
n_scan_points, alpha_i_min, alpha_i_max = n_alpha, alpha_min, alpha_max
alpha_i_axis = ba.FixedBinAxis("alpha_i", n_scan_points, alpha_i_min,
alpha_i_max)
simulation.setBeamParameters(5.0 * angstrom, alpha_i_axis, 0.0)
simulation.setBeamIntensity(1e9)
simulation.getOptions().setIncludeSpecular(True)
# define detector resolution function with smearing depending on bin size
d_alpha = (alpha_max - alpha_min) / n_alpha
d_phi = (phi_max - phi_min) / n_phi
sigma_factor = 1.0
simulation.setDetectorResolutionFunction(
ba.ResolutionFunction2DGaussian(sigma_factor * d_alpha,
sigma_factor * d_phi))
return simulation
def run_simulation():
sample = get_sample(nlayers=3)
simulation = get_offspec_simulation()
simulation.setSample(sample)
simulation.runSimulation()
return simulation.result()
if __name__ == '__main__':
result = run_simulation()
ba.plot_simulation_result(result, intensity_min=1e-03)
n_scan_points, alpha_i_min, alpha_i_max = n_alpha, alpha_min, alpha_max
alpha_i_axis = ba.FixedBinAxis("alpha_i", n_scan_points, alpha_i_min,
alpha_i_max)
simulation.setBeamParameters(5.0 * angstrom, alpha_i_axis, 0.0)
simulation.setBeamIntensity(1e9)
simulation.getOptions().setIncludeSpecular(True)
# define detector resolution function with smearing depending on bin size
d_alpha = (alpha_max - alpha_min) / n_alpha
d_phi = (phi_max - phi_min) / n_phi
sigma_factor = 1.0
simulation.setDetectorResolutionFunction(
ba.ResolutionFunction2DGaussian(sigma_factor * d_alpha,
sigma_factor * d_phi))
return simulation
def run_simulation():
sample = get_sample(nlayers=3)
simulation = get_offspec_simulation()
simulation.setSample(sample)
simulation.runSimulation()
return simulation.result()
if __name__ == '__main__':
result = run_simulation()
ba.plot_simulation_result(result, zmin=1e-03)
multi_layer.addLayer(substrate_layer)
print(multi_layer.treeToString())
return multi_layer
def get_simulation():
"""
Returns a GISAXS simulation with beam and detector defined.
"""
simulation = ba.GISASSimulation()
simulation.setDetectorParameters(100, -1.0 * deg, 1.0 * deg, 100,
0.0 * deg, 2.0 * deg)
simulation.setBeamParameters(1.0 * angstrom, 0.2 * deg, 0.0 * deg)
simulation.setBeamIntensity(1.0e+08)
return simulation
def run_simulation():
"""
Runs simulation and returns resulting intensity map.
"""
simulation = get_simulation()
simulation.setSample(get_sample())
simulation.runSimulation()
return simulation.result()
if __name__ == '__main__':
result = run_simulation()
ba.plot_simulation_result(result, cmap='jet', aspect='auto')
alpha_f_min * deg, alpha_f_max * deg)
# define the beam with alpha_i varied between alpha_i_min and alpha_i_max
alpha_i_axis = ba.FixedBinAxis("alpha_i", 400, alpha_i_min * deg,
alpha_i_max * deg)
simulation.setBeamParameters(5.23 * angstrom, alpha_i_axis, 0.0 * deg)
# setBeamParameters(wavelength, alpha_i, phi_i)
simulation.setBeamIntensity(1e11)
return simulation
def run_simulation(bilayers, interfacewidth, crosscorrlength, lattcorrlength):
"""
Runs simulation and returns intensity map.
"""
sample = get_sample(bilayers, interfacewidth, crosscorrlength,
lattcorrlength)
print("Running simulation")
simulation = get_simulation()
simulation.setSample(sample)
simulation.runSimulation()
arr = simulation.result().array()
# numpy.savetxt("crossinf_Latt10000_H080_N52_s08.txt", arr)
# ba.plot_simulation_result(result, intensity_min=0.1)
return simulation.result()
if __name__ == '__main__':
result = run_simulation()
print(result)
ba.plot_simulation_result(result, intensity_min=0.1)
qzs = np.linspace(0.01, 1.0, scan_size) # qz-values
dq = 0.03 * qzs
n_sig = 2.0
n_samples = 25
distr = ba.RangedDistributionGaussian(n_samples, n_sig)
scan = ba.QSpecScan(qzs)
scan.setAbsoluteQResolution(distr, dq)
simulation = ba.SpecularSimulation()
simulation.setScan(scan)
return simulation
def run_simulation():
"""
Runs simulation and returns its result.
"""
sample = get_sample()
simulation = get_simulation()
simulation.setSample(sample)
simulation.runSimulation()
return simulation.result()
if __name__ == '__main__':
result = run_simulation()
ba.plot_simulation_result(result)
def get_simulation():
"""
Returns an off-specular simulation with beam and detector defined.
"""
simulation = ba.OffSpecSimulation()
simulation.setDetectorParameters(20, phi_f_min * deg, phi_f_max * deg, 200,
alpha_f_min * deg, alpha_f_max * deg)
# define the beam with alpha_i varied between alpha_i_min and alpha_i_max
alpha_i_axis = ba.FixedBinAxis("alpha_i", 200, alpha_i_min * deg,
alpha_i_max * deg)
simulation.setBeamParameters(1.0 * angstrom, alpha_i_axis, 0.0 * deg)
simulation.setBeamIntensity(1e9)
return simulation
def run_simulation():
"""
Runs simulation and returns intensity map.
"""
sample = get_sample()
simulation = get_simulation()
simulation.setSample(sample)
simulation.runSimulation()
return simulation.result()
if __name__ == '__main__':
result = run_simulation()
ba.plot_simulation_result(result, zmin=1.0)