Contents
TEM Diffraction
# %matplotlib ipympl
import ase
import abtem
import matplotlib.pyplot as plt
import numpy as np
STO_unit_cell = ase.io.read('data/SrTiO3.cif')
# STO_atoms = ase.build.surface(STO_unit_cell, (1,1,0), 4, periodic=True)*(8,12,40)
STO_atoms = STO_unit_cell*(8,12,41)
abtem.show_atoms(STO_atoms, "yz");

potential = abtem.Potential(
STO_atoms,
gpts=(512,512),
device='cpu',
projection='infinite',
parametrization='kirkland',
exit_planes=40,
# exit_planes = ((-1, 40, 80, 120))
).build()
wave = abtem.PlaneWave(energy=300e3)
exit_waves = wave.multislice(potential)
measurement_ensemble = exit_waves.diffraction_patterns(max_angle=20)
measurement_ensemble[1:-1].block_direct().show(
explode=True,
# interact = True,
# ax = ax,
figsize=(18, 5),
cbar=True,
common_color_scale=True,
vmax = 0.03,
cmap = "turbo",
)
[########################################] | 100% Completed | 3.65 ss
<abtem.visualize.visualizations.Visualization at 0x729d8fb168d0>
