Hi Omar,
Could you give a better description of what you hope to calculate? pylcp does not handle atom-atom interactions, so that really restricts what you might be interested in computing.
Best,
-Steve
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Hi Omar,
Pylcp should work for you in that case. You’ll just have to update the level structure/Hamiltonian for K/Rb and adapt the examples to fit your needs.
The atom class in pylcp is programmed with quantum numbers, g-factors, and transition rates for all the commonly laser-cooled alkali isotopes. It’s documentation is here: https://python-laser-cooling-physics.readthedocs.io/en/latest/atom_class.html. A good example to look at would be https://python-laser-cooling-physics.readthedocs.io/en/latest/examples/MOTs/06_real_atoms_3D_MOT.html and then you can pull in parts of the MOT capture code as needed https://python-laser-cooling-physics.readthedocs.io/en/latest/examples/MOTs/01_F0_to_F1_1D_MOT_capture.html.
Daniel
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