Semiclassical propagation of coherent states with spin-orbit interaction
Jens Bolte, Rainer Glaser
Abstract
We study semiclassical approximations to the time evolution of coherent states for general spin-orbit coupling problems in two different semiclassical scenarios: The limit to zero is first taken with fixed spin quantum number s and then with *s held constant. In these two cases different classical spin-orbit dynamics emerge. We prove that a coherent state propagated with a suitable classical dynamics approximates the quantum time evolution up to an error of size and identify an Ehrenfest time scale. Subsequently an improvement of the semiclassical error to an arbitray order N/2 is achieved by a suitable deformation of the state that is propagated classically.
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