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Springer eBooks

Optical Transition and Selection Rules

Shu Hotta

Published Jan 1, 2020• 2 citations
Publisher
DOI
10.1007/978-981-15-2225-3_4

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The effects of a recently proposed quasi-one-dimensional atom cavity on dipole-dipole collisions in a trapped atomic sample are investigated. It is shown that the cavity geometry leads to a high degree of selectivity in the allowed exchange of momentum during transitions between cavity modes. Furthermore, by a temporal modulation of the trap potential at the frequency corresponding to the energy defect of the momentum-selected transition, energy selectivity can also be achieved. Hence, in a properly designed atom laser cavity, the combined effects of energy and momentum selection rules give rise to a mode selectivity which is analogous to the mode selectivity in an optical laser.