Cavity implementation of quantum interference in a $\Lambda$-type atom

Abstract

A scheme for engineering quantum interference in a $\Lambda$-type atom coupled to a frequency-tunable, single-mode cavity field with a pre-selected polarization at finite temperature is proposed. Interference-assisted population trapping, population inversions and probe gain at one sideband of the Autler-Townes spectrum are predicted for certain cavity resonant frequencies.

2 postscript figures are added

References in corpus (2)

• Anisotropic Vacuum Induced Interference in Decay Channels
• Line narrowing via cavity-induced quantum interference in a $\Xi$-type atom

Cited by in corpus (2)

• Negative contributions to entropy production induced by quantum coherences
• Cavity-induced giant Kerr nonlinearities in a driven V-type atom