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Optica Publishing Group
  • Chinese Optics Letters
  • Vol. 12,
  • Issue 12,
  • pp. 121404-121404
  • (2014)

Ultranarrow bandwidth tunable atomic filter via quantum interference-induced polarization rotation in Rb vapor

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Abstract

We report the experimental demonstration of an ultranarrow bandwidth atomic filter by optically induced polarization rotation in multilevel electromagnetically induced transparency systems in hot Rb vapor. With a coupling intensity of 2.3 W/cm2, the filter shows a peak transmission of 33.2% and a bandwidth of 10 MHz. By altering the coupling frequency, a broad tuning range of several Doppler linewidths of the D1 line transitions of 87Rb atoms can be obtained. The presented atomic filter has useful features of ultranarrow bandwidth, and the operating frequency can be tuned resonance with the atomic transition. Such narrowband tunable atomic filter can be used as an efficient noise rejection tool in classical and quantum optical applications.

© 2014 Chinese Optics Letters

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