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Proceedings Paper

Phase-space imaging of trapped atoms using magnetic sublevel coherence
Author(s): Dmitry V. Strekalov; Andrey V. Turlapov; A. Kumarakrishnan; Sydney B. Cahn; Tycho Sleator
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Paper Abstract

Experimental results on phase-space imaging of a laser- cooled atomic cloud are presented. Both position and velocity information are encoded in the frequency of the signal coherently radiated from the cloud. This encoding is achieved by application of a position-dependent magnetic field. Fourier transformation of the signal yields a projection of the phase-space density of the atoms. Since the projection direction is determined by the imposed field gradient, we can reconstruct the phase-space structure of the cloud and trace its time evolution.

Paper Details

Date Published: 25 February 1999
PDF: 12 pages
Proc. SPIE 3736, ICONO '98: Quantum Optics, Interference Phenomena in Atomic Systems, and High-Precision Measurements, (25 February 1999); doi: 10.1117/12.340135
Show Author Affiliations
Dmitry V. Strekalov, New York Univ. (United States)
Andrey V. Turlapov, New York Univ. (United States)
A. Kumarakrishnan, Massachusetts Institute of Technology (United States)
Sydney B. Cahn, Univ. of Sussex (UK) (United States)
Tycho Sleator, New York Univ. (United States)


Published in SPIE Proceedings Vol. 3736:
ICONO '98: Quantum Optics, Interference Phenomena in Atomic Systems, and High-Precision Measurements
Anatoli V. Andreev; Sergei N. Bagayev; Anatoliy S. Chirkin; Vladimir I. Denisov, Editor(s)

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