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SPIE eBooks

Nonlinear Optics and Its Applications VIII; and Quantum Optics III

Alexander V. Sergienko, Benjamin J. Eggleton, Alexander L. Gaeta, Arno Rauschenbeutel, Neil G. R. Broderick, Thomas Durt

Published May 1, 2014• 2 citations
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Introduction 177 I. The Optical Orientation of Atoms 178 II. The Optical Detection of the Orientation of Atoms 181 III. The Effect of Relaxation Phenomena on the Process of Optical Pumping 183 IV. Phenomenological Theory of Optical Orientation of Atoms 188 V. Detection of Radio-Frequency Resonance by the Optical Method. Determination of the Hyperfine Structure Constant and of Nuclear and Electronic g Factors 190 VI. Practical Applications of the Method of Optical Orientation of Atoms 194 VII. Orientation Produced by Exchange Collisions 198 VIII. The Study of Relaxation Processes by the Optical Method 200 IX. Optical Pumping in Solids 201 Conclusion 203 Literature 203
Abstract In this chapter we present applications of ion traps to: (i) determination of the g-value of an electron from electron spin resonance experiments on a single electron, (ii) observation of quantum jumps in a single trapped ion, (iii) an experimental test of the quantum Zeno effect, (iv) a precision test of the linearity of quantum mechanics, (v) a range of studies on one-component microplasmas, (vi) optical spectroscopy of molecular ions, (vii) precision mass measurement of stable isotopes, (viii) precision mass measurement of radioactive isotopes, (ix) trapping and precision mass measurement of antimatter, specifically of antiprotons, (x) lifetime measurement of neutron undergoing beta decay, and (xi) atomic physics of highly charged ions.