Autocorrelation Function of Hydrogen Atoms in Magnetic Fields
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Abstract
The autocorrelation function is an important quantity that can reflect the dynamical properties of the Rydberg wave packet and can be measured in experiments. Applying time-dependent perturbation theory and rotating wave approximation, we derive the autocorrelation function of the double-pulse laser describing the evolution of a Rydberg wave packet of ydrogen atoms in magnetic fields. The resulting expression is written as a sum of the modified Gaussian terms. Each Gaussian term comes from a parent semiclassical closed orbit. It provides a direct explanation and experimentally controllable measurement scheme, which allows us therefore to recognize the closed orbit and to determine its returning time in high precision.
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YU Yong-Li, ZHAO Xia, LI Hong-Yun, GUO Wen-Hao, LIN Sheng-Lu. Autocorrelation Function of Hydrogen Atoms in Magnetic Fields[J]. Chin. Phys. Lett., 2006, 23(11): 2948-2951.
YU Yong-Li, ZHAO Xia, LI Hong-Yun, GUO Wen-Hao, LIN Sheng-Lu. Autocorrelation Function of Hydrogen Atoms in Magnetic Fields[J]. Chin. Phys. Lett., 2006, 23(11): 2948-2951.
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YU Yong-Li, ZHAO Xia, LI Hong-Yun, GUO Wen-Hao, LIN Sheng-Lu. Autocorrelation Function of Hydrogen Atoms in Magnetic Fields[J]. Chin. Phys. Lett., 2006, 23(11): 2948-2951.
YU Yong-Li, ZHAO Xia, LI Hong-Yun, GUO Wen-Hao, LIN Sheng-Lu. Autocorrelation Function of Hydrogen Atoms in Magnetic Fields[J]. Chin. Phys. Lett., 2006, 23(11): 2948-2951.
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