Magnetic quantum number dependence of hydrogen photoelectron spectra under circularly polarized pulse in barrier suppression ionization regime

Photoelectron spectra and transition mechanisms of a hydrogen atom in the n = 2 state under circularly polarized pulses in the barrier suppression ionization (BSI) regime, found by solving the time-dependent Schrödinger equation, are presented in detail. The photoelectron peak emerges from low-energ...

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Bibliographic Details
Published inPhysica scripta Vol. 93; no. 8; pp. 85401 - 85410
Main Authors Jheng, Shih-Da, Jiang, Tsin-Fu, Chen, Jen-Hao, Liu, Jinn-Liang
Format Journal Article
LanguageEnglish
Published IOP Publishing 10.07.2018
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Summary:Photoelectron spectra and transition mechanisms of a hydrogen atom in the n = 2 state under circularly polarized pulses in the barrier suppression ionization (BSI) regime, found by solving the time-dependent Schrödinger equation, are presented in detail. The photoelectron peak emerges from low-energy, in contrast to being centered at higher energy in the case of ionization from the ground state. We show that the magnetic quantum number dependence of photoelectron angular distributions on initial states yields 3- and 2-band structures for 2p− and 2p0 in zenith angle, respectively, and 1-band structures for both 2p+ and 2s. The intermediate transition pathways from these initial states to the corresponding final states are also revealed.
Bibliography:PHYSSCR-106926.R1
ISSN:0031-8949
1402-4896
DOI:10.1088/1402-4896/aaca08