Home > Publications database > Exploring valence-electron dynamics of xenon through laser-induced electron diffraction |
Journal Article | PUBDB-2025-00035 |
; ; ; ; ; ; ; ; ; ; ; ; ;
2024
Inst.
Woodbury, NY
This record in other databases:
Please use a persistent id in citations: doi:10.1103/PhysRevA.110.013118 doi:10.3204/PUBDB-2025-00035
Abstract: Strong-field ionization can induce electron motion in both the continuum and valence shell of the parent ion. Here we report on a joint theoretical and experimental investigation of laser-induced electron diffraction in xenon. We explore the interplay of electron recollision with spin-orbit dynamics in the valence shell of the xenon cation. On the theory side, the electron-hole potentials for two different states are constructed, and the quantitative rescattering model is used to calculate the photoelectron momentum distributions (PMDs) for high-order above-threshold ionization of xenon. Measurements were carried out using 40-fs laser pulses with a central wavelength of 3100 nm and a peak laser intensity of 6×10$^{13}$W/cm$^2$. The simulated PMDs describe well the features of the measured angular distributions of photoelectrons. Our study reveals a theoretical distinction between the electron signals resulting from rescattering off the 𝑚=0 and |𝑚|=1 hole states, particularly noting a distinct change along the backward scattering angles. However, to fully identify the contributions of the hole states, a more accurate agreement between theory and experiment will be needed.
![]() |
The record appears in these collections: |