Energy absorption of xenon clusters in helium nanodroplets under strong laser pulses
arXiv:0711.4973 · doi:10.1103/PhysRevA.77.041201
Abstract
Energy absorption of xenon clusters embedded in helium nanodroplets from strong femtosecond laser pulses is studied theoretically. Compared to pure clusters we find earlier and more efficient energy absorption in agreement with experiments. This effect is due to resonant absorption of the helium nanoplasma whose formation is catalyzed by the xenon core. For very short double pulses with variable delay both plasma resonances, due to the helium shell and the xenon core, are identified and the experimental conditions are given which should allow for a simultaneous observation of both of them.
arXiv comment4 pages, 4 figures
References in corpus (4)
- Spectroscopy and dynamics in helium nanodroplets
- Ionization of clusters in intense laser pulses through collective electron dynamics
- Nonlinear resonance absorption in laser-cluster interaction
- Characterization of doping levels in heteronuclear, gas-phase, van der Waals clusters and their energy absorption from an intense optical field
Cited by in corpus (11)
- Laser-driven nonlinear cluster dynamics
- Photoionizaton of Pure and Doped Helium Nanodroplets
- Ionization and charge migration through strong internal fields in clusters exposed to intense X-ray pulses
- Laser-driven nanoplasmas in doped helium droplets: Local ignition and anisotropic expansion
- Steplike intensity threshold behavior of extreme ionization in laser-driven Xe clusters
- Dopant induced ignition of helium nanodroplets in intense few-cycle laser pulses
- Evolution of dopant-induced helium nanoplasmas
- Efficiency of Dopant-Induced Ignition of Helium Nanoplasmas
- Optimal Control of the Strong-Field Ionization of Silver Clusters in Helium Droplets
- Resonant charging of Xe clusters in Helium nanodroplets under intense laser fields
- Diffraction imaging of light induced dynamics in xenon-doped helium nanodroplets