We formulate a three-dimensional semiclassical model to address triple and double
ionization in three-electron atoms driven by intense infrared laser pulses. During time …

We have calculated the polarization and Stark-shifted binding energy for ultraintense lasers
interacting with highly charged ions across the periodic table from beryllium to uranium at …

Calculations on the dynamics of ions and electrons in near-infrared laser fields at intensities
up to 3× 10 23 W/cm 2 are presented. We explore the acceleration of ions in a laser focus by …

We investigate forward scattering of ionization from neon, argon, and xenon in ultrahigh
intensities of 2× 10 19 W/cm 2. Comparisons between the gases reveal the energy of the …

Classical relativistic Monte Carlo simulations of petawatt laser acceleration of electrons
bound initially in hydrogen-like, highly-charged ions show that both the angles and energies …

We address the challenge of finding the optimal laser intensity and wavelength to drive high-
energy, strong field rescattering and report the maximum yields of K-shell and L_I-shell hole …

The role of the magnetic field of the laser pulse and the importance of relativistic corrections
to the equations of motion in the recollision double ionization of He, Li+, and Be 2+ are …

The discovery of laser-driven rescattering and high harmonic radiation out to a maximum
photon energy of 3.17 times the ponderomotive energy laid the groundwork for attosecond …

The ADK-PPT model of tunneling ionization is experimentally well-verified at intensity below
10¹⁹ W/cm². The relative simplicity of the tunneling model physics and the highly nonlinear …

The discovery of laser-driven rescattering and high harmonic radiation out to a maximum
photon energy of 3.17 times the ponderomotive energy (U p) laid the groundwork for …