Coulomb repulsion and quantum-classical correspondence in laser-induced nonsequential double ionization

Abstract

The influence of electron-electron Coulomb repulsion on nonsequential double ionization of rare-gas atoms is investigated. Several variants of the quantum-mechanical transition amplitude are evaluated that differ by the form of the inelastic electron-ion rescattering and whether or not Coulomb repulsion between the two electrons in the final state is included. For high laser intensity, an entirely classical model is formulated that simulates the rescattering scenario.

5 pages revtex4, 4 eps files; contents and figures have been modified

References in corpus (2)

• High-order above-threshold ionization: the uniform approximation and the effect of the binding potential
• Correlated electron emission in laser-induced nonsequence double ionization of Helium

Cited by in corpus (10)

• Classical Trajectory Diagnosis of Finger-Like Pattern in the Correlated Electron Momentum Distribution for Helium Double Ionization
• Electron-electron dynamics in laser-induced nonsequential double ionization
• Classical and quantum-mechanical treatments of nonsequential double ionization with few-cycle laser pulses
• Bound-state corrections in laser-induced nonsequential double ionization
• Two-electron ionization in strong laser fields below intensity threshold: signatures of attosecond timing in correlated spectra
• Causality and quantum interference in time-delayed laser-induced nonsequential double ionization
• Electronic correlations in double ionization of atoms in pump-probe experiments
• Detangling the quantum tapestry of intra-channel interference in below-threshold nonsequential double ionization with few-cycle laser pulses
• Influence of catastrophes and hidden dynamical symmetries on ultrafast backscattered photoelectrons
• Applications of Adiabatic Approximation to One- and Two-electron Phenomena in Strong Laser Fields