The time-dependent Dirac equation is solved numerically on a space-time grid for an atom in a strong static magnetic field and a laser field. The resonantly induced relativistic motion of the atomic electron leads to a ringlike spatial probability density similar to the features that have been recently predicted [Wagner, Su, and Grobe, Phys. Rev. Lett. 84, 3282 (2000)] based on a phase-space method. We further demonstrate that spin-orbit coupling for a fast-moving electron in such an atom becomes significant and the time dependence of the spin can dephase even if initially aligned parallel to the direction of the static magnetic field
During the past decades, the development of laser technology has produced pulses with increasingly h...
During the past decades, the development of laser technology has produced pulses with increasingly h...
The wave packet dynamics of electrons driven by strong laser fields is examined with the objective t...
Using the numerical solution to the time-dependent Dirac equation we show that the effect of relativ...
In recent work, the formation of ring-shaped electron distributions for hydrogen atoms in resonant s...
Using a B-spline expansion in momentum space, we have solved the time-dependent Dirac equation numer...
The motion of circular WP for one electron in central Coulomb field with high Z is calculated. The W...
We develop a semirelativistic quantum fluid theory based on the expansion of the Dirac Hamiltonian t...
The advancements of laser technology make it possible to produce high-energy lasers. It is of intere...
The wave packet dynamics of electrons driven by strong laser fields is examined with the objective t...
The wave packet dynamics of electrons driven by strong laser fields is examined with the objective t...
This thesis focuses on the relativistic corrections induced by an ultra-short and intense light puls...
A solution of the Dirac equation in a strong laser field presenting a nonspreading wave packet in th...
This thesis focuses on the relativistic corrections induced by an ultra-short and intense light puls...
Relativistic effects arise when atoms interact with ultra-strong laser fields. Such effects are expe...
During the past decades, the development of laser technology has produced pulses with increasingly h...
During the past decades, the development of laser technology has produced pulses with increasingly h...
The wave packet dynamics of electrons driven by strong laser fields is examined with the objective t...
Using the numerical solution to the time-dependent Dirac equation we show that the effect of relativ...
In recent work, the formation of ring-shaped electron distributions for hydrogen atoms in resonant s...
Using a B-spline expansion in momentum space, we have solved the time-dependent Dirac equation numer...
The motion of circular WP for one electron in central Coulomb field with high Z is calculated. The W...
We develop a semirelativistic quantum fluid theory based on the expansion of the Dirac Hamiltonian t...
The advancements of laser technology make it possible to produce high-energy lasers. It is of intere...
The wave packet dynamics of electrons driven by strong laser fields is examined with the objective t...
The wave packet dynamics of electrons driven by strong laser fields is examined with the objective t...
This thesis focuses on the relativistic corrections induced by an ultra-short and intense light puls...
A solution of the Dirac equation in a strong laser field presenting a nonspreading wave packet in th...
This thesis focuses on the relativistic corrections induced by an ultra-short and intense light puls...
Relativistic effects arise when atoms interact with ultra-strong laser fields. Such effects are expe...
During the past decades, the development of laser technology has produced pulses with increasingly h...
During the past decades, the development of laser technology has produced pulses with increasingly h...
The wave packet dynamics of electrons driven by strong laser fields is examined with the objective t...