By using the superposition of N suitably weighted Laguerre-Gaussian beams, the analytical expressions of all six electromagnetic field components of focused Flattened Gaussian Beams (FGBs) are obtained in the Lorentz gauge. The phase velocity distributions of the field near the focus of FGBs propagating in vacuum are investigated. There exists a subluminous wave phase velocity region surrounding the laser beam axis. We further apply this focused FGB to vacuum laser acceleration. As with the focused Standard Gaussian Beam (SGB), electrons injected into the focused FGB can be captured in the acceleration phase and then violently accelerated
In recent years, radically new methods for accelerating charged particles to high energies have been...
Exact closed-form solutions to Maxwell’s equations are used to investigate electron acceleration dri...
The longitudinal electric field E-z of Hermite-Gaussian laser beam or Bessel laser beam, concentrati...
Numerical solutions, to the fully relativistic equations of motion of a single electron injected sid...
For a tightly focused laser, the beam-waist radius is of the same order as the wavelength and the lo...
Electrons produced as a result of above-threshold ionization of high-Z atoms can be accelerated by c...
Electron acceleration in a tightly focused ultra-intensity linear polarized laser beam is investigat...
The vacuum propagation of a laser beam is strictly solved on the basis of (1) the wave equation, (2)...
Propagation characteristics of focused Gaussian beam (FoGB) and fundamental Gaussian beam (FuGB) pro...
The acceleration of electrons by lasers in vacuum was clarified on the basis of trapping electrons i...
Laser-driven grating type DLA (Dielectric Laser Accelerator) structures have been shown to produce a...
Laser-driven grating type DLA (Dielectric Laser Accelerator) structures have been shown to produce a...
The interaction of free electrons with intense laser beams in vacuum is studied using a 3D test par...
An analytical method for calculating the electromagnetic fields of a nonparaxial elegant Laguerre-Ga...
International audienceLinearly polarized Gaussian beams, under the slowly varying envelope approxima...
In recent years, radically new methods for accelerating charged particles to high energies have been...
Exact closed-form solutions to Maxwell’s equations are used to investigate electron acceleration dri...
The longitudinal electric field E-z of Hermite-Gaussian laser beam or Bessel laser beam, concentrati...
Numerical solutions, to the fully relativistic equations of motion of a single electron injected sid...
For a tightly focused laser, the beam-waist radius is of the same order as the wavelength and the lo...
Electrons produced as a result of above-threshold ionization of high-Z atoms can be accelerated by c...
Electron acceleration in a tightly focused ultra-intensity linear polarized laser beam is investigat...
The vacuum propagation of a laser beam is strictly solved on the basis of (1) the wave equation, (2)...
Propagation characteristics of focused Gaussian beam (FoGB) and fundamental Gaussian beam (FuGB) pro...
The acceleration of electrons by lasers in vacuum was clarified on the basis of trapping electrons i...
Laser-driven grating type DLA (Dielectric Laser Accelerator) structures have been shown to produce a...
Laser-driven grating type DLA (Dielectric Laser Accelerator) structures have been shown to produce a...
The interaction of free electrons with intense laser beams in vacuum is studied using a 3D test par...
An analytical method for calculating the electromagnetic fields of a nonparaxial elegant Laguerre-Ga...
International audienceLinearly polarized Gaussian beams, under the slowly varying envelope approxima...
In recent years, radically new methods for accelerating charged particles to high energies have been...
Exact closed-form solutions to Maxwell’s equations are used to investigate electron acceleration dri...
The longitudinal electric field E-z of Hermite-Gaussian laser beam or Bessel laser beam, concentrati...