
Two-dimensional simulation studies are performed for modified laser wakefield acceleration. After one laser pulse, another identical laser pulse is sent to the plasma to amplify the wake wave resonantly. The simulation results show that the number of injected electrons is bigger than that of the single pulse case and the beam energy is higher as well. In addition, increase of the transverse amplitude is noticed in the wake wave after the second laser pulse. This shows that the transverse motion of the wake wave enhances the wave breaking for strong injection and acceleration of electron beams.
PLASMA-WAVE, ELECTRON ACCELERATION, EXCITATION, SCATTERING, electron injection and acceleration, resonant laser plasma accelerator, BEAMS, 2-D particle in cell simulation, laser wakefield accelerator, WAKE-FIELD ACCELERATION
PLASMA-WAVE, ELECTRON ACCELERATION, EXCITATION, SCATTERING, electron injection and acceleration, resonant laser plasma accelerator, BEAMS, 2-D particle in cell simulation, laser wakefield accelerator, WAKE-FIELD ACCELERATION
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