Physical Review A · 2010 · 21 citations · 35 references
EngineeringLaser-plasma InteractionLaser Plasma PhysicPlasma PhysicsEnergy ThreeIntense UltrashortOptical PropertiesPlasma SimulationPlasma PhotonicsBubble RegimePhotonicsPhysicsRelativistic Laser-matter InteractionApplied Plasma PhysicTrailing PlasmaNatural SciencesSpectroscopyApplied PhysicsInfrared Pulse
As an intense laser pulse propagates through an underdense plasma, the strong ponderomotive force pushes away the electrons and produces a trailing plasma bubble. In the meantime the pulse itself undergoes extreme nonlinear evolution that results in strong spectral broadening toward the long-wavelength side. By experiment we demonstrate that this process can be utilized to generate ultrashort midinfrared pulses with an energy three orders of magnitude larger than that produced by crystal-based nonlinear optics. The infrared pulse is encapsulated in the bubble before exiting the plasma, hence is not absorbed by the plasma. The process is analyzed experimentally with laser-plasma tomographic measurements and numerically with three-dimensional particle-in-cell simulation. Good agreement is found between theoretical estimation, numerical simulation, and experimental results.
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Engineering, Laser Plasma Physics, Laser-plasma Interaction +3
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