Physical Review Letters · 1997 · 54 citations · 14 references
EngineeringLaser-plasma InteractionRelativistic PlasmaLaser Plasma PhysicPlasma PhysicsPlasma InstabilitiesWave Vector SpaceTwo-plasmons InstabilitiesPlasma SimulationMagnetohydrodynamicsPlasma PhotonicsPhotonicsPhysicsApplied Plasma PhysicAtomic PhysicsPlasma InstabilitySynchrotron RadiationElectron Parametric InstabilitiesApplied Physics
A general dispersion relation is given for electron parametric instabilities of an ultraintense circularly polarized wave propagating in a plasma. It is valid for any plasma density and wave intensity and corresponds to a generalization of the Raman, relativistic modulational, relativistic filamentation, and two-plasmons instabilities. Its numerical resolution shows different zones of instability in the wave vector space. At high intensities, the zones extend and merge, with growth rates equal to a fraction of the wave frequency. At close-to-critical density and high intensity the instability leads to strong harmonic emission. Particle-in-cell simulations confirm the analytical results.
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