Physics of Plasmas · 2013 · 40 citations · 32 references
Natural SciencesPhysicsAtomic PhysicsPlasma PhysicsTransport PhenomenaAtomic IonizationCollisions In PlasmasElectron TransportLaser-plasma InteractionsPlasma SimulationPlasma TransportCollisional Plasma ModelingElectron KineticsElectron Transport ModelingEnergy DepositionIonizationLaser-matter InteractionParticle-in-cell SimulationsRelativistic Plasmas
Fully relativistic collisional Particle-in-Cell (PIC) code, PICLS, has been developed to study extreme energy density conditions produced in intense laser-solid interaction. Recent extensions to PICLS, such as the implementation of dynamic ionization, binary collisions in a partially ionized plasma, and radiative losses, enhance the efficacy of simulating intense laser plasma interaction and subsequent energy transport in resistive media. Different ionization models are introduced and benchmarked against each other to check the suitability of the model. The atomic physics models are critical to determine the energy deposition and transport in dense plasmas, especially when they consist of high Z (atomic number) materials. Finally we demonstrate the electron transport simulations to show the importance of target material on fast electron dynamics.
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Ignition and high gain with ultrapowerful lasers*
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