Physics of Plasmas · 2008 · 36 citations · 10 references
Natural SciencesNuclear EngineeringPhysicsNuclear PhysicsParticle PhysicsPlasma PhysicsCollisions In PlasmasFusion PlasmasHigh-temperature PlasmasInertial Confinement FusionNuclear FusionPlasma SimulationAlpha Particle PhysicsAlpha-particle RangeDeuterium-tritium FusionEnergy DepositionIgnition PhysicsInertial ConfinementQuantum ScatteringQuantum Scattering Theory
A completely rigorous first-principles calculation of the charged particle stopping power has recently been performed by Brown, Preston, and Singleton (BPS). This calculation is exact to leading and next-to-leading order in the plasma number density, including an exact treatment of two-body quantum scattering. The BPS calculation is therefore extremely accurate in the plasma regime realized during the ignition and burn of an inertial confinement fusion capsule. For deuterium-tritium fusion, the 3.5MeV alpha particle range tends to be 20%–30% longer than most models in the literature have predicted, and the energy deposition into the ions tends to be smaller. Preliminary numerical simulations indicate that this increases the ρR required to achieve ignition.
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An electron conductivity model for dense plasmas
Y. T. Lee, Richard M. More · The Physics of Fluids · 1984 · 805 citations
Charged particle motion in a highly ionized plasma
Physics Reports · 2005 · 188 citations · Full text
Convergent Kinetic Equation for a Classical Plasma
Harvey Gould, H. E. DeWitt · Physical Review · 1967 · 132 citations