Laser-driven proton–boron fusion in a hollow spherical target
Physics of Plasmas, AIP Publishing
Department of PhysicsIndian Institute of Technology Hyderabad, India
Target normal sheath acceleration (TNSA): a laser pulse heats foil electrons, and their sheath field at the rear surface accelerates ions. Not to scale; time is stretched.
The Laser Interaction with Matter at Extremes group, established in 2016, focuses on Intense Laser-Plasma Interactions, Table-Top Accelerators, Nuclear Fusion with Lasers, and Proton Beam Therapy.
Ion acceleration using laser plasma is a rapidly evolving research field that has gained significant attention in recent years due to its potential for producing high-energy ion beams.
Read moreLaser wakefield acceleration (LWFA) works by creating a plasma wave, or wakefield, that can then be used to accelerate electrons.
Read moreOne of the key advantages of laser plasma interaction as an X-ray source is its ability to produce extremely short pulses of X-rays.
Read moreProton boron fusion, also known as p-B fusion or the “aneutronic fusion”, is a potential form of nuclear fusion that combines protons and boron-11 nuclei to form three alpha particles.
Read morePhysics of Plasmas, AIP Publishing
Plasma Physics and Controlled Fusion, IOP Publishing
Contributions to Plasma Physics, Wiley
Physics of Plasmas, AIP Publishing
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