Magnetic confinement fusion research

External reference: https://openalex.org/T10346

  1. GVEC provides flexible 3D MHD equilibrium solutions
    GVEC solves 3D magnetohydrodynamic equilibrium equations for stellarators using flexible coordinates that represent complex plasma boundaries with simple cross-sections.
  2. Brazing performed better than HIPing in divertor tests
    Study comparing brazing and Hot Isostatic Pressing methods for bonding copper interfaces in fusion reactor divertors, evaluating thermal performance and fatigue resistance.
  3. Shock precursor type changes ion and electron acceleration
    Simulations reveal two distinct regimes in transrelativistic shocks where competing plasma instabilities produce dramatically different particle acceleration efficiencies for ions and electrons.
  4. GPU-optimized PLUTO code shows preliminary performance results
    gPLUTO is a GPU-optimized implementation of the PLUTO code for solving magnetohydrodynamic equations. Preliminary results demonstrate performance viability on pre-exascale parallel architectures.
  5. Structure-preserving simulations show differing turbulence behavior
    Structure-preserving simulations of three magnetohydrodynamics models reveal divergent cascade mechanisms and vorticity dynamics despite shared Hamiltonian geometry.
  6. Predictive gyrokinetic simulations matched TCV edge-plasma data
    Fully predictive gyrokinetic simulations of tokamak edge turbulence using Gkeyll validate against TCV experiments and reveal how negative triangularity enhances confinement through E×B flow shear.
  7. Cold ions enable ion-acoustic waves in asymmetric reconnection
    Particle-in-cell simulations characterize ion-acoustic wave excitation and energy transfer mechanisms in asymmetric magnetic reconnection with cold ion populations.