592 papers
Plasma physics explores the behavior of the fourth state of matter, a superheated soup of charged particles that makes up most of the visible universe. From the fusion power we hope to harness on Earth to the glowing auroras and distant stars above, this field investigates how these energetic gases interact with magnetic fields and light. It is a dynamic area where extreme conditions reveal fundamental laws of nature in ways solid matter never can.
At Gist.Science, we bridge the gap between these complex discoveries and curious minds by processing every new preprint from arXiv in this category. We transform dense, technical research into clear, plain-language explanations alongside detailed summaries, ensuring that breakthroughs in plasma dynamics and fusion energy are accessible to everyone. Below are the latest papers in plasma physics, curated and simplified for your reading.
Using 3D fully kinetic simulations, this study extends the Cho & Lazarian mode decomposition method to magnetically dominated collisionless plasmas, revealing that while Alfvén and slow modes remain anisotropic and fast modes are isotropic, relativistic effects enhance fast mode kinetic energy and thermal fluctuations at kinetic scales weaken anisotropy and dynamic alignment.
This paper presents a quantum computing framework based on a qubit lattice algorithm to simulate the transient scattering of electromagnetic waves by dielectric structures, revealing unique time-domain insights into internal wave trapping and reflection patterns that differ significantly from frequency-domain analyses.
This paper presents the first implementation of the full Braginskii magnetized viscosity tensor in the FLASH code for Magnetized Liner Inertial Fusion (MagLIF) simulations, demonstrating through verification and application that this anisotropic transport mechanism significantly damps vortical structures, mitigates Rayleigh-Taylor instabilities, and preserves fusion yield.
This paper evaluates the accuracy of Path-Integral Monte Carlo simulations for hydrogen plasma by comparing them with exact virial expansion results and analytical benchmarks, while exploring quasiparticle concepts, medium effects like ionization potential depression, and the limitations of current simulation methods in the low-density regime.
This paper presents an implicit, hybrid kinetic/drift-kinetic approach within the BSL6D code that couples kinetic ions with massless drift-kinetic electrons to efficiently simulate stiff multiscale plasmas, featuring a self-consistent electric field solver with an error-balancing mechanism and a rigorous analysis of interpolation errors for tokamak edge conditions.
This paper utilizes 1X2V continuum Vlasov-Maxwell simulations to demonstrate that in interpenetrating plasma beams with mobile ions, the late-time saturation of the Weibel instability is dominated by ion channel merging and magnetic energy growth, leading to significantly slower ion thermalization compared to electrons, a finding supported by Wind/SWE and MMS1 space observations.
This paper reports the first controlled experimental observation of highly nonlinear, periodic drift acoustic cnoidal waves in a collisional, magnetized plasma with strong density gradients and velocity shear, demonstrating that these structures are well-described by KdV-type exact solutions.
This paper presents the first physics-informed neural network (PINN) capable of solving time-dependent quasi-static magnetohydrodynamic equations in axisymmetric tokamak geometry without experimental data, successfully demonstrating its ability to predict plasma behavior in an ITER-like scenario with strong agreement to ground truth simulations.
Using global nonlinear gyrokinetic simulations and a momentum theorem extension of the Charney-Drazin non-acceleration theorem, this study reveals that turbulence spreading transports zonal flows into linearly stable regions by linking turbulence-driven enstrophy transport to perpendicular momentum generation.