Maximus: a Hybrid Particle-in-Cell Code for Microscopic Modeling of Collisionless Plasmas

Abstract

A second-order accurate divergence-conserving hybrid particle-in-cell code Maximus has been developed for microscopic modeling of collisionless plasmas. The main specifics of the code include a constrained transport algorithm for exact conservation of magnetic field divergence, a Boris-type particle pusher, a weighted particle momentum deposit on the cells of the 3D spatial grid, an ability to model multispecies plasmas and an adaptive time step. The code is efficiently parallelized for running on supercomputers by means of the message passing interface (MPI) technology; an analysis of parallelization efficiency and overall resource intensity is presented. A Maximus simulation of the shocked flow in the Solar wind is shown to agree well with the observations of the Ion Release Module (IRM) aboard the Active Magnetospheric Particle Tracer Explorers interplanetary mission.

13 pages, 3 figures, accepted to the conference series "Communications in Computer and Information Science". The supplementary video is available here http://www.ioffe.ru/HEA/vol/energetic_particles_phaseE_H_white_He_green.gif

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Cited by in corpus (2)

• Solar wind discontinuity transformation at the bow shock
• Weibel-dominated quasi-perpendicular shock: hybrid simulations and in situ observations