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Ion Acceleration in Driven Magnetic Reconnection during High-energy–Density Plasma Interaction
Author(s) -
Peera Pongkitiwanichakul,
W. Fox,
D. Ruffolo,
K. Malakit,
K. V. Lezhnin,
J. Matteucci,
A. Bhattacharjee
Publication year - 2021
Publication title -
the astrophysical journal
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 2.376
H-Index - 489
eISSN - 1538-4357
pISSN - 0004-637X
DOI - 10.3847/1538-4357/abccd3
Subject(s) - plasmoid , physics , magnetic reconnection , plasma , outflow , particle acceleration , acceleration , magnetic field , astrophysics , magnetohydrodynamics , magnetic energy , thermal , inflow , computational physics , atomic physics , mechanics , nuclear physics , classical mechanics , magnetization , quantum mechanics , meteorology
Strongly driven magnetic reconnection occurs in astrophysical events and also in laboratory experiments with laser-produced plasma. We have performed 2.5D particle-in-cell simulations of collisions of two high-energy–density plasmas resulting in strongly driven magnetic reconnection that demonstrates significant non-thermal ion acceleration. Such acceleration is significant only when the plasma beta is sufficiently low that the Alfvén speed at the reconnection inflow exceeds the thermal speed. Under these conditions, the most energetic ions are primarily accelerated by the Hall electric field in the reconnection outflow, especially at the trailing edge of an emerging plasmoid in the outflow. Laboratory experiments in the near future should be able to confirm these predictions and their applicability to astrophysical situations.

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