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Three-dimensional network of filamentary currents and super-thermal electrons during magnetotail magnetic reconnection.


ABSTRACT: Magnetic reconnection is a fundamental plasma process by which magnetic field lines on two sides of the current sheet flow inward to yield an X-line topology. It is responsible for producing energetic electrons in explosive phenomena in space, astrophysical, and laboratorial plasmas. The X-line region is supposed to be the important place for generating energetic electrons. However, how these energetic electrons are generated in such a limited region is still poorly understood. Here, using Magnetospheric multiscale mission data acquired in Earth's magnetotail, we present direct evidence of super-thermal electrons up to 300 keV inside an X-line region, and the electrons display a power-law spectrum with an index of about 8.0. Concurrently, three-dimensional network of dynamic filamentary currents in electron scale is observed and leads to electromagnetic turbulence therein. The observations indicate that the electrons are effectively accelerated while the X-line region evolves into turbulence with a complex filamentary current network.

SUBMITTER: Li X 

PROVIDER: S-EPMC9187682 | biostudies-literature | 2022 Jun

REPOSITORIES: biostudies-literature

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Three-dimensional network of filamentary currents and super-thermal electrons during magnetotail magnetic reconnection.

Li Xinmin X   Wang Rongsheng R   Lu Quanming Q   Russell Christopher T CT   Lu San S   Cohen Ian J IJ   Ergun R E RE   Wang Shui S  

Nature communications 20220610 1


Magnetic reconnection is a fundamental plasma process by which magnetic field lines on two sides of the current sheet flow inward to yield an X-line topology. It is responsible for producing energetic electrons in explosive phenomena in space, astrophysical, and laboratorial plasmas. The X-line region is supposed to be the important place for generating energetic electrons. However, how these energetic electrons are generated in such a limited region is still poorly understood. Here, using Magne  ...[more]

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