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Autori principali: Cao, Gang, Yang, Xiongbang, Zhang, Li
Natura: Preprint
Pubblicazione: 2024
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Accesso online:https://arxiv.org/abs/2403.06180
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author Cao, Gang
Yang, Xiongbang
Zhang, Li
author_facet Cao, Gang
Yang, Xiongbang
Zhang, Li
contents We review the recent advances in the pulsar high-energy $γ$-ray observation and the electrodynamics of the pulsar magnetospheres from the early vacuum model to the recent plasma-filled models by the numerical simulations. The numerical simulations have made the significant progresses toward the self-consistent modeling of the plasma-filled magnetosphere by including the particle acceleration and radiation. The current numerical simulations confirm a near force-free magnetosphere with the particle acceleration in the separatrix near the light cylinder and the current sheet outside the light cylinder, which can provide a good match to the recent high-energy $γ$-ray observations. The modeling of the combined multi-wavelength light curves, spectra, and polarization are expected to provide a stronger constrain on the geometry of the magnetic field lines, the location of the particle acceleration and the emission region, and the emission mechanism in the pulsar magnetospheres.
format Preprint
id arxiv_https___arxiv_org_abs_2403_06180
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle The modelling of pulsar magnetosphere and radiation
Cao, Gang
Yang, Xiongbang
Zhang, Li
High Energy Astrophysical Phenomena
We review the recent advances in the pulsar high-energy $γ$-ray observation and the electrodynamics of the pulsar magnetospheres from the early vacuum model to the recent plasma-filled models by the numerical simulations. The numerical simulations have made the significant progresses toward the self-consistent modeling of the plasma-filled magnetosphere by including the particle acceleration and radiation. The current numerical simulations confirm a near force-free magnetosphere with the particle acceleration in the separatrix near the light cylinder and the current sheet outside the light cylinder, which can provide a good match to the recent high-energy $γ$-ray observations. The modeling of the combined multi-wavelength light curves, spectra, and polarization are expected to provide a stronger constrain on the geometry of the magnetic field lines, the location of the particle acceleration and the emission region, and the emission mechanism in the pulsar magnetospheres.
title The modelling of pulsar magnetosphere and radiation
topic High Energy Astrophysical Phenomena
url https://arxiv.org/abs/2403.06180