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The challenges of modelling microphysics: ambipolar diffusion, chemistry, and cosmic rays in MHD shocks

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arxiv 1901.00504 v1 pith:RL75KCCP submitted 2019-01-02 astro-ph.GA

The challenges of modelling microphysics: ambipolar diffusion, chemistry, and cosmic rays in MHD shocks

classification astro-ph.GA
keywords magneticcosmiceffectsmicrophysicsnon-idealraysastrophysicalchemistry
verification ladder T0 review T1 audit T2 compute T3 formal T4 reserved
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From molecular clouds to protoplanetary disks, non-ideal magnetic effects are important in many astrophysical environments. Indeed, in star and disk formation processes, it has become clear that these effects are critical to the evolution of the system. The efficacy of non-ideal effects are, however, determined by the complex interplay between magnetic fields, ionising radiation, cosmic rays, microphysics, and chemistry. In order to understand these key microphysical parameters, we present a one-dimensional non-ideal magnetohydrodynamics code and apply it to a model of a time-dependent, oblique, magnetic shock wave. By varying the microphysical ingredients of the model, we find that cosmic rays and dust play a major role, and that, despite the uncertainties, the inclusion of microphysics is essential to obtain a realistic outcome in magnetic astrophysical simulations.

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Cited by 1 Pith paper

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  1. Dust and Gas Transport in Substructured Nonideal MHD Wind-Launching Disks with Embedded Planets

    astro-ph.EP 2026-07 conditional novelty 6.0

    In magnetized wind-launching disks, planet-opened gaps remain partially permeable: small grains and gas leak through, while large grains are filtered, making substructures regulators rather than barriers.