Global simulation of the time‐dependent magnetosphere
J. N. Leboeuf, T. Tajima, Charles F. Kennel, J. M. Dawson
Abstract
J. N. Leboeuf, T. Tajima, Charles F. Kennel, J. M. Dawson
Abstract
We present preliminary results from time dependent 2‐dimensional numerical modeling of the magnetohydrodynamic interaction of the solar wind with the magnetosphere. A southward solar wind field produces a magnetospheric topology consistent with Dungey's model. The interaction appears to be fundamentally unsteady; the shock, magnetosheath, and magnetopause are highly turbulent. We model a "substorm" as the passage of a rotational discontinuity over the magnetosphere; we observe that the onset of enhanced reconnection in the magnetospheric tail produces a closed magnetic island which convects downstream.
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We present preliminary results from time dependent 2‐dimensional numerical modeling of the magnetohydrodynamic interaction of the solar wind with the magnetosphere. A southward solar wind field produces a magnetospheric topology consistent with Dungey's model. The interaction appears to be fundamentally unsteady; the shock, magnetosheath, and magnetopause are highly turbulent. We model a "substorm" as the passage of a rotational discontinuity over the magnetosphere; we observe that the onset of enhanced reconnection in the magnetospheric tail produces a closed magnetic island which convects downstream.
Key concepts: Magnetosheath, Magnetosphere, Magnetopause, Physics, Geophysics, Substorm, Solar wind, Bow shock (aerodynamics)