Plasma in the near Venus tail: Venus Express observations

Although Venus has no global intrinsic magnetic fields, it possesses a long magnetotail of induced origin. The topology of the tail is determined by the interplanetary magnetic field orientation. We present recent plasma and magnetic field observations in the near Venus tail (X≥−3RV) made by the Ven...

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Veröffentlicht in:Journal of geophysical research. Space physics 2013-12, Vol.118 (12), p.7624-7634
Hauptverfasser: Dubinin, E., Fraenz, M., Zhang, T. L., Woch, J., Wei, Y., Fedorov, A., Barabash, S., Lundin, R.
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container_end_page 7634
container_issue 12
container_start_page 7624
container_title Journal of geophysical research. Space physics
container_volume 118
creator Dubinin, E.
Fraenz, M.
Zhang, T. L.
Woch, J.
Wei, Y.
Fedorov, A.
Barabash, S.
Lundin, R.
description Although Venus has no global intrinsic magnetic fields, it possesses a long magnetotail of induced origin. The topology of the tail is determined by the interplanetary magnetic field orientation. We present recent plasma and magnetic field observations in the near Venus tail (X≥−3RV) made by the Venus Express spacecraft. We show that ion acceleration in the Venus plasma sheet is produced by the slingshot effect of the draping magnetic field lines, though some features as differential streaming of different ion species point to the existence of other forces. We explain a bell shape of ion spectrograms while the spacecraft crosses the current sheet. The absence of a balance between the lobe magnetic pressure and thermal pressure of plasma in the plasma sheet indicates a dynamic rather than a static equilibrium in the Venus magnetotail. A strong asymmetry of the plasma sheet is controlled by the direction of the motional electric field in the upstream solar wind. In the hemisphere pointed in the direction of the motional electric field, the j×B force accelerates plasma tailward supplying the plasma sheet, while in the opposite hemisphere, the flow pattern occurs less regularly with smaller speeds but higher number densities. Key Points Structure of ion acceleration is produced by slingshot effect There is no static pressure balance in plasma sheet Asymmetry of plasma sheet by motional electric field
doi_str_mv 10.1002/2013JA019164
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subjects Astronomy
Earth, ocean, space
Electric fields
Exact sciences and technology
External geophysics
Flow pattern
Interplanetary space
ion acceleration
Magnetic fields
magnetic tail
Physics of the ionosphere
Physics of the magnetosphere
Plasma
plasma sheet
Solar system
solar wind
Spacecraft
Topology
Venus
Venus Express
title Plasma in the near Venus tail: Venus Express observations
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