F. V. Coroniti
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Research Subjects
F. V. Coroniti has a total of 3 co-authors. Here are the top co-authors by number of shared publications:
- Philip L. Pritchett
Department of Physics and Astronomy University of California Los Angeles CA USA
7 shared publications L. Mandrake
Department of Physics & Astronomy, University of California, Los Angeles
1 shared publicationP. L. Pritchett
Department of Physics and Astronomy University of California Los Angeles California USA
1 shared publication
Latest Publications
- Open Access
- 24 February 2014
- Published by American Geophysical Union (AGU) in Journal of Geophysical Research: Space Physics
- Vol. 119 (3) , 1827-1836
The quiet evening auroral arc and the structure of the growth phase near‐Earth plasma sheet
The plasma pressure and current configuration of the near‐Earth plasma sheet that creates and sustains the quiet evening auroral arc during the growth phase of magnetospheric substorms is investigated. We propose that the quiet evening arc (QEA) connects to the thin near‐Earth current sheet, which forms during the development of the growth phase enhancement of convection. The current sheet's large polarization electric fields are shielded from the ionosphere by an Inverted‐V parallel potential drop, thereby producing the electron precipitation responsible for the arc's luminosity. The QEA is located in the plasma sheet region of maximal radial pressure gradient and, in the east‐west direction, follows the vanishing of the approximately dawn‐dusk‐directed gradient or fold in the plasma pressure. In the evening sector, the boundary between the Region1 and Region 2 current systems occurs where the pressure maximizes (approximately radial gradient of the pressure vanishes) and where the approximately radial gradient of the magnetic flux tube volume also vanishes in an inflection region. The proposed intricate balance of plasma sheet pressure and currents may well be very sensitive to disruption by the arrival of equatorward traveling auroral streamers and their associated earthward traveling dipolarization fronts.
- 24 February 2014
- Published by American Geophysical Union (AGU) in Journal of Geophysical Research: Space Physics
- Vol. 119 (3) , 1827-1836
Open AccessThe quiet evening auroral arc and the structure of the growth phase near‐Earth plasma sheet
The plasma pressure and current configuration of the near‐Earth plasma sheet that creates and sustains the quiet evening auroral arc during the growth phase of magnetospheric substorms is investigated. We propose that the quiet evening arc (QEA) connects to the thin near‐Earth current sheet, which forms during the development of the growth phase enhancement of convection. The current sheet's large polarization electric fields are shielded from the ionosphere by an Inverted‐V parallel potential drop, thereby producing the electron precipitation responsible for the arc's luminosity. The QEA is located in the plasma sheet region of maximal radial pressure gradient and, in the east‐west direction, follows the vanishing of the approximately dawn‐dusk‐directed gradient or fold in the plasma pressure. In the evening sector, the boundary between the Region1 and Region 2 current systems occurs where the pressure maximizes (approximately radial gradient of the pressure vanishes) and where the approximately radial gradient of the magnetic flux tube volume also vanishes in an inflection region. The proposed intricate balance of plasma sheet pressure and currents may well be very sensitive to disruption by the arrival of equatorward traveling auroral streamers and their associated earthward traveling dipolarization fronts.
- Open Access
- 26 June 2001
- Published by Springer Nature in Earth, Planets and Space
- Vol. 53 (6) , 635-643
Kinetic simulations of 3-D reconnection and magnetotail disruptions
- 26 June 2001
- Published by Springer Nature in Earth, Planets and Space
- Vol. 53 (6) , 635-643
Open AccessKinetic simulations of 3-D reconnection and magnetotail disruptions
- 15 September 2000
- Published by American Geophysical Union (AGU) in Geophysical Research Letters
- Vol. 27 (18) , 2869-2872
Electron beam generated solitary structures in a nonuniform plasma system
- 15 September 2000
- Published by American Geophysical Union (AGU) in Geophysical Research Letters
- Vol. 27 (18) , 2869-2872
Electron beam generated solitary structures in a nonuniform plasma system
- 15 November 1997
- Published by American Geophysical Union (AGU) in Geophysical Research Letters
- Vol. 24 (22) , 2925-2928
Interchange and kink modes in the near‐Earth plasma sheet and their associated plasma flows
- 15 November 1997
- Published by American Geophysical Union (AGU) in Geophysical Research Letters
- Vol. 24 (22) , 2925-2928
Interchange and kink modes in the near‐Earth plasma sheet and their associated plasma flows
- 1 January 1995
- Published by Wiley
- p. 171-179
Formation of the macroscopic tail current sheet in a microscopic distributed-source model
- 1 January 1995
- Published by Wiley
- p. 171-179
Formation of the macroscopic tail current sheet in a microscopic distributed-source model
- 20 September 1993
- Published by American Geophysical Union (AGU) in Journal of Geophysical Research
- Vol. 98 (A9) , 15355-15363
A radiating one‐dimensional current sheet configuration
- 20 September 1993
- Published by American Geophysical Union (AGU) in Journal of Geophysical Research
- Vol. 98 (A9) , 15355-15363
A radiating one‐dimensional current sheet configuration
- 21 August 1992
- Published by American Geophysical Union (AGU) in Geophysical Research Letters
- Vol. 19 (16) , 1631-1634
Interaction of reflected ions with the firehose marginally stable current sheet: Implications for plasma sheet convection
- 21 August 1992
- Published by American Geophysical Union (AGU) in Geophysical Research Letters
- Vol. 19 (16) , 1631-1634
Interaction of reflected ions with the firehose marginally stable current sheet: Implications for plasma sheet convection
- 9 January 1984
- Published by American Geophysical Union (AGU) in Journal of Geophysical Research
- Vol. 89 (A1) , 168-178
The collisionless macroscopic Kelvin‐Helmholtz instability: 1. Transverse electrostatic mode
- 9 January 1984
- Published by American Geophysical Union (AGU) in Journal of Geophysical Research
- Vol. 89 (A1) , 168-178
The collisionless macroscopic Kelvin‐Helmholtz instability: 1. Transverse electrostatic mode