Journal of Geophysical Research Atmospheres · 1995 · 21 citations · 11 references
Natural SciencesAstronomyPhysicsAstrophysicsElectromagnetismPlasma PhysicsMagnetohydrodynamicsPlasma AstrophysicsSolar FlaresSolar Magnetic FieldsSolar PhysicsSolar WindAngular Field DistributionFlare Energy Release MechanismsHigh-energy Solar FlaresMagnetic Field EffectsMagnetic Field GradientsSolar MagnetohydrodynamicsSolar Wind Magnetic Field
We discuss an example of confinement of fast solar electrons by a discrete solar wind‐interplanetary magnetic field structure on February 22, 1991. The structure is about 190,000 km in width and is clearly defined by changes in the direction of the magnetic field at the Ulysses spacecraft. This structure carries electrons moving toward the Sun as well as away from the Sun. A loss cone in the angular distribution of the fast electrons shows that mirroring, presumably magnetic, takes place downstream from the spacecraft. Following passage of this narrow structure, the return flux vanishes for 21 min after which time the mirroring resumes and persists for several hours. We identify the enhanced magnetic field region lying downstream from the Ulysses spacecraft that is responsible for the mirroring to be a corotating stream interaction region. Backstreaming suprathermal electron measurements by the Los Alamos National Laboratory plasma experiment on the Ulysses spacecraft support this interpretation.
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Non-relativistic solar electrons
R. P. Lin · Space Science Reviews · 1974 · 304 citations
Plasma and magnetic fields in the solar system
T. Gold · Journal of Geophysical Research Atmospheres · 1959 · 204 citations
The emission and propagation of ? 40keV solar flare electrons
R. P. Lin · Solar Physics · 1970 · 191 citations
Natural Sciences, Astronomy, Physics +12
Heliosphere Instrument for Spectra, Composition and Anisotropy at Low Energies
L. J. Lanzerotti, R. E. Gold, K. A. Anderson et al. · 1992 · 122 citations
Natural Sciences, Astronomy, Physics +15