Geophysical Research Letters · 2011 · 76 citations · 21 references
EngineeringGlobal DistributionSolar-terrestrial InteractionSpace Plasma PhysicElectron PhysicGeophysicsEch EmissionsGeospace PhysicsSolar Terrestrial EnvironmentAtmospheric SciencePlasma TheoryPlanetary MagnetospherePhysicsAtomic PhysicsPlasma InstabilitySynchrotron RadiationSpace WeatherEch WavesMagnetospheric PlasmaIonosphereMagnetospheric PhysicsChorus Emissions
[1] A global, statistical analysis of electrostatic electron cyclotron harmonic (ECH) waves is performed using THEMIS wave data. Our results confirm the high occurrence of <1 mV/m ECH emissions throughout the outer magnetosphere (L > 5). The strongest (≥1 mV/m) ECH waves are enhanced during geomagnetically disturbed periods, and are mainly confined close to the magnetic equator (∣λ∣ < 3°) over the region L ≤ 10 in the night and dawn MLT sector. ECH wave intensities within 3° ≤ ∣λ∣ < 6° are generally much weaker but not negligible especially for L < ∼12 on the midnight side. Furthermore, the occurrence rates and variability of moderately intense (≥0.1 mV/m) ECH emissions suggest that ECH wave scattering could contribute to diffuse auroral precipitation in the outer (L > 8) magnetosphere where chorus emissions are statistically weak.
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V. Angelopoulos · Space Science Reviews · 2008 · 1.5K citations
The THEMIS Fluxgate Magnetometer
Hans‐Ulrich Auster, W. Magnes, Ö. Aydogar et al. · Space Science Reviews · 2008 · 1.3K citations
Magnetism, Engineering, Physics +6
Scattering by chorus waves as the dominant cause of diffuse auroral precipitation
Binbin Ni, Xin Tao, R. B. Horne et al. · Nature · 2010 · 552 citations