Magnetospheric waves Lauren Blum.

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Presentation transcript:

Magnetospheric waves Lauren Blum

CRRES Meredith et al. (2004)

Wave Particle Interactions Cyclotron Resonance: NOAA POES – 30 deg field of view references Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Waves in the Inner Magnetosphere Shprits et al. (2006) Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Lauren Blum - University of Colorado - GEM 2013 waves tutorial ULF Waves Shprits et al. (2006) Lauren Blum - University of Colorado - GEM 2013 waves tutorial

ULF Waves - Classifications Shprits et al. (2006) McPherron (2005) Lauren Blum - University of Colorado - GEM 2013 waves tutorial

ULF Waves – Radiation Belt Effects Shprits et al. (2006) Mechanism for radial transport and acceleration of radiation belt electrons Shprits et al. (2006) Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Lauren Blum - University of Colorado - GEM 2013 waves tutorial Plasmaspheric Hiss Shprits et al. (2006) 100 Hz – kHz Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Lauren Blum - University of Colorado - GEM 2013 waves tutorial Plasmaspheric Hiss Shprits et al. (2006) hiss plasmapause fuhr fce flhr 100 Hz – kHz Meredith et al. (2004) Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Lauren Blum - University of Colorado - GEM 2013 waves tutorial Hiss Bortnik et al. (2008) Shprits et al. (2006) Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Hiss – Radiation Belt Effects Shprits et al. (2006) Responsible for radiation belt electron decay and generation of the slot region Log(Flux) [#/cm2-s-str] SAMPEX 2-6 MeV e- Li et al. (2011) Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Lauren Blum - University of Colorado - GEM 2013 waves tutorial Whistler Mode Chorus Shprits et al. (2006) Generated by anisotropic keV electrons on the morning side Develop in the low density region outside the plasmapause 0.1fce < f < 0.8fce Can cause electron loss and acceleration Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Lauren Blum - University of Colorado - GEM 2013 waves tutorial Whistler Mode Chorus Shprits et al. (2006) Li et al. (2011) Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Whistler Mode Chorus – Effects Shprits et al. (2006) Source of local acceleration of radiation belt electrons Schiller et al. (2012) Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Whistler Mode Chorus – Effects Shprits et al. (2006) Source of pulsating aurora and keV electron precipitation Jaynes et al. (2013) Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Whistler Mode Chorus - Effects Shprits et al. (2006) Radiation belt electron loss mechanism -> microbursts Lorentzen et al. (2001) Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Whistler Mode Chorus - Effects Shprits et al. (2006) Meredith et al. (2012) Crew et al. (in prep) Radiation belt electron loss mechanism -> microbursts

Electromagnetic Ion Cyclotron Waves Shprits et al. (2006) Generated by anisotropic keV ions Excited in bands below the proton gyrofrequency, ~.1-5 Hz Associated with duskside MeV electron precipitation Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Lauren Blum - University of Colorado - GEM 2013 waves tutorial EMIC Shprits et al. (2006) Fraser et al. (2010) Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Lauren Blum - University of Colorado - GEM 2013 waves tutorial EMIC Shprits et al. (2006) Off-equator, compressionally generated EMIC waves McCollough et al. (2012) Cluster data Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Lauren Blum - University of Colorado - GEM 2013 waves tutorial EMIC - Effects Shprits et al. (2006) Ring current ion loss mechanism Jordanova et al. (2006) Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Lauren Blum - University of Colorado - GEM 2013 waves tutorial EMIC - Effects Shprits et al. (2006) Radiation belt electron loss mechanism Millan et al. (2002) Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Lauren Blum - University of Colorado - GEM 2013 waves tutorial Summary Lots of different types of waves the main ones that might come up during the week in breakout sessions highlighted here (with a weighting towards radiation belts!) Relevance: waves can interact with particle populations in the magnetosphere acceleration and loss mechanisms for various particle populations (e.g. radiation belts, ring current) provide a way to transfer energy between different particle populations Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Thanks! Questions? Lauren Blum

Lauren Blum - University of Colorado - GEM 2013 waves tutorial Backups Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Lauren Blum - University of Colorado - GEM 2013 waves tutorial Cyclotron Resonance Tsurutani & Lakhina (1997) resonance when the Doppler shifted wave frequency = electron gyrofrequency: NOAA POES – 30 deg field of view Lauren Blum - University of Colorado - GEM 2013 waves tutorial

Lauren Blum - University of Colorado - GEM 2013 waves tutorial EMIC Yuan et al. (2012) Shprits et al. (2006) Cluster data Lauren Blum - University of Colorado - GEM 2013 waves tutorial