The Inner Magnetosphere: Physics and Modeling

The Inner Magnetosphere: Physics and Modeling

Editor(s): Tuija I. Pulkkinen, Nikolai A. Tsyganenko, Reiner H.W. Friedel

Published Online: 18 MAR 2013

Print ISBN: 9780875904207

Online ISBN: 9781118666098

DOI: 10.1029/GM155

About this Book

Published by the American Geophysical Union as part of the Geophysical Monograph Series, Volume 155.
As we become a space-faring culture, there is an increasing need for reliable methods to forecast the dynamics of electromagnetic fields, thermal plasma, and energetic particles in the geospace environment, as all these factors affect satellite-borne systems. From the electrodynamics viewpoint, on the other hand, the inner magnetosphere is a key element in the Sun-Earth connection chain of processes. Most notably, it is a region where a significant part of the storm-time energy input from the solar wind is deposited and dissipated.

Because the most interesting and crucially important phenomena, as noted, develop relatively close to Earth (in the transition region separating the innermost quasi-dipolar geomagnetic field from the magnetotail), understanding them is a complex task. Moreover, the stronger the disturbance, the deeper its impact penetrates into the inner magneto-sphere. In this region plasma no longer behaves like a fluid, and the motion of energetic charged particles becomes important for the dynamics of the system. This fact leaves "particle simulations" as a primary tool for studying and understanding the dynamics of the inner magnetosphere during storms. An integral element of such simulations is an electromagnetic field model. Recent studies of the inner magnetosphere have substantially improved our understanding of its dynamics while creating new paradigms and reviving old controversies.

Table of contents

    1. You have free access to this content
    2. Structures of Sub-Kev Ions Inside the Ring Current Region (pages 41–46)

      M. Yamauchi, R. Lundin, L. Eliasson, D. Winningham, H. Reme, C. Vallat, I. Dandouras and Cluster-CIS team

    3. Global View of Energetic Particles During a Major Magnetic Storm (pages 97–104)

      Timo Asikainen, Kalevi Mursula, Raine Kerttula, Reiner Friedel, Daniel Baker, Finn Søraas, Joseph F. Fennell and J. Bernard Blake

    4. Dynamics of the Earth's Radiation Belts During the Time Period April 14-24, 2002 – Experimental Data (pages 127–134)

      Irina N. Myagkova, Sergey N. Kuznetsov, Boris Yu. Yushkov, Yury I. Denisov, Ekaterina A. Murav'eva and Joseph Lemaire

    5. Storm-substorm coupling during 16 Hours of Dst steadily at −150 nT (pages 155–161)

      T.I. Pulkkinen, N. Yu. Ganushkina, E. Donovan, X. Li, G.D. Reeves, C.T. Russell, H.J. Singer and J.A. Slavin

    6. Substorm Associated Spikes in High Energy Particle Precipitation (pages 227–236)

      E. Spanswick, E. Donovan, W. Liu, D. Wallis, A. Aasnes, T. Hiebert, B. Jackel, M. Henderson and H. Frey

    7. Modeling Inner Magnetospheric Electric Fields: Latest Self-Consistent Results (pages 263–269)

      Stanislav Sazykin, Robert W. Spiro, Richard A. Wolf, Frank R. Toffoletto, Nikolai Tsyganenko, J. Goldstein and Marc R. Hairston

    8. Empirical Model of the Inner Magnetosphere H+ Pitch Angle Distributions (pages 283–291)

      Jacopo De Benedetti, Anna Milillo, Stefano Orsini, Alessandro Mura, Elisabetta De Angelis and Ioannis A. Daglis

    9. A Back-Tracing Code to Study the Magnetosphere Transmission Function for Primary Cosmic Rays (pages 301–305)

      Pavol Bobik, Matteo Boschini, Davide Grandi, Massimo Gervasi, Elisabetta Micelotta and Pier-Giorgio Rancoita

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