Auroral plasma physics
著者
書誌事項
Auroral plasma physics
（Space sciences series of ISSI, v. 15）
Kluwer Academic Publishers, c2003
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Space science reviews
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注記
Originally published in: Space science reviews, v. 103, nos. 1-4, 2002
Includes bibliographical references (p. [435]-475) and index
内容説明・目次
内容説明
The present 15th volume of the ISSI Space Science Series is devoted to Auroral Plasma Physics. The aurora is arguably the most intriguing phenomenon in space plasma physics. Not only is it the most spectacular manifestation of the Sun-Earth connection chain, but the underlying plasma processes are expected to be ubiqui- tous in the plasma universe. Recognizing the enormous progress made over the last decade in the understanding of the physics of the auroral acceleration processes, it seemed timely to write a comprehensive and integrated book on the subject. Re- cent advances concern the clarification of the nature of the acceleration process of the electrons that are responsible for the visible aurora, the recognition of the fundamental role of the large-scale current systems in organizing the auroral mor- phology, and of the interplay between particles and electromagnetic fields. The project began in March 1999, as a natural follow-up of the project on Magnetospheric Plasma Sources and Losses that resulted in volume 6 of this se- ries, with a planning meeting by a core-group that coordinated the project. The group consisted of J. E. Borovsky, Los Alamos National Laboratory; C. W.
Carl- son, University of California, Berkeley; G. Haerendel, Max-Planck-Institut fur ex- traterrestrische Physik, Garching; B. Hultqvist, Swedish Intitute ofSpace Physics, H. E. J. Koskinen, Finnish Meteorological Institute, Helsinki; W. Lotko, Kiruna; Dartmouth College, Hanover, New Hampshire; K. A. Lynch, University of New Hampshire, Durham and G. Marklund, Royal Institute ofTechnology, Stockholm. G. Paschmann, ISSI, Bern, was the project leader.
目次
1. Introduction.- 1.1 Visible Aurorae.- 1.2 Ionospheric Framework.- 1.3 Magnetospheric Framework.- 1.4 Magnetosphere-Ionosphere Coupling.- 1.5 Large Scale Magnetospheric Flows and Dynamics.- 1.6 An Overview of the Book.- 2. Remote Sensing of Auroral Arcs.- 2.1 Quiet Auroral Arc.- 2.2 Diffuse and Pulsating Aurora.- 2.3 Proper Motion of Auroral Arcs.- 2.4 Physical Characteristics.- 2.5 Auroral Morphology.- 2.6 Distortions in Auroral Arcs.- 2.7 Black Aurora.- 3. Theoretical Building Blocks.- 3.1 The Conducting Ionosphere.- 3.1.1 Ionospheric Conductivity.- 3.1.2 Conductivity from Electron Precipitation.- 3.2 Magnetospheric Current Sources.- 3.2.1 Generalized Ohm's Law.- 3.2.2 Field-Aligned Current Generation.- 3.2.3 Energy Release, Transport and Conversion.- 3.2.4 Magnetospheric Driving of the Ionosphere.- 3.3 Parallel Electric Fields.- 3.3.1 Current-Voltage Relation in the Upward j? Regions.- 3.3.2 Current-Voltage Relation in the Downward j? Regions.- 3.3.3 The Nature of E?.- 3.3.4 Static Magnetosphere-Ionosphere Coupling.- 3.4 Dynamic Magnetosphere-Ionosphere Coupling.- 3.4.1 Ideal MHD Alfven Waves.- 3.4.2 Reflection of Alfven Waves.- 3.4.3 Two-Fluid Shear-Alfven Waves.- 3.5 Wave-Particle Interactions.- 3.5.1 Anomalous Resistivity.- 3.5.2 Transverse Ion Heating.- 3.5.3 Pitch Angle Diffusion.- 3.5.4 Phase-Space Holes.- 4. In Situ Measurements in the Auroral Plasma.- 4.1 Upward Current Region Processes.- 4.1.1 Electron Acceleration.- 4.1.2 Ion Beams and the Density Cavity.- 4.1.3 Electric Field Signature and Structure.- 4.1.4 Limitations of the Quasistatic Arc Model.- 4.2 Downward Current Region Processes.- 4.2.1 Upgoing Electrons.- 4.2.2 Ion Conics and Ion Precipitation.- 4.2.3 Electric Fields.- 4.2.4 Current-Voltage Relations.- 4.2.5 Limitations of a Quasistatic Model.- 4.3 Waves and Radiation.- 4.3.1 Beam Modification: AKR, VLF, BBELF, ESW.- 4.3.2 Ion Effects: EMIC, EIC, IAW, ELF.- 4.3.3 Diagnostic Wave Signatures.- 4.4 Time-Dependent Alfvenic Processes.- 4.4.1 Wave Impedance.- 4.4.2 Dispersive Travelling Alfven Waves.- 4.4.3 Standing Alfven Waves.- 4.5 Specific Regions.- 4.5.1 Nightside Polar Cap Boundary.- 4.5.2 Polar Cusp.- 4.5.3 Other Auroral Dispersion Signatures.- 4.5.4 Diffuse Aurora.- 4.5.5 Subauroral Ion Drifts.- 5. Statistics and Mapping of Auroral Features.- 5.1 Statistical and Empirical Studies of Auroral Distributions.- 5.1.1 Ionospheric Observations and Empirical Models.- 5.1.2 Auroral Luminosity.- 5.1.3 Auroral In Situ Observations.- 5.2 Mapping Auroral Features to the Magnetosphere.- 5.2.1 Topological Magnetic Mapping.- 5.2.2 Assimilative Mapping and Synoptic Maps.- 5.2.3 Morphological Mapping.- 5.2.4 Mapping Complications.- 6. ELECTRODYNAMICS OF AURORAL FORMS.- 6.1 Eveningside Discrete Arcs.- 6.1.1 The Arc as Part of a Quasi-Static Current Circuit.- 6.1.2 Relation to the High Altitude Electric Field.- 6.1.3 A Synoptic Case Study of an Evening Arc.- 6.2 Westward Traveling Surge.- 6.2.1 Three-Dimensional Ionospheric Current System.- 6.2.2 Associated Particle Precipitation.- 6.3 Omega Bands.- 6.3.1 Three-Dimensional Ionospheric Current System.- 6.3.2 Particle Precipitation.- 6.3.3 Conjugate Magnetospheric Observations.- 6.4 Auroral Streamers.- 6.4.1 Ground Magnetic Signatures.- 6.4.2 Current Systems.- 6.4.3 Role of Bursty Bulk Flows.- 6.5 Polar Cap Aurora.- 6.5.1 Polar Auroral Arc.- 6.5.2 IMF Dependence.- 6.5.3 Plasma Sources.- 6.5.4 Global Electrodynamics.- 7. Theoretical Models.- 7.1 Static E? Models.- 7.1.1 Numerical Simulations.- 7.1.2 Theory and Data.- 7.2 Boundary Layer Coupling to the Ionosphere.- 7.3 Current and Voltage Generators.- 7.3.1 Pure Current or Voltage Generators.- 7.3.2 Generator Conductivity Models.- 7.3.3 Tau Generator Model.- 7.3.4 Dynamic Generator Models.- 7.4 Resonant Alfven Waves.- 7.4.1 Resonant Mode Coupling.- 7.4.2 Field Line Resonances.- 7.4.3 Ionospheric Alfven Resonator.- 7.5 Propagating Arc Models.- 7.5.1 Ionospheric Feedback Models.- 7.5.2 Propagating Arcs and Magnetic Energy.- 7.5.3 Stationary Alfven Waves.- 7.6 Transient Acceleration.- 7.7.1 Large-Scale Features and Magnetospheric Sources.- 7.7.2 The Substorm Current Wedge.- 7.7.3 Formation of the Auroral Bulge.- 7.7.4 Energy Flow and Conversion.- 7.7.5 Stress Transmission.- 7.7.5 Small-Scale Source Regions.- 7.8 Essential Elements of an Integrated Theory.- 7.8.1 Outline.- 7.8.2 Energy Flow.- 7.8.3 Current Filamentation.- 7.8.4 Feedback on Generator.- 7.8.5 Global Impact of the Aurora.- 8 DYNAMIC COUPLING TO THE MAGNETOSPHERE.- 8.1 Magnetosphere as an Auroral Precipitation Source.- 8.2 Magnetospheric Energy Circulation.- 8.2.1 Pseudobreakups.- 8.2.2 Magnetospheric Substorms.- 8.2.3 Magnetic Storms.- 8.2.4 Steady Magnetospheric Convection.- 8.2.5 Magnetospheric Energy Budget.- 8.3 Magnetospheric Control.- 8.3.1 Impulsive Plasma Acceleration.- 8.3.2 Pulsed Reconnection.- 8.3.3 Sporadic Narrow Plasma Jets.- 8.3.4 BBF Signatures in the Aurora.- 8.4 Ionospheric Control.- 8.4.1 Ionospheric Effects on the Magnetosphere.- 8.4.2 Pseudobreakups and Ionospheric State.- 8.4.3 Effects of the Neutral Wind.- 8.5 Open Issues.- 9. The Aurora as a Universal Phenomenon.- 9.1 Aurora on Other Planets.- 9.1.1 Solar System Planets.- 9.1.2 Aurora on Exoplanets.- 9.2 Auroral Acceleration in Astrophysical Objects.- 9.2.1 A Condensed Auroral Theory.- 9.2.2 Application to Solar Flares.- 9.2.3 Cataclysmic Variables.- 9.2.4 Accreting Neutron Stars.- References.- Author Addresses.
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