Ionospheres :Physics, Plasma Physics, and Chemistry ( Cambridge Atmospheric and Space Science Series )

Publication subTitle :Physics, Plasma Physics, and Chemistry

Publication series :Cambridge Atmospheric and Space Science Series

Author: Robert W. Schunk; Andrew F. Nagy  

Publisher: Cambridge University Press‎

Publication year: 2000

E-ISBN: 9780511254550

P-ISBN(Paperback): 9780521632379

Subject: P352 ionospheric physics

Keyword: 大气科学(气象学)

Language: ENG

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Ionospheres

Description

Ionospheres provides a comprehensive description of the physical, plasma and chemical processes controlling the behavior of ionospheres. The relevant transport equations and related coefficients are derived in detail and their applicability and limitations are described. Relevant wave processes are outlined and important ion chemical processes and reaction rates are presented. The various energy deposition and transfer mechanisms are described in some detail, and a chapter is devoted to the various processes controlling the upper atmosphere and exosphere. The second half of the book presents our current understanding of the structure, chemistry, dynamics and energetics of the terrestrial ionosphere, and other solar system bodies. The final chapter describes ionospheric measurement techniques. The book will form a comprehensive and lasting reference for scientists interested in ionospheres, and it will also prove an ideal textbook for graduate students. It contains extensive student problem sets, and an answer book is available for instructors.

Chapter

2.7 Plasma and Neutral Parameters

2.8 Specific References

Chapter 3 Transport Equations

3.1 Boltzmann Equation

3.2 Moments of the Distribution Function

3.3 General Transport Equations

3.4 Maxwellian Velocity Distribution

3.5 Closing the System of Transport Equations

3.6 13-Moment Transport Equations

3.7 Generalized Transport Systems

3.8 Maxwell Equations

3.9 Specific References

3.10 Problems

Chapter 4 Collisions

4.1 Simple Collision Parameters

4.2 Binary Elastic Collisions

4.3 Collision Cross Sections

4.4 Transfer Collision Integrals

4.5 Maxwell Molecule Collisions

4.6 Collision Terms for Maxwellian Velocity Distributions

4.7 Collision Terms for 13-Moment Velocity Distributions

4.8 Momentum Transfer Collision Frequencies

4.9 Specific References

4.10 Problems

Chapter 5 Simplified Transport Equations

5.1 Basic Transport Properties

5.2 The 5-Moment Approximation

5.3 Transport in a Weakly Ionized Plasma

5.4 Transport in Partially and Fully Ionized Plasmas

5.5 Major Ion Diffusion

5.6 Polarization Electrostatic Field

5.7 Minor Ion Diffusion

5.8 Supersonic Ion Outflow

5.9 Time-Dependent Plasma Expansion

5.10 Diffusion Across B

5.11 Electrical Conductivities

5.12 Electron Stress and Heat Flow

5.13 Ion Stress and Heat Flow

5.14 Higher-Order Diffusion Processes

5.15 Summary of Appropriate Use of Transport Equations

5.16 Specific References

5.17 General References

5.18 Problems

Chapter 6 Wave Phenomena

6.1 General Wave Properties

6.2 Plasma Dynamics

6.3 Electron Plasma Waves

6.4 Ion-Acoustic Waves

6.5 Upper Hybrid Oscillations

6.6 Lower Hybrid Oscillations

6.7 Ion-Cyclotron Waves

6.8 Electromagnetic Waves in a Plasma

6.9 Ordinary and Extraordinary Waves

6.10 L and R Waves

6.11 Alfvén and Magnetosonic Waves

6.12 Effect of Collisions

6.13 Two-Stream Instability

6.14 Shock Waves

6.15 Double Layers

6.16 Summary of Important Formulas

6.17 Specific References

6.18 General References

6.19 Problems

Chapter 7 Magnetohydrodynamic Formulation

7.1 General MHD Equations

7.2 Generalized Ohm's Law

7.3 Simplified MHD Equations

7.4 Pressure Balance

7.5 Magnetic Diffusion

7.6 Spiral Magnetic Field

7.7 Double-Adiabatic Energy Equations

7.8 Alfvén and Magnetosonic Waves

7.9 Shocks and Discontinuities

7.10 Specific References

7.11 General References

7.12 Problems

Chapters 8 Chemical Processes

8.1 Chemical Kinetics

8.2 Reaction Rates

8.3 Charge Exchange Processes

8.4 Recombination Reactions

8.5 Negative Ion Chemistry

8.6 Excited State Ion Chemistry

8.7 Optical Emissions; Airglow and Aurora

8.8 Specific References

8.9 General References

8.10 Problems

Chapter 9 Ionization and Energy Exchange Processes

9.1 Absorption of Solar Radiation

9.2 Solar EUV Intensities and Absorption Cross Sections

9.3 Photoionization

9.4 Superthermal Electron Transport

9.5 Superthermal Ion and Neutral Particle Transport

9.6 Electron and Ion Heating Rates

9.7 Electron and Ion Cooling Rates

9.8 Specific References

9.9 General References

9.10 Problems

Chapter 10 Neutral Atmospheres

10.1 Rotating Atmospheres

10.2 Euler Equations

10.3 Navier—Stokes Equations

10.4 Atmospheric Waves

10.5 Gravity Waves

10.6 Tides

10.7 Density Structure and Controlling Processes

10.8 Escape of Terrestrial Hydrogen

10.9 Energetics and Thermal Structure of the Earth's Thermosphere

10.10 Exosphere

10.11 Hot Atoms

10.12 Specific References

10.13 General References

10.14 Problems

Chapter 11 The Terrestrial Ionosphere at Middle and Low Latitudes

11.1 Dipole Magnetic Field

11.2 Geomagnetic Field

11.3 Geomagnetic Variations

11.4 Ionospheric Layers

11.5 Topside Ionosphere and Plasmasphere

11.6 Plasma Thermal Structure

11.7 Diurnal Variation at Mid-Latitudes

11.8 Seasonal Variation at Mid-Latitudes

11.9 Solar Cycle Variation at Mid-Latitudes

11.10 Plasma Transport in a Dipole Magnetic Field

11.11 Equatorial F Region

11.12 Equatorial Spread F and Bubbles

11.13 Sporadic E and Intermediate Layers

11.14 Tides and Gravity Waves

11.15 Ionospheric Storms

11.16 Specific References

11.17 General References

11.18 Problems

Chapter 12 The Terrestrial Ionosphere at High Latitudes

12.1 Convection Electric Fields

12.2 Convection Models

12.3 Effects of Convection

12.4 Particle Precipitation

12.5 Current Systems

12.6 Large-Scale Ionospheric Features

12.7 Propagating Plasma Patches

12.8 Boundary and Auroral Blobs

12.9 Sun-Aligned Arcs

12.10 Geomagnetic Storms

12.11 Substorms

12.12 Polar Wind

12.13 Energetic Ion Outflow

12.14 Specific References

12.15 General References

12.16 Problems

Chapter 13 Planetary Ionospheres

13.1 Mercury

13.2 Venus

13.3 Mars

13.4 Jupiter

13.5 Saturn, Uranus, Neptune, and Pluto

13.6 Satellites and Comets

13.7 Specific References

13.8 General References

13.9 Problems

Chapter 14 Ionospheric Measurement Techniques

14.1 Spacecraft Potential

14.2 Langmuir Probes

14.3 Retarding Potential Analyzers

14.4 Thermal Ion Mass Spectrometers

14.5 Radio Reflection

14.6 Radio Occultation

14.7 Incoherent (Thomson) Radar Backscatter

14.8 Specific References

14.9 General References

Appendices

A Physical Constants and Conversions

B Vector Relations and Operations

B.1 Vector Relations

B.2 Vector Operators

C Integrals and Transformations

C.1 Integral Relations

C.2 Important Integrals

C.3 Integral Transformations

D Functions and Series Expansions

D.1 Important Functions

D.2 Series Expansions for Small Arguments

E Systems of Units

Table E.1 Widely used formulas

F Maxwell Transfer Equations

G Collision Models

G.1 Boltzmann Collision Integral

G.2 Fokker—Planck Collision Term

G.3 Charge Exchange Collision Integral

G.4 Krook Collision Models

G.5 Specific References

H Maxwell Velocity Distribution

Specific Reference

I Semilinear Expressions for Transport Coefficients

1.1 Diffusion Coefficients and Thermal Conductivities

1.2 Fully Ionized Plasma

1.3 Partially Ionized Plasma

1.4 Specific References

J Solar Fluxes and Relevant Cross Sections

Table J. 1 Parameters for the EUVAC Solar Flux Model

Table J.2 Photoabsorption and photoionization cross sections

Specific References

K Atmospheric Models

K.I Introduction

Table K.1 VIRA model of composition, temperature, and density (Noon)

Table K.2 VIRA model of composition, temperature, and density (Midnight)

Table K.3 MSIS model of terrestrial neutral parameters (Noon, Winter)

Table K.4 MSIS model of terrestrial neutral parameters (Midnight, Winter)

Table K.5 MSIS model of terrestrial neutral parameters (Noon, Summer)

Table K.6 MSIS model of terrestrial neutral parameters (Midnight, Summer)

K.2 Specific References

L Scalars, Vectors, Dyadics and Tensors

Index

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