Newsgroups: sci.physics.plasma
Subject: New plasma texts
From: Rudolf Treumann <tre@hpth02.plasma.mpe-garching.mpg.de>
Organization: MPE Garching


Basic Space Plasma Physics by W. Baumjohann & R. A. Treumann (MPE Garching)
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This new textbook collects and expands lecture notes from a two-semester
course. However, the first part can also be used for a one-semester
undergraduate course and research scientists may find the later chapters
helpful. The book is written in a self-contained way and most of the material
is presented including the basic steps of derivation so that the reader can
follow without need to consult original sources. Some of the more involved
mathematical derivations are given in the appendix. Special emphasis has been
placed on providing instructive figures. Figures with original measurements are
scarce and mostly redrawn in a more schematic way.

The first five chapters provide an introduction into space physics, based on a
mixture of simple theory and a description of the wealth of space plasma
phenomena. A concise description of the Earth's plasma environment is followed
by a derivation of single particle motion in electromagnetic fields, adiabatic
invariants, and applications to the Earth's magnetosphere and ring current.
Then the origin and effects of collisions and conductivities and the formation
of the ionosphere are discussed. Ohm's law and the frozen-in concept are
introduced on a heuristic basis. The first part ends with an introduction into
magnetospheric dynamics, including convection electric fields, current systems,
substorms, and other macroscopic aspects of solar wind-magnetosphere and
magnetosphere-ionosphere coupling.

The second part of the book presents a more rigorous theoretical foundation of
space plasma physics, yet still contains many applications to space physics. It
starts from kinetic theory, which is built on the Klimontovich approach.
Introducing moments of the distribution function allows the derivation of the
single and multi-fluid equations, followed by a discussion of fluid boundaries
and shocks, with the Earth's magnetopause and bow shock as examples. Both,
fluid and kinetic theory are then applied to derive the relevant wave modes in
a plasma, again with applications from space physics.

The material presented in the present book is extended in "Advanced Space
Plasma Physics", by Treumann & Baumjohann (Imperial College Press, in press).
This companion textbook gives a representative selection of the many macro- and
microinstabilities in a plasma, from the Rayleigh-Taylor and Kelvin-Helmholtz
to the electrostatic and electromagnetic instabilities, and a comprehensive
overview on the nonlinear aspects relevant for space plasma physics, e.g.,
wave-particle interaction, solitons, and anomalous transport.

Contents: Introduction; Single Particle Motion; Trapped Particles; Collisions
and Conductivity; Convection and Substorms; Elements of Kinetic Theory;
Magnetohydrodynamics; Flows and Discontinuities; Waves in Plasma Fluids; Wave
Kinetic Theory (330 pages).

Readership: Undergraduates, graduates and researchers in space physics

Imperial College Press, London 1996, ISBN 1-86094-017-X, price US$58/UK#41

For further information see: http://www.mpe-garching.mpg.de/bj/bspp.html

"Advanced Space Plasma Physics" by R. A. Treumann & W. Baumjohann
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This new textbook book is the second volume of our introductory text on Space
Plasma Physics. The first volume is published by W. Baumjohann & R. A. Treumann
under the title "Basic Space Plasma Physics" (Imperial College Press, London
1996) and covers the more fundamental aspects, i.e., single particle dynamics,
fluid equilibria, and waves in space plasmas. This second volume extends the
material to the more advanced fields of plasma instabilities and nonlinear
effects, especially those encountered in space plasma physics.

The first part of the book is concerned with the evolution of linear
instabilities in plasmas. Inhomogeneities may evolve both in real space and in
velocity space. These inhomogeneities lead to the generation of instabilities
as a first linear and straightforward reaction of the plasma to such deviations
from thermal equilibrium. The first chapters cover a representative selection
of the many macro- and microinstabilities in space plasmas, from the
Rayleigh-Taylor and Kelvin-Helmholtz to electrostatic and electromagnetic
kinetic instabilities. Their quasilinear stabilization and nonlinear evolution
and their application to space physics problems is treated.

As a natural extension of the linear evolution, nonlinear effects do inevitably
evolve in an unstable plasma, simply because an instability cannot persist
forever but will exhaust the available free energy. Therefore all instabilities
are followed by nonlinear evolution. The second part of the book, the chapters
on nonlinear effects, can only give an overview about the vast field of
nonlinearities. These chapters include the nonlinear evolution of single waves,
weak turbulence, and strong turbulence, all presented from the view-point of
their relevance for space plasma physics. Special topics include soliton
formation, caviton collapse, anomalous transport, particle acceleration, and
elements of the theory of collisionless shocks.

Contents: Introduction; Concept of Instability; Macroinstabilities;
Electrostatic & Electromagnetic Instabilities; Drift Instabilities;
Reconnection; Wave-Particle Interaction; Weak Wave Turbulence; Nonlinear Waves;
Strong Turbulence; Collective Effects (392 pages).

Readership: researchers and graduates in plasma physics and space physics

Imperial College Press, London 1997, ISBN 1-86094-026-9, price US$68/UK#49

For further information see: http://www.mpe-garching.mpg.de/bj/aspp.html