Opacity: 402 Softcover reprint of the original 1st ed. 2014 Edition
Author(s): Walter F. Huebner (Author), W. David Barfield (Author)
Publisher: Springer
Publication Date: 27 Aug. 2016
Edition: Softcover reprint of the original 1st ed. 2014
Language: English
Print length: 590 pages
ISBN-10: 1493938444
ISBN-13: 9781493938445
Book Description
A comprehensive review is presented on opacity and equation of state calculations for gases, plasmas, and grains. The continuous trasnformation of the equilibrium composition of these phases of matter as a function of temperature and density is emphasized. Absorption and scattering processes are described that affect opacities in regions of interest to science and technology, up to temperatures of about 1 x 10(9) (o) K and densities of about 10(9) g cm (-3). Reliability of results based on various approximations are given and cross sections are compared with experimental values where available. Opacity tables are presented for air, “glass”, a few elements, and astrophysical mixtures.
Editorial Reviews
Review
“The authors approach their subject in a comprehensive and thorough manner. … It is a ‘must buy’ for any library concerned with atomic and molecular physics and astronomy theory, and a highly-recommended textbook for all students concerned with radiative processes.” (Simon Jeffery, The Observatory, Vol. 135 (1245), April, 2015)
From the Back Cover
The interaction of radiation with matter is a fundamental process in the universe; in particular, the absorption and scattering of radiation by matter (the opacity) govern the formation, evolution, and structure of stars and planets. But opacity is also important in many terrestrial applications in which radiation is the dominant means of energy transfer, such as controlled nuclear-fusion, laser ablation, atmospheric entry and reentry, and the “greenhouse” effect. This book covers all aspects of opacity and equations of state for plasmas, gases, vapors, and dust and emphasizes the continuous transformation of phases and molecular compositions with changing density and temperature under conditions of local thermodynamic equilibrium (LTE) while preserving the basic abundances of the chemical elements in a mixture.
About the Author
Dr. Walter F. Huebner is a research scientist with the Southwest Research Institute in San Antonio, Texas.