Differential Forms in Electromagnetics
Published on 1. February 2005
Software
Other digital
272 pages
978-0-471-72309-7 (ISBN)
Description
This is an introduction to multivectors, dyadics, and differential forms for electrical engineers. While physicists have long applied differential forms to various areas of theoretical analysis, dyadic algebra is also the most natural language for expressing electromagnetic phenomena mathematically. George Deschamps pioneered the application of differential forms to electrical engineering but never completed his work. Now, Ismo V Lindell, an internationally recognized authority on differential forms, provides a clear and practical introduction to replacing classical Gibbsian vector calculus with the mathematical formalism of differential forms. In "Differential Forms in Electromagnetics", Lindell simplifies the notation and adds memory aids in order to ease the reader's leap from Gibbsian analysis to differential forms, and provides the algebraic tools corresponding to the dyadics of Gibbsian analysis that have long been missing from the formalism. He introduces the reader to basic EM theory and wave equations for the electromagnetic two-forms, discusses the derivation of useful identities, and explains novel ways of treating problems in general linear (bi-anisotropic) media.
Clearly written and devoid of unnecessary mathematical jargon, "Differential Forms in Electromagnetics" helps engineers master an area of intense interest for anyone involved in research on metamaterials.
Clearly written and devoid of unnecessary mathematical jargon, "Differential Forms in Electromagnetics" helps engineers master an area of intense interest for anyone involved in research on metamaterials.
Reviews / Votes
"...a modern, clear and well--organised account...in an easily mastered notation..." (Ultramicroscopy, Vol 104, 2005)More details
Language
English
Place of publication
New York
United States
Publishing group
John Wiley and Sons Ltd
Target group
Professional and scholarly
Dimensions
Height: 250 mm
Width: 150 mm
Thickness: 15 mm
Weight
666 gr
ISBN-13
978-0-471-72309-7 (9780471723097)
Copyright in bibliographic data and cover images is held by Nielsen Book Services Limited or by the publishers or by their respective licensors: all rights reserved.
Schweitzer Classification
Person
ISMO V. LINDELL, PhD, is a professor of electromagnetic theory at the Helsinki University of Technology, Department of Electrical and Communication Engineering, where he was the founder of the Electromagnetics Laboratory in 1984. Dr. Lindell has received numerous awards, including recognition as an IEEE Fellow for his contributions to electromagnetic theory and for the development of education in electromagnetics in Finland. He is a member of URSI and IEEE, and is the recipient of the IEE Maxwell Premium for both 1997 and 1998, as well as the IEEE S. A. Schelkunoff Best Paper prize in 1987. In addition to two books in English, Dr. Lindell has authored or coauthored ten books in Finnish along with several hundred articles.
Content
Preface. 1 Multivectors. 1.1 The Grassmann algebra. 1.2 Vectors and dual vectors. 1.3 Bivectors. 1.4 Multivectors. 1.5 Geometric interpretation. 2 Dyadic Algebra. 2.1 Products of dyadics. 2.2 Dyadic identities. 2.3 Eigenproblems. 2.4 Inverse dyadic. 2.5 Metric dyadics. 2.6 Hodge dyadics. 3 Differential Forms. 3.1 Differentiation. 3.2 Differentiation theorems. 3.3 Integration. 3.4 Affine transformations. 4 Electromagnetic Fields and Sources. 4.1 Basic electromagnetic quantities. 4.2 Maxwell equations in three dimensions. 4.3 Maxwell equations in four dimensions. 4.4 Transformations. 4.5 Super forms. 5 Medium, Boundary, and Power Conditions. 5.1 Medium conditions. 5.2 Conditions on boundaries and interfaces. 5.3 Power conditions. 5.4 The Lorentz force law. 5.5 Stress dyadic. 6 Theorems and Transformations. 6.1 Duality transformation. 6.2 Reciprocity. 6.3 Equivalence of sources. 7 Electromagnetic Waves. 7.1 Wave equation for potentials. 7.2 Wave equation for fields. 7.3 Plane waves. 7.4 TE and TM polarized waves. 7.5 Green functions. References. Appendix A: Multivector and Dyadic Identities. Appendix B: Solutions to Selected Problems. Index. About the Author.