Limit this search to....

Classical Field Theory
Contributor(s): Soper, Davison E. (Author)
ISBN: 0486462609     ISBN-13: 9780486462608
Publisher: Dover Publications
OUR PRICE:   $15.15  
Product Type: Paperback - Other Formats
Published: February 2008
Qty:
Temporarily out of stock - Will ship within 2 to 5 weeks
Annotation: This text concerns continuum mechanics, electrodynamics and the mechanics of electrically polarized media, and gravity. Its accessible approach formulates theories according to the principle of least action, a concise method that makes the physical content of classical subjects intelligible to advanced undergraduates and graduate students. 1976 edition.
Additional Information
BISAC Categories:
- Science | Physics - General
- Science | Physics - Electromagnetism
- Science | Gravity
Dewey: 530.14
LCCN: 2007033642
Series: Dover Books on Physics
Physical Information: 0.56" H x 6.27" W x 9.19" (0.74 lbs) 272 pages
 
Descriptions, Reviews, Etc.
Publisher Description:
This text concerns continuum mechanics, electrodynamics and the mechanics of electrically polarized media, and gravity. Geared toward advanced undergraduates and graduate students, it offers an accessible approach that formulates theories according to the principle of least action. The chief advantage of this formulation is its simplicity and ease, making the physical content of classical subjects available to students of physics in a concise form.
Author Davison E. Soper, a Professor of Physics at the University of Oregon, intended this treatment as a primary text for courses in classical field theory as well as a supplement for courses in classical mechanics or classical electrodynamics. Topics include fields and transformation laws, the principle of stationary action, general features of classical field theory, the mechanics of fluids and elastic solids, special types of solids, nonrelativistic approximations, and the electromagnetic field. Additional subjects include electromagnetically polarized materials, gravity, momentum conservation in general relativity, and dissipative processes.