An Introduction to Classical Electromagnetic RadiationCambridge University Press, 13.08.1997 - 653 Seiten This book provides a thorough description of classical electromagnetic radiation, starting from Maxwell's equations, and moving on to show how fundamental concepts are applied in a wide variety of examples from areas such as classical optics, antenna analysis, and electromagnetic scattering. Throughout, the author interweaves theoretical and experimental results to help give insight into the physical and historical foundations of the subject. A key feature of the book is that pulsed and time-harmonic signals are presented on an equal footing. Mathematical and physical explanations are enhanced by a wealth of illustrations (over 300), and the book includes more than 140 problems. It can be used as a textbook for advanced undergraduate and graduate courses in electrical engineering and physics, and will also be of interest to scientists and engineers working in applied electromagnetics. A solutions manual is available on request for lecturers adopting the text. |
Inhalt
Basic theory of classical electromagnetism | 1 |
Polarized waves | 123 |
Inhomogeneous plane waves and the planewave spectrum | 177 |
antennas | 232 |
Electromagnetic analogues of some optical principles | 262 |
Electromagnetic field of a moving point charge | 358 |
Dipole radiation | 451 |
Radiation from thinwire antennas | 546 |
Appendix A Units and dimensions | 608 |
Appendix B Review of vector analysis | 617 |
| 638 | |
Andere Ausgaben - Alle anzeigen
An Introduction to Classical Electromagnetic Radiation Glenn S. Smith Keine Leseprobe verfügbar - 1997 |
An Introduction to Classical Electromagnetic Radiation Glenn S. Smith Keine Leseprobe verfügbar - 1997 |
An Introduction to Classical Electromagnetic Radiation Glenn S. Smith Keine Leseprobe verfügbar - 1997 |
Häufige Begriffe und Wortgruppen
acceleration angle approximation assume axis Babinet's principle basic traveling-wave element beam charge and current charged particle Cherenkov radiation circular aperture constant coordinate system determined differential dipole antenna direction disc electrically large electrically small electromagnetic field electron energy expression field lines free space frequency Gaussian pulse graph half space harmonic time dependence incident field incident wave integral linear polarizer loop magnetic field maximum Maxwell's equations normal observation obtained optical pattern perfectly conducting phasor plane wave Poincaré sphere point charge potential power radiated Poynting vector Poynting's theorem problem propagating radiated electric field radiated field radius region retarded right-hand scalar scattering shown in Figure shows sin² solution speed of light sphere spherical Stokes parameters surface synchrotron t/ta tangential component theorem time-average power velocity volume density wavefront wavelength wire zero Απ
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