Classical Electrodynamics by S.P. Puri is a well-structured and in-depth book designed for advanced undergraduate and postgraduate students of physics and engineering. This book provides a rigorous treatment of the fundamental principles of electrodynamics, covering both theoretical concepts and practical applications. With a systematic approach, the book bridges the gap between basic electromagnetism and advanced topics, making it an essential resource for students, researchers, and educators.
Key Features:
1. Comprehensive Coverage: The book thoroughly explores electrostatics, magnetostatics, Maxwell’s equations, electromagnetic wave propagation, radiation theory, and relativistic electrodynamics.
2. Mathematical Rigor: Includes detailed derivations, vector and tensor analysis, and a strong emphasis on boundary value problems.
3. Practical Applications: Discusses real-world phenomena such as wave propagation in bounded media, radiation from accelerated charges, and interactions of charged particles with matter.
4. Special Theory of Relativity: A dedicated chapter explains the relativistic formulation of electrodynamics.
5. Appendices for Reference: Helpful appendices cover units, vector calculus, fundamental constants, spherical harmonics, and Fourier transforms.
6. Problem-Solving Approach: The book aids in developing analytical skills through theoretical discussions and derivations.
Appendices Include:
1. Systems of units (SI, Gaussian)
2. Vector and tensor analysis
3. Fundamental physical constants
4. Spherical harmonics
5. Fourier transforms and delta functions
Why Choose This Book?
Classical Electrodynamics by S.P. Puri stands out due to its logical progression from basic concepts to advanced topics, making it suitable for both coursework and self-study. The inclusion of relativistic electrodynamics and modern applications ensures that readers gain a holistic understanding of the subject. The book’s clear explanations, coupled with mathematical appendices, make it an invaluable reference for anyone studying electromagnetic theory.
