This book presents the fundamental aspects of classical electrodynamics and special relativity, focusing on the mathematical framework that underpins a coherent theory of electromagnetism. It prioritizes theoretical consistency while summarizing foundational and phenomenological aspects concisely, leaving more detailed discussions to introductory texts. The book provides a set of mathematical tools essential for addressing and solving common problems in the field.

It begins with a review of key mathematical techniques, including vector calculus, Green's theorem, and Dirac delta functions. The discussion then moves to electrostatics, covering Poisson's equation, Green's functions, the method of images, and multipole expansions. Solutions to Laplace's equation are explored in Cartesian, spherical, and cylindrical coordinates, both analytically and numerically. The treatment of electric currents and magnetostatics follows, introducing Ampère's law, the vector potential, and magnetic multipoles.

Maxwell's equations are then derived and applied to wave propagation, energy and momentum conservation, and gauge transformations. The final sections introduce special relativity, covering Lorentz transformations, four-vectors, and the covariant formulation of electrodynamics, concluding with an introduction to relativistic Lagrangian dynamics.

Each chapter includes exercises designed to reinforce students' understanding. This book is intended for advanced undergraduate and graduate students in physics. Readers are expected to have prior knowledge of algebra and electromagnetism.

Presents classical electrodynamics in a clear, concise manner without sacrificing rigor Introduces advanced mathematical techniques for solving electrodynamics problems not commonly found in standard texts Emphasizes practical problem-solving, including numerical methods for real-world applications

Autorentext

Luca Lista is a full professor at the University of Naples Federico II and the Director of the INFN Naples Unit. He is an experimental particle physicist and a member of the CMS collaboration at CERN. He has contributed to the BABAR experiment at SLAC and the L3 experiment at CERN. His primary research interests include data analysis, statistical methods in physics, and software development for scientific applications. He is also the author of Statistical Methods for Data Analysis (3rd edition, 2023), published by Springer.

Ninetta Saviano is a theoretical physicist specializing in astroparticle physics, cosmology, and neutrino phenomenology. Her research has contributed to the understanding of neutrino oscillations in high-density astrophysical and cosmological environments, as well as the possible existence of sterile neutrinos. She is also involved in studying primordial black holes, dark matter, and primordial gravitational waves. Currently, she holds a permanent research position at the National Institute for Nuclear Physics (INFN), Naples section.

Inhalt

Mathematical tools.- Electrostatic interactions.- Conductors and electrostatic boundary value problems.- Series expansions of potential solutions.- Laplace s equation in spherical
coordinates.- Laplace's equation in cylindrical.- Numerical solutions of Laplace s equation.- Multipole expansion of the electrostatic potential.- Electric currents.- Magnetic field.- Electric and magnetic fields in continuous media.- Electromagnetic induction and Maxwell s equations.- Electromagnetic waves.- Conservation laws in electrodynamics.- Special relativity.- Covariant Electrodynamics.- Relativistic Lagrangian dynamics.