A graduate-level text covering physical kinetics and non-equilibrium processes in statistical physics. Discusses transport equations, Boltzmann equation, plasma behavior, and relaxation processes. Part of the renowned Course of Theoretical Physics series.
A foundational advanced text in statistical physics covering classical and quantum statistical mechanics, thermodynamic systems, distribution functions, and phase transitions. Part of the Course of Theoretical Physics series, widely regarded as a core reference in theoretical physics.
A foundational graduate-level text presenting classical field theory within the framework of special relativity. Covers relativistic mechanics, electromagnetic field theory, energy-momentum tensors, and the covariant formulation of physical laws. Part of the renowned Course of Theoretical Physics series.
A classic monograph on charge transport in solids, focusing on current injection mechanisms, space-charge-limited currents, and theoretical models of conduction in insulating and semiconducting materials. Widely used in solid-state physics and electronic materials research.
A foundational graduate-level text in mathematical physics presenting rigorous methods for solving boundary value problems for partial differential equations. Widely regarded as a classic reference in analysis and applied mathematics.
A comprehensive graduate-level textbook covering the fundamental theory of solid state physics, including crystal structures, lattice vibrations, electron theory of solids, and quantum mechanical treatment of condensed matter systems.
A comprehensive textbook covering classical electromagnetics, including electrostatics, magnetostatics, electromagnetic waves, and transmission lines. Widely used in engineering and physics programs, known for its practical applications and clear explanations.
A classic advanced undergraduate/graduate-level text presenting the theory of electromagnetism within the framework of special relativity. Emphasizes physical insight into relativistic particle dynamics, Lorentz transformations, and covariant formulations of Maxwell’s equations.