Helmut Wiedemann's textbook "Particle Accelerator Physics: Basic Principles and Linear Beam Dynamics" is a comprehensive introduction to the field of accelerator physics and beam dynamics. It covers the physics of particle accelerators and their applications in high energy physics and research. The book is designed for graduate students, engineers, and scientists, providing a broad overview and reference for the field. It includes many concepts and findings from internal notes and other sources, with theories formulated in a general way to apply to any charged particles. The text is divided into two volumes. The first volume is self-contained and provides an introductory survey of fundamental principles of particle acceleration, including linear beam dynamics in transverse and longitudinal phase space, magnetic focusing units, beam instabilities, and synchrotron radiation. The second volume delves deeper into higher order beam dynamics, Hamiltonian particle dynamics, perturbation theory, nonlinear beam optics, and collective beam instabilities. The book also discusses the interaction of particle beams with rf fields and beam loading effects, as well as the design and development of particle accelerators. The text is based on lecture notes from various institutions and includes contributions from students and colleagues. The author thanks those who contributed to the work and acknowledges the support from the Department of Energy. The book includes a detailed table of contents with chapters covering topics such as charged particles in electromagnetic fields, linear beam dynamics, periodic focusing systems, perturbations in beam dynamics, charged particle acceleration, synchrotron radiation, particle beam parameters, beam lifetime, collective phenomena, beam emittance and lattice design, and references. The book is a valuable resource for those interested in the physics of particle accelerators and beam dynamics.Helmut Wiedemann's textbook "Particle Accelerator Physics: Basic Principles and Linear Beam Dynamics" is a comprehensive introduction to the field of accelerator physics and beam dynamics. It covers the physics of particle accelerators and their applications in high energy physics and research. The book is designed for graduate students, engineers, and scientists, providing a broad overview and reference for the field. It includes many concepts and findings from internal notes and other sources, with theories formulated in a general way to apply to any charged particles. The text is divided into two volumes. The first volume is self-contained and provides an introductory survey of fundamental principles of particle acceleration, including linear beam dynamics in transverse and longitudinal phase space, magnetic focusing units, beam instabilities, and synchrotron radiation. The second volume delves deeper into higher order beam dynamics, Hamiltonian particle dynamics, perturbation theory, nonlinear beam optics, and collective beam instabilities. The book also discusses the interaction of particle beams with rf fields and beam loading effects, as well as the design and development of particle accelerators. The text is based on lecture notes from various institutions and includes contributions from students and colleagues. The author thanks those who contributed to the work and acknowledges the support from the Department of Energy. The book includes a detailed table of contents with chapters covering topics such as charged particles in electromagnetic fields, linear beam dynamics, periodic focusing systems, perturbations in beam dynamics, charged particle acceleration, synchrotron radiation, particle beam parameters, beam lifetime, collective phenomena, beam emittance and lattice design, and references. The book is a valuable resource for those interested in the physics of particle accelerators and beam dynamics.