Pulsed High Beta Plasmas contains the proceedings of the Third Topical Conference on High Beta Plasmas held in Oxfordshire, UK, on September 9-12, 1975. The papers explore various aspects of pulsed high beta plasmas and cover topics such as reversed field pinches; mass flow stabilization of plasma confined by helical magnetic fields; cross-field instabilities in theta-pinch plasmas; and soft X-ray emitting plasma structures during the main neutron emission of plasma foci. Experimental observations of the self-reversal of a toroidal magnetic field in pinches are also presented. This book is comprised of 98 chapters and begins with a discussion on experimental results concerning a high beta stellarator, followed by a review of toroidal theta-pinch theory. The reader is then introduced to relaxation of toroidal discharges; equilibrium and stability of a diffuse high-beta Tokamak; spectroscopic studies of high beta plasma; and pulsed radiation from focused plasmas. Subsequent chapters explore the compression and kink instabilities of reversed field pinches; self-inductance changes in a plasma focus; interactions of high-energy plasma clusters with a longitudinal magnetic field; and electromagnetic implosion of large-diameter liners. The linear theta pinch as a 14-neutron source is also described. This monograph will be a valuable source of information for physicists.

Fusion, Volume I: Magnetic Confinement, Part B is the second of the two-part volume that covers the complexity and application of controlled magnetic fusion. This part is composed of nine chapters and begins with a description of the heating methods, equilibrium, and stability of linear magnetic fusion systems. The next chapters deal with the principles, configuration, and application of high-beta stellarator, fast-linear-compression fusion systems, and ELMO Bumpy torus, as well as the magnetic confinement of high-temperature plasmas. These topics are followed by discussions of the neutral-beam injection; the regimes of radio-frequency heating of magnetically confined plasma; and the performance requirements of magnetic fusion reactors. The final chapters describe the basic processes in the fusion-fission fuel factory and some basic considerations for advanced-fuel reactors. This book will be of great value to physicists, physics students, and researchers.

Fusion, Volume I: Magnetic Confinement, Part A is the first of the two-part volume that covers the complexity and application of controlled magnetic fusion. This book is divided into seven chapters and starts with a brief historical overview and some properties of controlled fusion. The subsequent chapters deal with the principles, thermodynamic stability, and configuration of Tokamak plasma. These topics are followed by discussions of the variations and application of stellarators; the concepts of mirror theory; and the establishment of the experimental basis of the mirror-confinement physics. The last chapter focuses on the principles, configuration, and application of the reversed-field pinch. This book will prove useful to physicists, physics students, and researchers.