The book "Heat Physical Properties of Hot Tight Plasma", written by outstanding scientists Werner Ebeling, Andreas Frster, Fort B. , Gryaznov V. and A. Polishchuk is a deep and comprehensive study of one of the most complex and exciting areas of modern physics - the thermal and physical characteristics of hot dense plasma. This book will be an indispensable source of knowledge for scientists, engineers and students seeking to understand the subtleties of plasma behavior in extreme conditions, as well as for those interested in the development of technologies in the field of thermonuclear fusion, astrophysics and energy. The author's team, united by rich experience and scientific expertise, created a work that not only systematizes existing knowledge, but also offers new approaches to the study of the thermophysical properties of plasma. The book deals in detail with the issues of heat exchange, thermal conductivity, heat capacity and other key parameters that determine the behavior of hot dense plasma in various conditions. Special attention is paid to modeling and experimental measurement methods, which makes the book a valuable tool for practical research and development of new technologies. "Thermal properties of hot dense plasma" is not just a collection of theoretical calculations In it, the authors masterfully reveal the complex physical processes occurring in plasma at high temperatures and densities, which allows the reader to feel the atmosphere of scientific discoveries and technological breakthroughs. A special place is occupied by the analysis of the influence of magnetic fields, particle interaction and energy flows on the thermophysical characteristics of the plasma, which makes the book relevant for specialists in the field of magnetic configuration in fusion reactors and space research. This book is ideal for undergraduate and graduate students specializing in plasma physics, as well as for engineers and scientists working in the development of thermonuclear installations and new generation energy systems. Its content is also interesting for those who are looking for practical solutions for modeling and controlling plasma processes, as well as for researchers involved in astrophysical phenomena, where the properties of hot plasma play a key role. The author's style is a unique combination of the rigor of scientific data and the availability of presentation, which makes the book understandable and exciting even for those who are just beginning to get acquainted with this complex topic. Werner Ebeling and his colleagues not only share the results of their research, but also inspire the reader to further discoveries, emphasizing the importance of interdisciplinary approaches and innovative methods in the study of plasma thermal physics. If you are looking for a book that will help you understand how hot, dense plasma behaves in extreme conditions, and want to expand your knowledge of the physical properties of substances at high temperatures, “Thermal Physical Properties of Hot, dense plasma” is exactly what you need. This book deserves a place in the library of everyone who is interested in advanced areas of science and technology, and will become a reliable assistant on the way to new discoveries in the field of plasma physics, energy and space research.