The book "Numerical modeling of stationary electric and magnetic fields in electrophysical installations", written by a team of authors under the guidance of B. In. Alchikova is an important work that will become an indispensable tool for students, graduate students and specialists in the field of electrophysics and electrical engineering. This publication immerses the reader in the world of complex physical processes occurring in electrophysical installations, and offers an in-depth understanding of numerical modeling methods that allow for effective analysis and prediction of the behavior of electric and magnetic fields. The book covers a wide range of topics, ranging from the basics of electric and magnetic fields to modern methods of their numerical modeling. The authors pay special attention to stationary operating modes of installations, which makes the material especially relevant for those who are engaged in the design and optimization of electrophysical systems. The reader will be able to learn about various modeling approaches, including finite element and finite volume methods, as well as the software tools that are used to solve problems in this area. This book will be of interest not only to students of technical specialties, but also to practicing engineers working in the field of energy, electrical engineering and automation. It will be a useful resource for those who seek to deepen their knowledge in the field of numerical modeling and want to apply this knowledge in practice. If you are looking for literature that combines theory and practical aspects, then this edition is for you. The topics raised in the book cover important aspects, such as the interaction of electric and magnetic fields, the impact of the geometry of installations on their work and optimization methods. The authors focus on how numerical modeling can help in solving real engineering problems, which makes the book not only a theoretical manual, but also a practical guide. Readers will be able to see how models created using numerical methods can be used to predict the behavior of installations in different modes of operation, which is key to the successful design and operation of electrophysical systems. The style of the authors is distinguished by the clarity and accessibility of the presentation, which allows even complex concepts to be perceived easily and with interest. The book is enriched with examples, illustrations and practical tasks, which makes it not only a textbook, but also a fascinating reading for anyone interested in modern technologies and their application in real life. If you are looking for books on numerical modeling, electrophysics, electric and magnetic fields, then “numerical modeling of stationary electric and magnetic fields in electrophysical installations” will be a real find for you. This publication will help you not only to master the theoretical foundations, but also to learn how to apply them in practice, which is an important step in your professional career. Finally, book B. In. Alchikova and his colleagues is not just a textbook, but a real encyclopedia of knowledge for everyone who wants to understand the complex processes taking place in electrophysical installations. It opens up new horizons for the reader and inspires further research in this fascinating field of science and technology.