Already referred to as the "bible" of biomedical engineering, the third edition of The Biomedical Engineering Handbook is even more vast in its scope and depth than the previous two editions. Ranging from the theoretical to state-of-the-art applications, this edition includes so much new and updated material that it has expanded from two volumes into a three-volume set. The first volume, Biomedical Engineering Fundamentals, builds a strong foundation in the underlying concepts of biomedical engineering. It includes updated coverage of physiologic systems, bioelectric phenomena, biomechanics, biomaterials, physiologic modeling, and ethics. This book also includes a new section on neuroengineering.
Joseph D. Bronzino is an author and research scientist whose scholarly interests revolve around the interdisciplinary field of Biomedical Engineering. Although trained as an Engineer, Dr. Bronzino’s research activities have focused on how the brain works. Having written a number of texts on the various fields that constitute the discipline of Biomedical Engineering, Dr. Bronzino previously tought university courses discussing the evolution of medical technology, the economic impact of these applications and the moral dilemmas they pose for our society.
"Biomedical Engineering Fundamentals" provides a comprehensive overview of the field, covering a wide range of topics related to medical technology and engineering principles. The book begins by highlighting the historical advancements in medical technology, from the invention of the electrocardiograph to the development of blood banks and refrigeration technology. It then delves into various aspects of cardiovascular structure and function, kidney physiology, the nervous system, cardiac biomechanics, heart valve dynamics, the venous system, cellular biomechanics, exercise physiology, electrophysiology, membrane models, electrocardiography, neural engineering, and visual prostheses.
Authors present each topic in a concise and informative manner, providing essential background knowledge and explaining key concepts. The book covers the structure and function of major organs, such as the heart, kidney, and brain, as well as their role in physiological processes. It also explores the advancements in medical technology and engineering principles that have revolutionized diagnosis, treatment, and monitoring of patients.
One of the book's strengths is its focus on practical applications and advancements in the field. It discusses the use of biomedical engineering principles in developing medical devices that aid in patient diagnosis, treatment, and monitoring. Authors also addresse the challenges faced by engineers, such as the need for less invasive systems, rechargeable batteries, and user-friendly software to improve accessibility and reduce follow-up visits.
Although the book provides a comprehensive overview, it may be more suitable for readers with a basic understanding of biomedical engineering or related fields. The technical nature of some chapters might require readers to have prior knowledge in the subject matter. However, the clear writing style and organization of topics help make the information accessible.
In conclusion, "Biomedical Engineering Fundamentals" is a valuable resource for students, researchers, and professionals in the field of biomedical engineering. It covers a broad range of topics, from the fundamentals of physiology to the latest advancements in medical technology. The book's practical approach and emphasis on improving patient care make it a valuable reference for anyone interested in the intersection of engineering and medicine.