biomedical engineering principles [book review]

1
80 Paul H. King IEEE ENGINEERING IN MEDICINE AND BIOLOGY MAGAZINE SEPTEMBER/OCTOBER 2006 Book Reviews Biomedical Engineering Principles Arthur B. Ritter, Stanley Reisman, and Bozena B. Michniak, CRC Press, Taylor and Francis Group, 2005. ISBN: 0824796160, 680 pages, US$99.95. This book serves as an introduction to the field of biomedical engineering for students with undergraduate train- ing in engineering, physics, and mathe- matics. This book can be used for senior- or graduate-level classes at uni- versities, for short courses, or as a gen- eral knowledge book for practicing engineers wanting to learn more about biomedical engineering. The classic description of biomed- ical engineering is that it is the appli- cation of engineering analysis to problems in medicine and life sci- ences. Biomedical engineering is not one discipline but several interacting disciplines that coexist within the same field. Since biomedical engi- neering cuts across several engineer- ing disciplines, the book is divided into several sections. Each section is intended to be complementary and to serve as a background for students or practitioners whose prior training has not included this material. The first section addresses model- ing, transport processes, cell physiol- ogy, and the cardiovascular system. Chapter 1 presents an overview and introduction to engineering analysis of physiological systems, the nature of biological data, and the role of models and simulation in experimen- tal design. The chapter introduces the concepts of conservation of mass, compartments, convection, and diffu- sion. It also develops pharmacokinetic models for drug distribution. Chapter 2 covers cell physiology and trans- port, introducing the primary mecha- nisms by which water and solutes get into and out of cells. Chapter 3 covers the fundamentals of hemodynamics and the nature of blood and blood vessels as engineering materials. Chapter 4 is an introduction to the cardiovascular system, covering the cardiac conduction pathway, control of heart rate, EKG measurement and interpretation, cardiac output, cardiac work, and autonomic and local regu- lation of blood flow. The second section of the book reviews the concepts of biomedical signal processing. Chapter 5 discusses biomedical signals and how to repre- sent them. The frequency content of a signal, periodic functions, and Fourier series are reviewed. Chapter 6 dis- cusses signal acquisition and process- ing. Topics include sampling theorem, sampling rate, and aliasing. Chapter 7 discusses techniques for physiological signal processing. Topics include AR modeling, time-frequency analysis, short-time Fourier transforms, and quadratic distributions. Chapter 8 contains examples of physiological signal processing. The third section of the book contains an introduction to and practical applica- tions of biomechanics. Chapter 9 is an introduction to the principles of biome- chanics and discusses the analysis of human movement, human dynamics, measurements of muscle force, electri- cal stimulation of skeletal muscle, mechanical characteristics of biological materials, bone remodeling, body cycles, thermal regulation, and hypothermia. Chapter 10 contains a dis- cussion of some practical applications of biomechanics, using the principles developed in Chapter 9. The fourth section of the book pre- sents an introduction to tissue engineer- ing. Chapter 11 covers the history of tissue engineering, materials, biological interactions, and the role of cells in tis- sue engineering. Applications of tissue engineering in skin equivalents, cardio- vascular components, bone regrowth, muscle tissue, and nerve regeneration are also discussed. Chapter 12 looks at future developments in biomedical engineering. For university faculty, the book is an excellent textbook for a class. Each chapter contains numerous examples and contains many figures to enhance learning. References and suggestions for further reading are included at the end of each chapter. Problems are included at the end of chapters, where they will best test the student's knowledge. For practicing engineers without a biomedical engineering background, the book provides an excellent resource to explain the many intricacies of biomed- ical engineering and provides sufficient background material to make the sub- ject understandable. Richard C. Fries, PE, CRE Baxter Healthcare, Inc. Biomedical engineering is not one discipline but several interacting disciplines that coexist within the same field.

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Page 1: Biomedical Engineering Principles [Book Review]

80

Paul H. King

IEEE ENGINEERING IN MEDICINE AND BIOLOGY MAGAZINE SEPTEMBER/OCTOBER 2006

Book Reviews

Biomedical Engineering PrinciplesArthur B. Ritter, Stanley Reisman,and Bozena B. Michniak, CRC Press,Taylor and Francis Group, 2005.ISBN: 0824796160, 680 pages,US$99.95.

This book serves as an introductionto the field of biomedical engineeringfor students with undergraduate train-ing in engineering, physics, and mathe-matics. This book can be used forsenior- or graduate-level classes at uni-versities, for short courses, or as a gen-eral knowledge book for practicingengineers wanting to learn more aboutbiomedical engineering.

The classic description of biomed-ical engineering is that it is the appli-cation of engineering analysis toproblems in medicine and life sci-ences. Biomedical engineering is notone discipline but several interactingdisciplines that coexist within thesame field. Since biomedical engi-neering cuts across several engineer-ing disciplines, the book is dividedinto several sections. Each section isintended to be complementary and toserve as a background for students orpractitioners whose prior training hasnot included this material.

The first section addresses model-ing, transport processes, cell physiol-ogy, and the cardiovascular system.Chapter 1 presents an overview andintroduction to engineering analysisof physiological systems, the natureof biological data, and the role ofmodels and simulation in experimen-tal design. The chapter introduces theconcepts of conservation of mass,compartments, convection, and diffu-sion. It also develops pharmacokineticmodels for drug distribution. Chapter2 covers cell physiology and trans-port, introducing the primary mecha-

nisms by which water and solutes getinto and out of cells. Chapter 3 coversthe fundamentals of hemodynamicsand the nature of blood and bloodvessels as engineering materials.Chapter 4 is an introduction to thecardiovascular system, covering thecardiac conduction pathway, controlof heart rate, EKG measurement andinterpretation, cardiac output, cardiacwork, and autonomic and local regu-lation of blood flow.

The second section of the bookreviews the concepts of biomedicalsignal processing. Chapter 5 discussesbiomedical signals and how to repre-sent them. The frequency content of asignal, periodic functions, and Fourierseries are reviewed. Chapter 6 dis-cusses signal acquisition and process-ing. Topics include sampling theorem,sampling rate, and aliasing. Chapter 7discusses techniques for physiologicalsignal processing. Topics include ARmodeling, time-frequency analysis,short-time Fourier transforms, andquadratic distributions. Chapter 8contains examples of physiologicalsignal processing.

The third section of the book containsan introduction to and practical applica-tions of biomechanics. Chapter 9 is anintroduction to the principles of biome-chanics and discusses the analysis ofhuman movement, human dynamics,measurements of muscle force, electri-cal stimulation of skeletal muscle,mechanical characteristics of biologicalmaterials, bone remodeling, bodycycles, thermal regulation, andhypothermia. Chapter 10 contains a dis-cussion of some practical applicationsof biomechanics, using the principlesdeveloped in Chapter 9.

The fourth section of the book pre-sents an introduction to tissue engineer-ing. Chapter 11 covers the history oftissue engineering, materials, biologicalinteractions, and the role of cells in tis-sue engineering. Applications of tissueengineering in skin equivalents, cardio-vascular components, bone regrowth,muscle tissue, and nerve regenerationare also discussed. Chapter 12 looks atfuture developments in biomedicalengineering.

For university faculty, the book isan excellent textbook for a class.Each chapter contains numerousexamples and contains many figuresto enhance learning. References andsuggestions for further reading areincluded at the end of each chapter.Problems are included at the end ofchapters, where they will best test thestudent's knowledge.

For practicing engineers without abiomedical engineering background, thebook provides an excellent resource toexplain the many intricacies of biomed-ical engineering and provides sufficientbackground material to make the sub-ject understandable.

Richard C. Fries, PE, CREBaxter Healthcare, Inc.

Biomedical

engineering is not one

discipline but several

interacting disciplines

that coexist within the

same field.