Category Biomedical Engineering Subcategory Contact Editor: Stern

The definitive bible for the field of biomedical engineering, this collection of volumes is a major reference for all practicing biomedical engineers and students. Now in its fourth edition, this work presents a substantial revision, with all sections updated to offer the latest research findings. New sections address drugs and devices, personalized medicine, and stem cell engineering. Also included is a historical overview as well as a special section on medical ethics. This set provides complete coverage of biomedical engineering fundamentals, medical devices and systems, computer applications in medicine, and molecular engineering.

Traditionally, applications of biomechanics will model system-level aspects of the human body. As a result, the majority of technological progress to date appears in system-level device development. More recently, biomechanical initiatives are investigating biological sub-systems such as tissues, cells, and molecules. Fueled by advances in experime

Biomechanics: Principles and Applications offers a definitive, comprehensive review of this rapidly growing field, including recent advancements made by biomedical engineers to the understanding of fundamental aspects of physiologic function in health, disease, and environmental extremes. The chapters, each by a recognized leader in the field, addr

This book on cardiac extracellular matrix (ECM) features three sections, Fundamental Science, Pre-Clinical and Translational Science, and Clinical Applications. In the Fundamental Science section, we will cover the spectrum of basic ECM science from ECM’s role in development, biomechanical properties, cardiac ECM influence of cardiomyocyte biology, pathophysiology of ECM in heart disease, and ECM in tissue engineering. Section two, Preclinical and Translational Science, will discuss cardiac ECM technologies in the clinical pipeline including approaches to ECM as a therapeutic, animal models of cardiac research, tracking and imaging methods of cardiac ECM, and cGMP manufacturing and regulatory considerations for ECM based therapeutics. Finally, the third section, Clinical Applications, will highlight the clinical experience around cardiac ECM including therapeutic strategies targeting scar tissue in the heart, Clinical trial design and regulatory considerations, current human clinical trials in cardiovascular medicine and the role of pharmaceutical and biotech companies in the commercialization of ECM technologies for cardiovascular indications. This book provides a comprehensive review for basic and translational researchers as well as clinical practitioners and those involved in commercialization, regulatory and entrepreneurial activities.

Known as the bible of biomedical engineering, The Biomedical Engineering Handbook, Fourth Edition, sets the standard against which all other references of this nature are measured. As such, it has served as a major resource for both skilled professionals and novices to biomedical engineering. Biomedical Engineering Fundamentals, the first volume of the handbook, presents material from respected scientists with diverse backgrounds in physiological systems, biomechanics, biomaterials, bioelectric phenomena, and neuroengineering. More than three dozen specific topics are examined, including cardiac biomechanics, the mechanics of blood vessels, cochlear mechanics, biodegradable biomaterials, soft tissue replacements, cellular biomechanics, neural engineering, electrical stimulation for paraplegia, and visual prostheses. The material is presented in a systematic manner and has been updated to reflect the latest applications and research findings.

Chapter 22: Crossbridge and Muscle Properties, Energetics, and Pressure-Volume Area -- Chapter 23: Constancy and Variability of Oxygen Costs of Mechanical Energy (PVA) and Contractility (Emax) -- Chapter 24: Tight Coupling between Regional Myocardial Oxygen Consumption and Contractile Function -- Chapter 25: Force-Frequency Relation, Force-Interval Relation, and Mechanical Restitution -- Chapter 26: Elastance-Based Mechanical Restitution Provides Data from the Intact Heart Not Available from Any Other Technique -- Chapter 27: Contractility Indices -- Chapter 28: Searching for Indices of Contractility Is Counterproductive -- Chapter 29: Rapid Contractile Upregulation Rematches Stroke Work to Increased Afterload Independent of Ventricular Geometry, Afterload-Related Coronary Perfusion Pressure Fluctuations and Baseline Contractile State -- Chapter 30: Wall Thickening, Shears, and Cleavage Planes -- Chapter 31: Mechanisms of Large Ventricular Wall Shortening and Thickening -- Chapter 32: Twisting, Torsion, and Other Shears -- Chapter 33: Ventricular Twist and Its Relationship to Pressure Volume and Shortening -- Chapter 34: Differences in Systolic and Diastolic Torsional Deformation of the Left Ventricle -- Chapter 35: Coronary Flow, Systolic Perfusion, and the "Gregg Phenomenon -- Chapter 36: Intramyocardial Hydraulic Regulation of Cardiac Mechanics and Energetics -- Chapter 37: Left Ventricular Afterload and Arterial Coupling -- Indexes -- Author Index -- Affiliation Index -- Subject Index