After yet another decade of leaming, experimenting, and inves tigating since my first book, Arterial System Dynamics, the many new medical breakthroughs and technological advances have inspired me to write this book to bridge the gap between basic research and clinical applications. The application of physical principles and quantitative approaches to the understanding of the arterial circulation and its interactions with the heart in normal and diseased conditions form the basis of The Arterial Circulation. Knowledge of the physiology and rheology of arteries, as well as all of their structural-functional corre lates, is a necessary prerequisite to the proper hemodynamic interpretatiqn of pressure-flow relations and the pulsatile transmis sion characteristics in different arteries. The natural coupling and interactions of the heart, the coronary circulation, and the arterial system necessitate analysis of alterations to global functioning. Modeling provides a tool for isolating and predicting parameter changes and is employed throughout the book. Experimental data are provided for model validations, and also for more realistic interpretations. Techniques and new methods for clinical hemo dynamic measurement and diagnosis are included to help the reader un derstand the physical principles underlying such abnormal cardiovascular functions as hypertension, stenosis, and myocardial ischemia. The progressive changes in vascular properties during aging are also discussed. Modem approaches utilizing computer mode ling and allomery are presented with selected examples, such as combined hypertension and aortic valve stenosis, and ventricular hypertrophy.
|Publisher:||Springer-Verlag New York, LLC|
|Edition description:||Softcover reprint of hardcover 1st ed. 2000|
|Product dimensions:||6.10(w) x 9.25(h) x 0.03(d)|
Table of ContentsChapter 1. INTRODUCTION. Historical View of Arterial Circulation. Recent Developments. Book Content. References. Chapter 2. PHYSIOLOGY AND RHEOLOGY OF ARTERIES. Anatomical and Structural Organization. Material Properties of the Arterial Wall: Elastin, Collagen, and Smooth Muscle Cells. Viscoelastic Properties of Blood Vessels. References. Chapter 3. THEORIES AND MODELS OF ARTERIAL CIRCULATION. Simple Windkessel Model of the Arterial System. Oscillatory Blood Flow in Arteries. Linear Theories of Blood Flow in Arteries. Analogy of Arterial Blood Flow to Transmission Line. Distributed and Reduced Arterial Tree Models. Nonlinear Aspects and Pressure-Dependent Arterial Compliance. References. Chapter 4. ARTERIAL PULSE TRANSMISSION CHARACTERISTICS. Pressure and Flow Waveforms in Large and Small Arteries. Vascular Impedance to Blood Flow. Pulse Propagation, Wave Velocity, and Damping. Pulse Wave Reflections and Reflection Sites. Pulse Transmission at Vascular Branching. Pulse Transmission to Vascular Beds. References. Chapter 5. HEMODYNAMIC MEASUREMENTS AND CLINICAL MONITORING. Invasive Blood Pressure Measurements. Noninvasive Blood Pressure Measurements. Blood Flow Measurements. Thermodilution Measurement of Cardiac Output. Vascular Ultrasound Dimension Measurement. References. Chapter 6. ARTERIAL CIRCULATION AND THE HEART. Coupling of Heart and Arterial System. Dynamic Heart-Arterial System Interactions and the Concept of Dynamic Arterial Compliance. Coronary Arterial Circulation. Hemodynamics and Modeling of Coronary Circulation. Myocardial Function and Arterial System Load. References. Chapter 7. NEW APPROACHES TO CLINICAL EVALUATIONS. Hypertension, Vascular Stiffness, and Arterial Compliance. Vascular Hemodynamics of Aging and Isolated Systolic Hypertension. Aortic Valve Stenosis and Arterial System Afterload on Left Ventricular Hypertrophy. Allometry and Its Diagnostic Applications. References. INDEX.