Description
The book addresses the meaning of the systolic function and diastolic function, how these can best be measured and interpreted, both now and in the future. It also covers topics such as: cardiac mechanics, flow dynamics, vascular properties, neural control of cardiovascular systems and pharmacological interventions. The book is of particular interest to biophysicists, bioengineers, cardiovascular physiologists, and clinicians.
Chapter
Chapter 5: Coronary Flow and Perfusion Effects
Chapter 6: Restoring Forces
Chapter 7: Systolic and Diastolic Importance of Oblique Fiber Orientation in the Left Ventricle
Chapter 8: Ventricular Relaxation and Diastolic Filling
Chapter 9: The Influence of Ventricular Interdependence on Indices of Left Ventricular Function
Chapter 10: Diastolic Function from Transmitral Flow
Chapter 11: Left Atrial and Pulmonary Venous Flow Visualization by Phase Encoding Magnetic Resonance Imaging
Chapter 12: Application of Color Doppler M-Mode Echocardiography in the Assessment of Ventricular Diastolic Function
Chapter 13: Response of Left Ventricular Filling to Exercise before and after Heart Failure
Chapter 14: Indexing Left Ventricular Isovolumic Pressure Decay
Chapter 15: Diastolic P-V Relation, Myocardial Properties, and Ventricular Stiffness
Chapter 16: Calcium, Crossbridges, and Cellular Determinants of Relaxation
Chapter 17: Calcium Cycling Dependent and Independent Mechanisms of Relaxation in Mammalian Ventricular Myocardium
Chapter 18: How We View Systolic Function of the Heart: Emax and PVA 1994 CSDS Konrad Witzig Lecture
Chapter 19: From Crossbridge to Myocardium to Intact Heart
Chapter 20: Determinants of Force Development and Shortening Velocity in Cardiac Muscle
Chapter 21: Time Scale and Oscillatory Features of Left Ventricular Step Response Originate from Multiple-Step Crossbridge Cycle
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