Lectures related to Hemodynamics

Cardiovascular Regulation: Microcirculation and Blood Flow Control

Explores microcirculation control, blood flow regulation, and cardiovascular adaptation to exercise.

Data-Driven Modeling of Haemodynamics in Vascular Flows

Explores data-driven modeling of haemodynamics in vascular flows, focusing on computational challenges, reduced order modeling, FSI problems, and neural network applications.

Cardiovascular Regulation: Sympathetic and Parasympathetic Systems

Explores the regulation of the cardiovascular system, emphasizing the role of the sympathetic and parasympathetic systems and the intrinsic heart contractility.

Cardiovascular Regulation: Sympathetic and Parasympathetic Systems

Explores the regulation of the cardiovascular system, focusing on sympathetic and parasympathetic influences, cardiac cycle, and vascular resistance.

Physiology by Systems II: Capillary Filtration and Blood Flow Dynamics

Explores capillary filtration, blood flow dynamics, Reynolds number, stenosis detection, and vascular compliance.

Physiology: Systems Regulation

Delves into the intricate mechanisms of physiological regulation, including thermoregulation, surfactant production, and cardiovascular control.

Cardiovascular Regulation: Microcirculation and Blood Flow Control

Explores the control and regulation of the cardiovascular system, focusing on microcirculation and blood flow mechanisms.

Introduction to CV System: Blood Rheology

Covers hemodynamics, cardiovascular mechanics, blood rheology, arterial wall dynamics, and blood properties.

Cardiac Mechanics: Arterial Flow Modeling

Explores cardiac oxygen consumption, left ventricle mechanics, arterial flow modeling, and clinical applications.

Blood Distribution: Vascular Smooth Muscle

Discusses blood distribution, vascular structure, and smooth muscle regulation in the vascular system.

Cardiovascular Physiology: Blood Flow, Pressure, and Regulation

Explores blood flow, pressure, and regulation in the cardiovascular system, including heart contractility and electrical excitation.

ECG Hemodynamics Figure

Covers the analysis of ECG signals related to hemodynamics.

ECG: hemodynamics

Demonstrates measuring pressure wave in the radial artery using a Doppler device.

Turbulent Flow in Aortic Valve Prostheses

Delves into turbulent flow in aortic valve prostheses, discussing limitations, complications, thrombus formation, and computational challenges.

Pressure Transfer and Windkessel Models

Explores arterial wave analysis, transfer functions, and Windkessel models, emphasizing the significance of arterial compliance.

Cardiac Mechanics: Structure and Function

Explores the anatomy and function of the heart, covering cardiac circulation, electrical activity, and muscle biomechanics.

Fibrous Skeleton of the Heart

Explains the fibrous skeleton of the heart and its crucial role in heart function.

Heart Rate Variability: Regulation and Mechanisms

Explores heart rate variability regulation, arterial pressure propagation, and pressure application on arteries.

Renal Physiology: Systems II

Covers the major anatomical features of the heart, the cardiac conducting system, and the cardiac cycle during systole and diastole.

Cardiac mechanics II

Explores the pressure-volume relationship in the cardiac cycle and pump function graphs.