The beating heart creates blood pressure and flow pulsations that propagate as waves
through the arterial tree that are reflected at transitions in arterial geometry and elasticity …

This review paper addresses the so called geometric multiscale approach for the numerical
simulation of blood flow problems, from its origin (that we can collocate in the second half …

We present a systematic comparison of computational hemodynamics in arteries between a
one‐dimensional (1‐D) and a three‐dimensional (3‐D) formulation with deformable vessel …

A distributed model of the human arterial tree including all main systemic arteries coupled to
a heart model is developed. The one-dimensional (1-D) form of the momentum and …

Abstract One-dimensional (1D) modeling is a powerful tool for studying haemodynamics;
however, a comprehensive 1D model representing the entire cardiovascular system is …

Hæmodynamical simulations using one‐dimensional (1D) computational models exhibit
many of the features of the systemic circulation under normal and diseased conditions …

Arterial pulse waves (PWs) such as blood pressure and photoplethysmogram (PPG) signals
contain a wealth of information on the cardiovascular (CV) system that can be exploited to …

The shape of the arterial pulse wave is intimately related to the physical properties of the
cardiovascular system. Understanding the mechanisms underlying this relation is clinically …

While central (carotid-femoral) foot-to-foot pulse wave velocity (PWV) is considered to be the
gold standard for the estimation of aortic arterial stiffness, peripheral foot-to-foot PWV …

Background Cerebral hyperperfusion syndrome develops in a small subset of patients
following carotid artery surgery (CAS) performed to treat severe carotid artery stenosis. This …