Abstract Behind Medicine (M) is Physiology (P), behind Physiology is Physics (P) and
behind Physics is always Mathematics (M), for which I expect that the symmetry of the …

A hydraulic model of the intracranial compartments is used to analyze the quantitative
contribution of various factors to vasogenic brain edema. These factors include osmotic and …

We present a global, closed‐loop, multiscale mathematical model for the human circulation
including the arterial system, the venous system, the heart, the pulmonary circulation and the …

OBJECTIVE: The cerebrovascular bed and cerebrospinal fluid circulation have been
modeled extensively except for the cerebral venous outflow, which is the object of this study …

We quantify the effect of internal-jugular vein function on intracranial venous
haemodynamics, with particular attention paid to venous reflux and intracranial venous …

We developed a mathematical model of the cerebral venous outflow for the simulation of the
average blood flows and pressures in the main drainage vessels of the brain. The main …

Here we extend the global, closed-loop, mathematical model for the cardiovascular system
in Müller and Toro (2014) to account for fundamental mechanisms affecting cerebral venous …

This chapter does not intent to detail morphological anatomy, descriptive radiology and
physiology of the Intracranial Venous System (IVS). Basic knowledge can be obtained by …

This paper presents a mathematical model of the global, arterio‐venous circulation in the
entire human body, coupled to a refined description of the cerebrospinal fluid (CSF) …

This article discusses the biophysical aspects of venous outflow from the brain in healthy
individuals and in patients with chronic cerebrospinal venous insufficiency. Blood flows out …