This review outlines some of the different scales involved in computationally modelling arterial networks. Starting at the largest O(1m) scale we highlight current activities in reduced modelling of the pulse waves. We then focus on the O(10-1 m) scale and provide an example of how CFD can be applied to understand the role of mixing in small amplitude helical pipes at physiologically relevant flow conditions. Finally we motivate the interaction at O(10-3 m) scale by considering how localised flow features are suggestive of different types of arterial disease patterns
The blood flow in arterial trees in the cardiovascular system can be simulated with the help of diff...
We focus on the arterial fluid mechanics of patient-specific computer modeling of blood flow in the ...
Key Words: Cardiovascular system, fluid-structure interaction, geometrical multiscale modeling, mass...
Abstract. Blood dynamics in cardiovascular system involve length scales in vastly different ranges, ...
In this paper we show how numerical solutions of human cardiovascular system may be devised by coupl...
Several models exist for the simulation of vascular flows; they span from simple circuit models to f...
Abstract. A prototype, multi-scale, computational hemodynamic model is presented. Applications to ao...
One-dimensional (1D) modeling is a powerful tool for studying haemodynamics; however, a comprehensiv...
Thesis (MIng (Mechanical Engineering))--North-West University, Potchefstroom Campus, 2012.The purpos...
Arterial tree hemodynamics can be simulated by means of several models of different level of complex...
The aim of the present work is to address the closure problem for hemodynamic simulations by develop...
We present a multi-model computational approach to modeling cardiovascular system dynamics in differ...
AbstractIt is now widely recognized that changes in arterial wall properties have a significant impa...
The blood flow in arterial trees in the cardiovascular system can be simulated with the help of diff...
1. Full-scale simulations of the virtual physiological human (VPH) will require significant advances...
The blood flow in arterial trees in the cardiovascular system can be simulated with the help of diff...
We focus on the arterial fluid mechanics of patient-specific computer modeling of blood flow in the ...
Key Words: Cardiovascular system, fluid-structure interaction, geometrical multiscale modeling, mass...
Abstract. Blood dynamics in cardiovascular system involve length scales in vastly different ranges, ...
In this paper we show how numerical solutions of human cardiovascular system may be devised by coupl...
Several models exist for the simulation of vascular flows; they span from simple circuit models to f...
Abstract. A prototype, multi-scale, computational hemodynamic model is presented. Applications to ao...
One-dimensional (1D) modeling is a powerful tool for studying haemodynamics; however, a comprehensiv...
Thesis (MIng (Mechanical Engineering))--North-West University, Potchefstroom Campus, 2012.The purpos...
Arterial tree hemodynamics can be simulated by means of several models of different level of complex...
The aim of the present work is to address the closure problem for hemodynamic simulations by develop...
We present a multi-model computational approach to modeling cardiovascular system dynamics in differ...
AbstractIt is now widely recognized that changes in arterial wall properties have a significant impa...
The blood flow in arterial trees in the cardiovascular system can be simulated with the help of diff...
1. Full-scale simulations of the virtual physiological human (VPH) will require significant advances...
The blood flow in arterial trees in the cardiovascular system can be simulated with the help of diff...
We focus on the arterial fluid mechanics of patient-specific computer modeling of blood flow in the ...
Key Words: Cardiovascular system, fluid-structure interaction, geometrical multiscale modeling, mass...