A two-fluid model consisting of a core region of suspension of all the erythrocytes (particles) in plasma (fluid) assumed to be a particle-fluid mixture and a peripheral layer of cell-free plasma (Newtonian fluid), has been proposed to represent blood flow in small diameter tubes. The analytical results obtained in the proposed model for effective viscosity, velocity profiles and flow rate have been evaluated numerically for various values of the parameters available from published works. Quantitative comparison has shown that present model suitability represents blood flow at hematocrit (less than or equal to 40%) and in vessels up to 70 micrometers in diameter. Using experimental values of the parameters, the flow rate for normal and dise...
The aim of this study was to provide scientists with a straightforward correlation that can be appli...
As an idealized problem of the motion of blood in small capillary blood vessels, the low Reynolds nu...
AbstractComputational modeling of blood flow in microvessels with internal diameter 20–500μm is a ma...
A two-fluid model consisting of a core region of suspension of all the erythrocytes (particles) in p...
The paper presents the two-phase model to describe blood flow in large and in small blood vessels. B...
The present paper deals with a mathematical model of blood flow through narrow circular tube. The mo...
In this paper, we study the blood flow through blood vessels of various radii (including the case of...
Understanding the physics of blood is challenging due to its nature as a suspension of soft particle...
Program year: 1975/1976Digitized from print original stored in HDRSince blood is the transport mediu...
AbstractThe peristaltic flow of blood in small vessels is investigated in the paper by developing a ...
AbstractThe problem of blood flow in a narrow catheterized artery has been investigated using a two-...
In the smallest capillaries, or in tubes with diameter D 8 µm, flowing red blood cells are well kno...
Blood is modeled as a suspension of red blood cells using the dissipative particle dynamics method. ...
This paper was presented at the 2nd Micro and Nano Flows Conference (MNF2009), which was held at Bru...
The earlier constitutive model of Fang & Owens (Biorheology, vol. 43, 2006, p. 637) and Owens (J. No...
The aim of this study was to provide scientists with a straightforward correlation that can be appli...
As an idealized problem of the motion of blood in small capillary blood vessels, the low Reynolds nu...
AbstractComputational modeling of blood flow in microvessels with internal diameter 20–500μm is a ma...
A two-fluid model consisting of a core region of suspension of all the erythrocytes (particles) in p...
The paper presents the two-phase model to describe blood flow in large and in small blood vessels. B...
The present paper deals with a mathematical model of blood flow through narrow circular tube. The mo...
In this paper, we study the blood flow through blood vessels of various radii (including the case of...
Understanding the physics of blood is challenging due to its nature as a suspension of soft particle...
Program year: 1975/1976Digitized from print original stored in HDRSince blood is the transport mediu...
AbstractThe peristaltic flow of blood in small vessels is investigated in the paper by developing a ...
AbstractThe problem of blood flow in a narrow catheterized artery has been investigated using a two-...
In the smallest capillaries, or in tubes with diameter D 8 µm, flowing red blood cells are well kno...
Blood is modeled as a suspension of red blood cells using the dissipative particle dynamics method. ...
This paper was presented at the 2nd Micro and Nano Flows Conference (MNF2009), which was held at Bru...
The earlier constitutive model of Fang & Owens (Biorheology, vol. 43, 2006, p. 637) and Owens (J. No...
The aim of this study was to provide scientists with a straightforward correlation that can be appli...
As an idealized problem of the motion of blood in small capillary blood vessels, the low Reynolds nu...
AbstractComputational modeling of blood flow in microvessels with internal diameter 20–500μm is a ma...