Unsteady Solute Dispersion in Jeffrey Blood Flow with the Effect of Stenosis

Introduction: The research aims to analyst the impact of the ratio of relaxation time, slip velocity and the relative height of stenosis towards the blood velocity and solute dispersion in the Jeffrey blood flow within a stenosed artery. Methods: Generalized Dispersion Model (GDM) is applied into the convective diffusion equation which is then solved to obtain solute concentration and dispersion function. Results and Discussion: When the relative stenosis height increases, there is a slight reduction in blood flow velocity. As time increases, the unsteady dispersion function contracts at the center and expands along the arterial wall. With an increases in the ratio of relaxation time, the dispersion function expands along the arterial wall and contracts at the center. Conclusion: The presence of the ratio of relaxation time in a stenosed artery can disrupt both blood velocity and the dispersion function. This research has the potential to predict drug delivery to specific stenosed regions, thereby enabling more precise and targeted medical treatment.

Authors

Publication Details

Journal
Malaysian Journal of Medicine and Health Sciences
Published
2025-05-15
DOI
https://doi.org/10.47836/mjmhs.21.s2.15
Primary Topic
Nanofluid Flow and Heat Transfer
Type
article
Field-Weighted Citation Impact
0.00

Funders

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article

Unsteady Solute Dispersion in Jeffrey Blood Flow with the Effect of Stenosis

Mallinath Dhange, Nurul Aini Jaafar, Ashril Yusof
Malaysian Journal of Medicine and Health Sciences
Nanofluid Flow and Heat Transfer
article

Unsteady Solute Dispersion in Jeffrey Blood Flow with the Effect of Stenosis

Mallinath Dhange, Nurul Aini Jaafar, Ashril Yusof
article en

Abstract

Introduction: The research aims to analyst the impact of the ratio of relaxation time, slip velocity and the relative height of stenosis towards the blood velocity and solute dispersion in the Jeffrey blood flow within a stenosed artery. Methods: Generalized Dispersion Model (GDM) is applied into the convective diffusion equation which is then solved to obtain solute concentration and dispersion function. Results and Discussion: When the relative stenosis height increases, there is a slight reduction in blood flow velocity. As time increases, the unsteady dispersion function contracts at the center and expands along the arterial wall. With an increases in the ratio of relaxation time, the dispersion function expands along the arterial wall and contracts at the center. Conclusion: The presence of the ratio of relaxation time in a stenosed artery can disrupt both blood velocity and the dispersion function. This research has the potential to predict drug delivery to specific stenosed regions, thereby enabling more precise and targeted medical treatment.

Malaysian Journal of Medicine and Health SciencesVol. 21(s2)
Ministry of Education, India, Universiti Teknologi Malaysia
Openalex Percentile: Top 68%
Nanofluid Flow and Heat Transfer
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