Papers
1
Total Citations
10
H-Index
1
About
D. Murugan’s research lies at the intersection of fluid dynamics, biomedical engineering, and applied electromagnetism. His work focuses on understanding how pulsatile flow of non-Newtonian fluids—specifically Casson fluids, which model blood—behaves in confined geometries under the influence of external fields. His most-cited paper, “Tracer Dispersion due to Pulsatile Casson Fluid Flow in a Circular Tube with Chemical Reaction Modulated by Externally Applied Electromagnetic Fields” (2022, 10 citations), introduces a sophisticated theoretical framework that couples magnetohydrodynamic effects with chemical reaction kinetics. This contribution is particularly valuable for designing drug delivery systems and microfluidic devices where precise control of solute dispersion is critical. By modeling how electromagnetic fields can modulate tracer spread in pulsatile flows, Murugan provides a foundation for optimizing targeted therapies and enhancing diagnostic imaging techniques. His work demonstrates a keen ability to bridge complex mathematical modeling with real-world biomedical applications, offering insights that could improve the efficiency of treatments like magnetic drug targeting. For students and researchers, Murugan’s research exemplifies how classical fluid mechanics can be innovatively applied to solve modern challenges in healthcare and biotechnology.
Research Focus
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Top Papers
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