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Simulation of magnetic drug targeting for a branched artery-model with non-Newtonian flow behaviour of blood

K. Gitter , S. Odenbach

TU Dresden, Chair of Magnetofluiddynamics, Measuring and Automation Technology, 01062 Dresden, Germany

Abstract
The high targeting efficiency of magnetic drug targeting confirms it as a promising technique for tumour treatment. Since drug-loaded nanoparticles are concentrated within a target region due to the influence of a magnetic field, unwanted side effects are considerably reduced. In previous works, experiments with a half-Y-branched glass tube model as a model-system for a blood vessel supplying a tumour were performed. The results of those systematic quantitative measurements were summarized in novel drug-targeting maps. Based on the considered setup and artery-model, the current focus is a theoretical approach with a finite-element simulation of the flow behaviour within the artery-model. The media, into which the nanoparticles are injected, are modeled first as Newtonian fluid and further with a shear-thinning viscosity model that is closer to the real flow behaviour of blood. Figs 4, Refs 13.

Magnetohydrodynamics 49, No. 3/4, 541-545, 2013 [PDF, 0.43 Mb]

Copyright: Institute of Physics, University of Latvia
Electronic edition ISSN 1574-0579
Printed edition ISSN 0024-998X
DOI: http://doi.org/10.22364/mhd