Computational Modeling of Thermodynamical Pulsatile Flow with Uncertain Pressure in Hydrocephalus

Author:

Balasundaram Hemalatha1ORCID,Alessa Nazek2ORCID,Loganathan Karuppusamy3ORCID,Vijayalakshmi V.4,Goud Nayani Uday Ranjan5

Affiliation:

1. Vels Institute of Science, Technology and Advance Studies, Chennai 600117, Tamilnadu, India

2. Department of Mathematical Sciences, College of Sciences, Princess Nourah Bint Abdulrahman University, P.O. Box 84428, Riyadh 11671, Saudi Arabia

3. Department of Mathematics and Statistics, Manipal University Jaipur, Jaipur 303007, Rajasthan, India

4. Department of Science and Humanities, Karpagam Academy of Higher Education, Coimbatore 641021, Tamilnadu, India

5. Department of Aeronautical Engineering, MLR Institute of Technology, Hyderabad 500043, Telangana, India

Abstract

The watery cerebrospinal fluid that flows in the subarachnoid space (SAS) surrounds the entire central nervous system via symmetrical thermo-solute flow. The significance of this study was to present a flexible simulation based on theoretical vivo inputs onto a mathematical framework to describe the interaction of cerebrospinal fluid circulation restricted to a pathological disorder. The pathophysiology disorder hydrocephalus is caused by an enormous excess of asymmetric fluid flow in the ventricular region. This fluid imposition increases the void space of its boundary wall (Pia mater). As a result, the dumping effect affects an inertial force in brain tissues. A mathematical model was developed to impose the thermal dynamics of hydrocephalus, in which solute transport constitutes the excess watery CSF fluid caused by hydrocephalus, in order to demonstrate perspective changes in ventricular spaces. This paper investigated brain porous spaces in order to strengthen the acceleration and thermal requirements in the CNS mechanism. To characterize neurological activities, a unique mathematical model that includes hydrodynamics and nutrient transport diffusivity was used. We present the analytical results based on physical experiments that use the novel Laplace method to determine the nutrients transported through permeable pia (brain) parenchyma with suitable pulsatile boundary conditions. This causes high CSF pressure and brain damage due to heat flux over the SAS boundary wall. As a result of the increased Schmidt number, the analysis of the hydrocephalus problem revealed an increase in permeability and drop in solute transport. A high-velocity profile caused a rise in thermal buoyancy (Grashof number). When the CSF velocity reached an extreme level, it indicated a higher Womersley number. Additionally, the present study compared a number of clinical studies for CSF amplitude and pressure. We validated the results by providing a decent justification with the clinical studies by appropriate field references.

Funder

Princess Nourah Bint Abdulrahman University, Riyadh, Saudi Arabia

Publisher

MDPI AG

Subject

Physics and Astronomy (miscellaneous),General Mathematics,Chemistry (miscellaneous),Computer Science (miscellaneous)

Reference35 articles.

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2. Sathish, R., Qu, H., and Zakalik, K. (2015, January 1–4). Thermal measurement of cerebrospinal fluid flow rate in hydro-cephalus shunt. Proceedings of the 2015 IEEE SENSORS, Busan, Republic of Korea.

3. Anwar. Evaluation of the Shunt Check noninvasive thermal technique for shunt flow detection in hydro-cephalic patients;Balasundaram;Neurosurgery,2011

4. Measurement of flow of cerebrospinal fluid in shunts by transcutaneous thermal convection;Neff;J. Neurosurg. Pediatr.,2005

5. Thermodynamic Approach to Cerebrospinal Fluid Circulation;Herbowski;J. Neurol. Res.,2011

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