EBSCO Logo
Connecting you to content on EBSCOhost
Results
Title

Influence of motile gyrotactic microorganisms over cylindrical geometry attached Cross fluid flow mathematical model.

Authors

Darvesh, Adil; Sánchez‐Chero, Manuel; Sánchez‐Chero, José Antonio; Hernández, Víctor Daniel Hijar; Guachilema, Milton Doroteo Cayambe; Reyna‐Gonzalez, Julissa Elizabeth

Abstract

The aim of this study is to examine the impact of motile gyrotactic microorganisms on three‐dimensional (3D) cylindrical geometry attached to a Cross‐fluid flow mathematical model. The motion of the microorganisms is assumed to be governed by gyrotaxis, which is the tendency of the organisms to orient and swim perpendicular to fluid flow gradients. The study will incorporate the effects of the Cross fluid flow model with infinite shear rate viscosity, 3D cylinder geometry, and microorganism behavior on the resulting distribution and concentration of the organisms. For the inspection of the velocity profile of the Cross nanofluid, the inclined magnetic field is scrutinized. The temperature of Cross nanofluid and its concentration is also studied with several facts. Mass flux and heat flux values for motile microorganisms and nanoparticles are calculated through statistical graphs. Brownian motion parameter gives a lower concentration of nanoparticles, about 81.19% and 77.53% reduction is found in the concentration of motile microorganisms. These results will provide insights into the behavior of these microorganisms in natural and engineered environments, as well as their potential applications in fields such as biotechnology, environmental science, and medicine.

Subjects

FLUID flow; HEAT flux; MATHEMATICAL models; GRAPHIC methods in statistics; MICROORGANISMS

Publication

Heat Transfer, 2023, Vol 52, Issue 6, p4293

ISSN

2688-4534

Publication type

Academic Journal

DOI

10.1002/htj.22870

EBSCO Connect | Privacy policy | Terms of use | Copyright | Manage my cookies
Journals | Subjects | Sitemap
© 2025 EBSCO Industries, Inc. All rights reserved