Study of chemically reactive and thermally radiative Casson nanofluid flow past a stretching sheet with a heat source. Issue 1 (12th September 2022)

• Record Type: Journal Article
• Authors: Biswal, Manasa Manjari; Swain, Kharabela; Dash, Gouranga Charan; Mishra, Swetapadma
• Is Part Of: Heat transfer. Volume 52:Issue 1(2023)
• Page Start: 333
• Page End: 353
• Publication Date: 2022-09-12
• Subjects: blood flow -- Casson nanofluid -- heat source -- homogeneous and heterogeneous chemical reactions -- stretching sheet -- thermal radiation; Heat -- Transmission -- Periodicals; Heat -- Transmission; Periodicals; 621.4022
• DOI: 10.1002/htj.22697
• Languages: English
• ISSNs: 2688-4534

Abstract

Abstract: Nanoparticle (NP) delivery is an exciting and rapidly developing field that adequately takes care of thermal radiation in blood flow and is likely to have bearing on the therapeutic procedure of hyperthermia, blood flow, and heat transfer in capillaries. The NP parameters such as size, shape, and surface characteristics can be regulated to improve nano‐drug delivery efficiency in biological systems. The NPs outperform traditional drug delivery processes in drug carrying capacity and controlled release. The current article investigates the boundary layer flow and heat transfer of thermally radiative Casson nanofluid (NF) over a stretching sheet with chemical reaction and internal heat source. In our study, Cu and Al2 O3 are taken as NPs in a suitable base fluid. The problem is analyzed by using similarity transformations and is solved with MATLAB's built‐in solver bvp4c. The effects of pertinent parameters characterizing the flow model are presented through graphs and tables. The important findings of the investigation are noted as: the use of metallic oxide is more beneficial to attain higher temperature within a few layers close to the bounding surface; the appearance of convexity and concavity in the concentration profile attributed to flow instability, and the constructive and destructive heterogeneous reactions at the bounding surface have distinct roles to modify the NF flow in the boundary layer.