Scholarlink

<p>Thermophoretic particle deposition in a mixed convective bioconvection nanofluid across an exponential stretching sheet embedding within a porous matrix is presented in this article. The analysis accounts for the thermal radiation and chemical reactions that are&#xa0;useful in various engineering and biological applications. The bioconvection for the movement of motile microorganisms significantly enriches heat and solutal transport phenomena. The proposed dimensional governing equations are re-framed to non-dimensional form by utilizing similarity rules which involve diversified factors. The nonlinear coupled transformed set of equations is handled numerically for the employment of the&#xa0;“<i>spectral quasilinearization method</i>” (SQLM) ensuring high accuracy and computational efficiency. The physical behaviour of the pertinent factors involved in the phenomena are discussed and presented in the discussion section. The results are compared with the existing literature showing good agreement and also provide the convergence of proposed methodology. The study reveals a promising application in biotechnological processes i.e., targeted drug delivery, environmental systems involving permeability i.e. groundwater remediation and filtration processes, industrial processes like polymer extrusion, etc. where the control of particle deposition are required.</p>

错误：搜索内容不能为空，请输入英文关键词
错误：关键词超出字数限制，请精简
高级检索

Thermophoretic particle deposition in a mixed convective bioconvection nanofluid with thermal radiation and chemical reaction over an exponential stretching sheet

  • 期刊论文

  • 发表日期：

    2025年3月9日

查看全文
  • Rupa Baithalu,
  • Folarin Oluwaseun,
  • Titilayo M. Agbaje,
  • S. R. Mishra,
  • Subhajit Panda

摘要

Thermophoretic particle deposition in a mixed convective bioconvection nanofluid across an exponential stretching sheet embedding within a porous matrix is presented in this article. The analysis accounts for the thermal radiation and chemical reactions that are useful in various engineering and biological applications. The bioconvection for the movement of motile microorganisms significantly enriches heat and solutal transport phenomena. The proposed dimensional governing equations are re-framed to non-dimensional form by utilizing similarity rules which involve diversified factors. The nonlinear coupled transformed set of equations is handled numerically for the employment of the “spectral quasilinearization method” (SQLM) ensuring high accuracy and computational efficiency. The physical behaviour of the pertinent factors involved in the phenomena are discussed and presented in the discussion section. The results are compared with the existing literature showing good agreement and also provide the convergence of proposed methodology. The study reveals a promising application in biotechnological processes i.e., targeted drug delivery, environmental systems involving permeability i.e. groundwater remediation and filtration processes, industrial processes like polymer extrusion, etc. where the control of particle deposition are required.