具有太阳辐射效应的水性铜纳米流体通过平板的MHD滞流

2区 工程技术 Q1 Earth and Planetary Sciences Journal of Petroleum Science and Engineering Pub Date : 2023-01-01 DOI:10.1016/j.petrol.2022.111148
Abdullah Dawar , Zahir Shah , Saeed Islam , Wejdan Deebani , Meshal Shutaywi
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引用次数: 6

摘要

由于许多生物和技术应用,包括微电子、热交换器、癌症治疗、过程工业、太阳能集热器和电力生产,研究人员对涉及纳米材料的传热机制更感兴趣。提高各种冷却流体导热性的现代方法是使用纳米材料。许多研究表明,纳米液体的热导率;固体纳米颗粒与基础流体相结合,表现出比传统流体更大的效果。本文对非牛顿纳米流体流过平板的磁流体力学滞止点流动进行了理论研究。本文重点介绍了太阳辐射在水基铜纳米颗粒中的应用。通过选取合适的相似性变量,将偏微分方程系统转化为偏微分方程系统。利用HAM技术对本文的分析进行了解析解。计算了物理因素对流动剖面、表面摩擦系数、热和传质率的影响。值得注意的是,在整个分析过程中,默认浓度的权重为4%。在此分析中,我们还研究了存在和不存在太阳辐射时的温度和传热率。研究发现,在没有磁场的情况下,水基铜纳米颗粒体积分数越大,流动曲线越快。然而,由于强磁场的存在,水基铜纳米粒子的速度和温度明显降低。由于洛伦兹力的作用,水基铜纳米粒子的速度变差,而温度分布增大。研究发现,太阳辐射对水基铜纳米粒子温度的影响始终占主导地位。
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MHD stagnation point flow of a water-based copper nanofluid past a flat plate with solar radiation effect

Due to many biological and technical applications, including microelectronics, heat exchangers, cancer therapy, process industries, solar collectors and power production, researchers have been more interested in the mechanism of heat transfer involving nanomaterials. A contemporary method to increase the thermal conductivity of various cooling fluids is the use of nanomaterials. Many researches suggest that the thermal conductivity of nanoliquids; solid nanoparticles combined with a base fluid, is expressively greater than that of conventional fluids. This work presents the theoretical investigation of magnetohydrodynamic stagnation point flow of non-Newtonian nanofluid flow past flat plate. The applications of solar radiation towards water-based copper nanoparticles are highlighted in this study. The system of PDEs is transmuted into the system of ODEs by mean of suitable similarity variable. Analytical solution of the present analysis has been performed with the help of HAM technique. The impacts of physical factors on the flow profiles, skin friction coefficient, heat, and mass transfer rates are calculated. It is significant to note that the default concentration is weighted by 4% throughout this analysis. Also in this analysis, we examined the temperature and heat transfer rate for the presence and absence of solar radiation. It is found that the greater nanoparticles volume fraction of the water-based copper nanoparticles has accelerated the flow profiles for the absence of magnetic field. However, for the presence of strong magnetic field, the velocity, and temperature of the water-based copper nanoparticles have significantly reduced. Due to the incidence of Lorentz force, the velocity of the water-based copper nanoparticles has deteriorated, while the temperature profile has augmented. It is found that the solar radiation has always dominant impression on temperature of the water based copper nanoparticles.

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来源期刊
Journal of Petroleum Science and Engineering
Journal of Petroleum Science and Engineering 工程技术-地球科学综合
CiteScore
11.30
自引率
0.00%
发文量
1511
审稿时长
13.5 months
期刊介绍: The objective of the Journal of Petroleum Science and Engineering is to bridge the gap between the engineering, the geology and the science of petroleum and natural gas by publishing explicitly written articles intelligible to scientists and engineers working in any field of petroleum engineering, natural gas engineering and petroleum (natural gas) geology. An attempt is made in all issues to balance the subject matter and to appeal to a broad readership. The Journal of Petroleum Science and Engineering covers the fields of petroleum (and natural gas) exploration, production and flow in its broadest possible sense. Topics include: origin and accumulation of petroleum and natural gas; petroleum geochemistry; reservoir engineering; reservoir simulation; rock mechanics; petrophysics; pore-level phenomena; well logging, testing and evaluation; mathematical modelling; enhanced oil and gas recovery; petroleum geology; compaction/diagenesis; petroleum economics; drilling and drilling fluids; thermodynamics and phase behavior; fluid mechanics; multi-phase flow in porous media; production engineering; formation evaluation; exploration methods; CO2 Sequestration in geological formations/sub-surface; management and development of unconventional resources such as heavy oil and bitumen, tight oil and liquid rich shales.
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