用氮化铝纳米流体增强波纹面台阶通道的传热-数值研究

IF 1.1 Q3 Engineering Journal of Thermal Engineering Pub Date : 2022-10-31 DOI:10.18186/thermal.1197106
Kafel Azeez, A. R. Abu Talib, Riyadh IBRAHEEM AHMED3
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引用次数: 4

摘要

本文对氮化铝(AlN)-水混合纳米流体在平面、后向台阶、三角形和梯形台阶四种不同通道的层流强制对流换热器中的强化传热进行了三维数值分析研究。数值研究了不同雷诺数(100≤Re≤1500)和不同固体纳米粒子体积分数(1%和4%)对传热和流体流动的影响。使用ANSYS Fluent CFD程序的层流模型进行数值分析,并使用有限体积法求解控制方程。结果表明,与基础流体相比,纳米流体的热导率随着纳米颗粒体积分数和雷诺数的增加而增加。同样,由于两个参数的增加,压降略有增加。高纳米颗粒体积分数(4%体积)纳米流体的使用对应于四种不同通道设计的使用,与梯形通道的纯水相比,导致传热增加约30%。
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Heat transfer enhancement for corrugated facing step channels using aluminium nitride nanofluid - numerical investigation
The present work carries out a three-dimensional numerical analysis study of Aluminium Nitride (AlN)-water hybrid nanofluid enhanced heat transfer in laminar forced convection flow heat exchanger with four different channels, flat, backward facing step, triangle and trapezoidal facing step channels. The influence of different Reynolds number (100≤ Re ≤1500) and different solid nanoparticles volume fraction (1% and 4%) on the heat transfer and fluid flow were numerically investigated. The numerical analysis was carried out by using a laminar model of ANSYS-Fluent CFD code and the governing equations were resolved using the finite volume method. The results indicate that the thermal conductivity of the nanofluids increases with the increase values of both the nanoparticles volume fractions and Reynolds number, compared with base fluids. Likewise, the pressure drop showed slightly increased due to the increased of both parameters. The use of high nanoparticles volume fractions (4% volume) nanofluid corresponded with the use of four different channel designs resulted in heat transfer augmentation about 30% when compared to that pure water for the trapezoidal channel.
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来源期刊
CiteScore
2.40
自引率
18.20%
发文量
61
审稿时长
4 weeks
期刊介绍: Journal of Thermal Enginering is aimed at giving a recognized platform to students, researchers, research scholars, teachers, authors and other professionals in the field of research in Thermal Engineering subjects, to publish their original and current research work to a wide, international audience. In order to achieve this goal, we will have applied for SCI-Expanded Index in 2021 after having an Impact Factor in 2020. The aim of the journal, published on behalf of Yildiz Technical University in Istanbul-Turkey, is to not only include actual, original and applied studies prepared on the sciences of heat transfer and thermodynamics, and contribute to the literature of engineering sciences on the national and international areas but also help the development of Mechanical Engineering. Engineers and academicians from disciplines of Power Plant Engineering, Energy Engineering, Building Services Engineering, HVAC Engineering, Solar Engineering, Wind Engineering, Nanoengineering, surface engineering, thin film technologies, and Computer Aided Engineering will be expected to benefit from this journal’s outputs.
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