纳米流体在换热器中的换热性能研究进展

IF 1.1 Q3 Engineering Journal of Thermal Engineering Pub Date : 2023-01-27 DOI:10.18186/thermal.1243398
R. Barai, Devesh Kumar, A. Wankhade
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引用次数: 3

摘要

能源是任何国家经济发展的一个关键方面。提高传热性能,节约能源。纳米技术在优化热交换器方面发挥着关键作用。含有纳米颗粒的流体称为纳米流体。纳米流体比一般液体具有更高的导热性。本文概述了目前在纳米流体研究中的对流传热性能、热物理性质、粒径和体积浓度效应方面的研究。还包括早期研究人员用于确定热导率的测量方法和相关性。本文还着重介绍了纳米流体作为润滑剂和散热器系统的主要应用,以提高汽车发动机的废气去除效率。结果表明,使用较大粒径的颗粒会带来颗粒沉降、堵塞、侵蚀、稳定性和压降增加等缺点。以最佳体积浓度增强热导率。提高热交换系统的效率是降低能耗的可能途径之一。需要最佳浓度的纳米流体。随着纳米流体中纳米颗粒体积浓度的增加,稳定性、腐蚀和侵蚀等问题也随之出现。
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Heat transfer performance of nanofluids in heat exchanger: a review
Energy is a key aspect of any country’s economic development. Improving heat transfer performance leads to saving energy. Nanotechnology has a key role to play in optimizing heat exchangers. Fluids containing nanosized particles are called nanofluids. Nanofluids have higher thermal conductivity than typical liquids. This paper outlines current research on convective heat transfer performance, thermophysical properties, particle size, and volume concentration effects in nanofluid studies. M easurement m ethods f ort h ermal conductivity and correlations used by earlier researchers to determine thermal conductivity are also encompassed. The main applications of nanofluids as liibricants a nd radiator systems to improve the efficiency of he at removal fr om ve hicle en gines ha ve al so be en emphasized. Results suggest that by using a larger size of particle some drawbacks include particle sedimentation, clogging, erosion, stability, and increasing pressure drop. Enhancing thermal conductivity with optimum volume concentration. Improving the efficiency of heat exchange systems is one of the possible ways to reduce energy consumption. The need for optimum concentration of nanofluids is required. The Problem of stability, corrosion, and erosion arrived by increasing the volume concentration of nanoparticles in a nanofluid.
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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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