An Updated Review on Improving Radiator Efficiency Using Nanofluid Coolants

IF 0.6 4区 化学 Q4 CHEMISTRY, APPLIED Russian Journal of Applied Chemistry Pub Date : 2024-06-06 DOI:10.1134/S1070427224010075
Baqir Sabah Nuri, Hasan I. Dawood, Suzanne Alsamaq
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Abstract

The automotive industry is always looking for new and creative ways to boost a car’s performance and efficiency. In order to maintain optimal engine performance and avoid overheating, which can result in mechanical problems and decreased fuel efficiency, efficient heat dissipation is essential. Because of their improved heat transmission capabilities, nanofluid suspension fluids with nanoscale particles have become a viable substitute for conventional coolants in car radiators. This paper examines practically all of the studies that have been conducted in this field that are available in the literature. The author collects information on nanoparticle materials and sizes, as well as the volume, basefluid, concentration, Reynolds number (Re) and Nusselt number (Nu) employed in investigations. The nanofluid concentration often used in car radiators generally varies from 0.01 to 5%. The extent of this range might fluctuate based on the particular application and the nature of the nanoparticles used. Generally, higher nanoparticle concentrations result in a more pronounced enhancement in heat transfer and an increased need for pumping power. Utilizing nanofluids results in a decrease in the energy consumption related to pumping due to the enhanced heat conduction capability of nanofluids.

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使用纳米流体冷却剂提高散热器效率的最新综述
汽车工业一直在寻找新的和创造性的方法来提高汽车的性能和效率。为了保持最佳的发动机性能,避免过热,这可能导致机械问题和燃油效率下降,有效的散热是必不可少的。由于纳米流体悬浮液具有更好的传热能力,纳米级颗粒的纳米流体悬浮液已成为汽车散热器中传统冷却剂的可行替代品。本文几乎考察了所有在这一领域进行的研究,这些研究在文献中是可用的。作者收集了纳米颗粒材料和尺寸的信息,以及研究中使用的体积、基流体、浓度、雷诺数(Re)和努塞尔数(Nu)。汽车散热器中常用的纳米流体浓度一般在0.01 ~ 5%之间。这个范围的范围可能会根据特定的应用和所使用的纳米颗粒的性质而波动。一般来说,更高的纳米颗粒浓度会导致更明显的传热增强和对泵送功率的需求增加。由于纳米流体的热传导能力增强,利用纳米流体可以降低与泵送相关的能耗。
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来源期刊
CiteScore
1.60
自引率
11.10%
发文量
63
审稿时长
2-4 weeks
期刊介绍: Russian Journal of Applied Chemistry (Zhurnal prikladnoi khimii) was founded in 1928. It covers all application problems of modern chemistry, including the structure of inorganic and organic compounds, kinetics and mechanisms of chemical reactions, problems of chemical processes and apparatus, borderline problems of chemistry, and applied research.
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