Heat transfer improvement using additive manufacturing technologies: a review

J. Byiringiro, M. Chaanaoui, M. Halimi, S. Vaudreuil
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Abstract

To provide a comprehensive review of additive manufacturing use in heat transfer improvement and to carry out the economic feasibility of additive manufacturing compared to conventional manufacturing. Heat transfer improvement is particularly interesting for different industrial sectors due to its economic, practical, and environmental benefits. Three heat transfer improvement techniques are used: active, passive, and compound.According to numerous studies on heat transfer enhancement devices, most configurations with strong heat transfer performance are geometrically complex. Thus, those configurations cannot be easily manufactured using conventional manufacturing. With additive manufacturing, almost any configuration can be manufactured, with the added benefit that the produced parts’ surface characteristics can enhance heat transfer. It can, however, lead to a significant pressure drop increase that will reduce the overall performance. In the given article, a comparison of the capital cost of a 100 MW parabolic trough power plant has been carried out, considering two types of solar receivers; the first is manufactured using conventional methods, and the second uses additive manufacturing. The heat transfer of the new receiver configuration is investigated using computational fluid dynamics through ANYS Fluent.Although the cost of additive manufacturing machines and materials is high compared to conventional manufacturing, the outcome revealed that the gain in efficiency when using additive-manufactured receivers leads to a reduction in the number of receiver tubes and the number of solar collectors needed in the solar field It implies a considerable reduction of parabolic trough collector plant capital cost, which is 20.7%. It can, therefore, be concluded that, even if initial setup expenses are higher, additive manufacturing could be more cost-effective than traditional manufacturing.With the reduction of the parabolic trough collector plant capital cost, the levelized cost of electricity will eventually be reduced, which will play a role in increasing the use of solar thermal energy.No review studies discuss the manufacturing potential and cost-effectiveness potential of additive manufacturing when producing heat transfer improvement equipment, especially when producing long pieces. In addition, the paper uses a novel receiver configuration to investigate the economic aspect.
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利用增材制造技术改善传热:综述
全面回顾增材制造在改善传热方面的应用,并与传统制造相比,进行增材制造的经济可行性。由于其经济、实用和环境效益,传热改进对不同的工业部门特别有趣。采用了三种传热改进技术:主动、被动和复合。根据对传热强化装置的大量研究,大多数具有强传热性能的结构在几何上是复杂的。因此,这些结构不能很容易地制造使用传统制造。使用增材制造,几乎可以制造任何结构,并且所生产零件的表面特性可以增强传热。然而,它可能导致压降显著增加,从而降低整体性能。在给定的文章中,考虑两种类型的太阳能接收器,对100兆瓦抛物面槽式发电厂的资本成本进行了比较;第一个是使用传统方法制造的,第二个是使用增材制造。利用计算流体动力学软件ANYS Fluent对新型换热器的传热特性进行了研究。尽管与传统制造相比,增材制造机器和材料的成本很高,但结果表明,使用增材制造接收器时效率的提高导致太阳能领域所需的接收器管数量和太阳能集热器数量的减少,这意味着抛物面槽集热器工厂的资本成本大幅降低,为20.7%。因此,可以得出结论,即使初始设置费用较高,增材制造也可能比传统制造更具成本效益。随着抛物线槽集热器厂资金成本的降低,电能的平准化成本最终会降低,这将起到增加太阳能热利用的作用。没有综述研究讨论增材制造在生产传热改善设备时的制造潜力和成本效益潜力,特别是在生产长件时。此外,本文还采用了一种新颖的接收器配置,从经济角度进行了研究。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Archives of materials science and engineering
Archives of materials science and engineering Materials Science-Materials Science (all)
CiteScore
2.90
自引率
0.00%
发文量
15
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