Potentials and Challenges of Additive Manufacturing Technologies for Heat Exchanger

U. Scheithauer, R. Kordass, K. Noack, M. Eichenauer, Mathias Hartmann, Johannes Abel, G. Ganzer, Daniel Lordick
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引用次数: 11

Abstract

Additional information available at the end of the chapter Abstract The rapid development of additive manufacturing (AM) technologies enables a radical paradigm shift in the construction of heat exchangers. In place of a layout limited to the use of planar or tubular starting materials, heat exchangers can now be optimized, reflecting their function and application in a particular environment. The complexity of form is no longer a restriction but a quality. Instead of brazing elements, resulting in rather inflexible standard components prone to leakages, with AM, we finally can create seam-less integrated and custom solutions from monolithic material. To address AM for heat exchangers we both focus on the processes, materials, and connections as well as on the construction abilities within certain modeling and simulation tools. AM is not the total loss of restrictions. Depending on the processes used, delicate constraints have to be considered. But on the other hand, we can access materials, which can operate in a much wider heat range. It is evident that conventional modeling techniques cannot match the requirements of a flexible and adaptive form finding. Instead, we exploit biomimetic and mathematical approaches with parametric modeling. This results in unseen configura-tions and pushes the limits of how we should think about heat exchangers today.
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换热器增材制造技术的潜力与挑战
摘要增材制造(AM)技术的快速发展使热交换器的结构发生了根本性的范式转变。取代局限于平面或管状起始材料的布局,热交换器现在可以进行优化,以反映其在特定环境中的功能和应用。形式的复杂性不再是一种限制,而是一种品质。而不是钎焊元件,导致相当不灵活的标准组件容易泄漏,通过增材制造,我们最终可以从单片材料中创建无缝集成和定制解决方案。为了解决热交换器的增材制造问题,我们既关注工艺、材料和连接,也关注某些建模和仿真工具中的施工能力。AM并不是完全没有限制。根据所使用的过程,必须考虑微妙的约束。但另一方面,我们可以接触到可以在更宽的热范围内工作的材料。很明显,传统的建模技术不能满足灵活和自适应的形式查找的要求。相反,我们利用仿生和数学方法与参数化建模。这导致了看不见的配置,并推动了我们今天应该如何思考热交换器的极限。
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Introductory Chapter: Heat Exchangers Thermal Performance of Shell and Tube Heat Exchanger Using PG/Water and Al2O3 Nanofluid Potentials and Challenges of Additive Manufacturing Technologies for Heat Exchanger Numerical Investigation of PCM Melting in a Finned Tube Thermal Storage Use of Heat Transfer Enhancement Techniques in the Design of Heat Exchangers
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