用于低成本电力电子封装的聚合物厚膜(PTF)和柔性技术

A. B. Lostetter, Fred Barlow, A. Elshabini, K. Olejniczak, S. Ang
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引用次数: 21

摘要

电子电源转换器已经被大量设计、生产和传播,使用了许多制造技术,从低成本应用的标准PCB技术,到陶瓷上的厚膜,再到用于高功率、高成本应用的直接键合铜(DBC)。每种方法都在电源封装市场占有一定份额,但它们在很大程度上都将电路和封装设计限制在2D电路板上。进入第三维度的一个潜在途径是使用多层,这种方法在第一层之外每增加一层就变得越来越困难,而且除了高性能解决方案外,对于大多数应用来说通常成本过高。本文展示了另一种低成本电源封装方案的可行性和可行性,该方案以独特的方式使用熟悉的工业技术:柔性聚合物基板。Flex技术使用行业标准PCB和/或厚膜工艺,提供大多数聚合物塑料固有的更低成本,更高性能的解决方案,并且作为最终的奖励,使设计师能够更有效地使用所有三个维度。研究人员已经通过集成功率模块(ipm)的制造和测试证明了这种低成本替代解决方案的可行性,该模块使用柔性聚合物基板与表面贴装和裸晶片结合使用。这些DC/DC电源转换器将120v / 240v输入转换为9V, 7w输出,并充分利用柔性电路提供的三维空间,展示了小型化的优势。
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Polymer thick film (PTF) and flex technologies for low cost power electronics packaging
Electronic power converters have been designed, produced, and disseminated in mass quantities using a number of fabrication techniques, from standard PCB technologies for low cost applications, to thick film on ceramic, to direct bond copper (DBC) for high power, higher cost applications. Each approach holds a share of the power packaging market, but they all restrict, for the most part, circuit and package designs to 2D boards. One potential pathway into the third dimension is by the use of multilayers, an approach which becomes increasingly difficult with each additional layer added beyond the first, and with the exception of high performance solutions is typically cost prohibitive for the majority of applications. This paper demonstrates the feasibility and viability of an alternative low cost power packaging option which uses familiar industry technologies in a unique manner: flexible polymer substrates. Flex technology uses industry standard PCB and/or thick film processes, offers the lower cost, higher performance solutions inherent with the majority of polymer plastics, and as a final bonus, frees the designer to more efficiently use all three dimensions. The researchers have shown the feasibility of this low cost alternative solution through the fabrication and testing of integrated power modules (IPMs) which use flex polymer substrates in conjunction with both surface mount and bare dice. These DC/DC power converters transform 120 V/240 V inputs to 9V, 7 W outputs, and illustrate the miniaturization advantages of fully utilizing the 3D space offered by flex circuitry.
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