用于电子产品的多维线板/烧结混合微型热管的实验研究

IF 1.7 4区 工程技术 Q3 MECHANICS
Marcia B. H. Mantelli, João V. C. Batista, Juan P. F. Mera
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引用次数: 0

摘要

本文介绍了有关新型二维和三维微型热管的实验研究,这些热管是为冷却印刷电路板中的电子元件而提出的。这些热管可以捕获电子元件的热量,并通过电路板之间的狭窄空间将热量传导至机柜壁。由于电子元件的位置和散热情况各不相同,因此对于需要在不同温度和方向下工作的复杂电子设备来说,需要多个不同的导热管。我们提出了一种混合灯芯结构,由烧结铜粉和沿设备的导线板技术组成。利用扩散接合制造技术,设计并制造了四种不同类型的混合微型热管,最多可分为三代。开发了两种不同的测试装置。首先,测试混合热管的热性能,从而选择合适的工作流体及其体积。其次,在模拟实际电子设备几何形状和运行条件的装置中进行测试。即使在重力作用下,几种混合多维热类型也能很好地工作。此外,目前的工作表明,迄今为止仅在学术研究中考虑过的线板式灯芯结构,能够产生非常灵活的热管,在一些不利的几何和重力条件下,特别是与烧结多孔介质等更传统的技术相结合时,能够轻松启动。此外,所开发的包括扩散粘接在内的制造工艺也可视为一项新技术。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Experimental study of multidimensional wire-plate/sintered hybrid mini heat pipes for electronics

Experimental study of multidimensional wire-plate/sintered hybrid mini heat pipes for electronics

The experimental study concerning new two and three dimensional mini heat pipes, proposed for cooling electronic components in printed circuit boards is presented. These heat pipes can capture the heat from electronic components and conduct it to the cabinet wall, through the narrow spaces available between boards. As the location and dissipation of the electronic components vary, several different heat pipes are necessary for a complex electronic equipment, which should operate at different temperatures and orientations. A hybrid wick structure, composed by sintered copper powder and wire-plate technologies along the device are proposed. Four different types of hybrid mini heat pipes, in up to three generations, were designed and constructed, using diffusion bonding fabrication technique. Two different testing setups were developed. First, the thermal performance of the hybrid heat pipes was accessed, resulting in the selection of the appropriated working fluid and its volume. Second, the devices were tested in rigs that mimic actual electronic equipment geometries and operational conditions. The several hybrid multidimensional heat types worked well, even against gravity. Besides, the present work shows that the wire-plate wick structure, up to this date considered only in academic studies, resulted in very flexible heat pipes, able to start up easily, in several adverse geometric and gravitational conditions, especially when combined with more conventional technologies, such as sintered porous media. Besides, the fabrication process developed that includes diffusion bonding, can be considered a novelty.

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来源期刊
Heat and Mass Transfer
Heat and Mass Transfer 工程技术-力学
CiteScore
4.80
自引率
4.50%
发文量
148
审稿时长
8.0 months
期刊介绍: This journal serves the circulation of new developments in the field of basic research of heat and mass transfer phenomena, as well as related material properties and their measurements. Thereby applications to engineering problems are promoted. The journal is the traditional "Wärme- und Stoffübertragung" which was changed to "Heat and Mass Transfer" back in 1995.
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