Development of Ultra-Thin Thermal Ground Plane with High Performance Electroplated Wick

Ian Hu, Hung-Hsien Huang, Po‐Cheng Huang, Jui-Cheng Yu, C.N. Liao, M. Shih, David Tamg, C. Hung
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引用次数: 1

Abstract

With continuously increased power and power density, heat pipe and vapor chamber are widely used for electrical device cooling. However, to integrate them into a package for more efficient thermal dissipation is the most critical topic for next generation semiconductor device cooling. Using electroplating process for forming micro-wick structure on the copper plate is the most reasonable process for package level thermal ground plane development, which could be directly produced on the copper clad laminate substrate. The dendritic copper wick resulting from electroplating has the benefit of high performance, gravity against ability, low cost, clean, fast process and the most important thing - using existing substrate manufacturing process. In this paper, different electroplating current density and process time are evaluated for forming pore and dendrite to be the wick. Capillary limit is the dominate factor for the performance of a thermal ground plane, which is proportional to the capillary performance index. The produced wick has the index up to 0.5 um, which is as good as the high performance sintered and composite wicks; the thermal ground plane produced by the electroplated wick has the potential to have high effective thermal conductivity.
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高性能电镀芯超薄热接平面的研制
随着功率和功率密度的不断提高,热管和蒸汽室被广泛用于电气设备的冷却。然而,将它们集成到封装中以提高散热效率是下一代半导体器件冷却的最关键主题。采用电镀工艺在铜板上形成微芯结构是封装级热地平面开发最合理的工艺,可以直接在覆铜层压板上生产。通过电镀得到的枝晶铜芯具有性能高、抗重力能力强、成本低、清洁、工艺快等优点,最重要的是可以使用现有的基板制造工艺。本文评价了不同的电镀电流密度和工艺时间对形成孔隙和枝晶形成灯芯的影响。毛细极限是影响热地平面性能的主要因素,它与毛细性能指标成正比。所生产的灯芯指标可达0.5 um,与高性能烧结、复合灯芯媲美;由电镀灯芯产生的热地平面具有具有高有效导热性的潜力。
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