用于高速光通信器件的倒装片键合技术的铅/铟焊料凸点形成

Haksoo Han, Hyunsoo Chung, Sungkook Park, Y. Joe, Sungsoon Park, Gwanchong Joo, N. Hwang, H. Lee, Kang Seungoo, Song Min-Kyu
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引用次数: 1

摘要

先进芯片技术的飞速发展对互连方法和工艺提出了极大的挑战,以实现增强的性能。我们成功地制造了倒装片键合互连技术的凸点焊及其回流工艺,取代了传统的线键合用于高速器件。以铅(Pb: 350/spl℃)和铟(In: 157/spl℃)为钎料包焊材料,采用热蒸发法沉积。焊点凸点沉积金属厚度在5/spl sim/6 /spl mu/m厚度范围内。为了提高倒装芯片键合技术的精度和可靠性,采用了约30 /spl μ m的3层厚光刻胶来控制凸点的沉积面积。它也被用于提离过程中多余的沉积金属焊料凸点。根据沉积面积和形状,回流过程中凸点高度控制在10/spl sim/40 /spl mu/m范围内。此外,沉积面积和形状也是凸点制作的重要参数之一。此外,还发现氧化的表面层对钎料凸点沉积金属的熔化温度升高有影响。在此过程中,PB/In (60:40 wt%)焊点的回流温度为230/spl±5/spl℃。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Pb/In solder bump formation for a flip-chip bonding technique at high speed optical communication devices
The increasing speed of advanced chip technologies has greatly challenged the interconnection methods and processes in order to achieve enhanced capability. We have successfully fabricated the solder bump and it's reflowing process for flip-chip bonding interconnection technique instead of conventional wire bonding for high speed devices. The lead (Pb: 350/spl deg/C) and the Indium (In: 157/spl deg/C) were used for solder bump and deposited by using thermal evaporation. The thickness of the deposited metal for solder bump was in the range of 5/spl sim/6 /spl mu/m thickness. Specially, to increase the accuracy and the reliability of the flip-chip bonding Technique, 3 layer thick photoresist about 30 /spl mu/m was used to control the deposition area for solder bump. It was also used for the lift-off process of excess deposited metal for solder bump. The height of solder bump through the reflowing process was controlled in the range of 10/spl sim/40 /spl mu/m according to the deposited area and shape. Also, the deposited area and shape was one of the most important parameters for solder bump fabrication. In addition, it was found that an oxidized surface layer effects on the increased melting temperature of deposited metal for solder bump. In this process, the reflowing temperature of PB/In (60:40 wt%) solder bumps was 230/spl plusmn/5/spl deg/C.
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