高介电常数绝缘体在WSI和晶圆级混合多芯片模块中的旁路电容应用

R. Philhower, J. Van Etten, K. Nah, C.J. Loy, C. Maier, P. Campbell, H.J. Grueb, P. Li, W. Liu, T. Lu, J. McDonald
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引用次数: 0

摘要

探讨了晶圆级集成(WSI)和基于晶圆级混合封装/多芯片模块(WSHP/MCM)的系统在最先进的开关速度下运行的异常大量的旁路电容要求。所需的电容可能比简单地制造薄氧化金属板电容器所能获得的电容大得多,除非所采用的电路采用显示较少开关噪声的替代设计风格。选取旁路电容值的一些标准,以及将高介电常数材料引入半导体衬底加工的技术进行了研究。探讨了利用离子束束技术在低温下沉积非晶BaTiO/ sub3 /薄层以形成可靠的无针孔旁路电容介质的可能性。在金属和半导体衬底上沉积非晶材料是可能的
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Use of high dielectric constant insulators for bypass capacitance in WSI and wafer scale hybrid multichip modules
The exceptionally large amounts of bypass-capacitance requirements of wafer scale integration (WSI) and wafer scale hybrid packaging/multichip module (WSHP/MCM) based systems operating at state-of-the-art switching speeds are explored. The capacitance required may become considerably larger than can be obtained by simply making thin-oxide-metal-plate capacitors unless alternate design styles which exhibit less switching noise are adopted for the circuits employed. Some of the criteria for picking the value of the bypass capacitance are examined, together with techniques for introducing high-dielectric-constant materials into the processing of the semiconductor substrates. The possibility of depositing thin layers of amorphous BaTiO/sub 3/ at low temperature to form a reliable, pin-hole free dielectric for bypass capacitance by use of ionized cluster beam techniques is explored. Deposition of the amorphous material on both metal and semiconductor substrates is possible.<>
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