Three-dimensional wafer stacking using Cu TSV integrated with 45nm high performance SOI-CMOS embedded DRAM technology

P. Batra, D. LaTulipe, S. Skordas, K. Winstel, C. Kothandaraman, B. Himmel, G. Maier, B. He, Deepal Wehella Gamage, J. Golz, Wei Lin, T. Vo, D. Priyadarshini, A. Hubbard, Kristian Cauffman, B. Peethala, J. Barth, T. Kirihata, T. Graves-abe, N. Robson, S. Iyer
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引用次数: 30

Abstract

For high-volume production of 3D-stacked chips with through-silicon-via (TSVs), wafer-scale bonding offers lower production cost compared with bump bond technology [1][2][3] and is promising for interconnect pitch <;= 5μ range using available tooling. Prior work [3] has presented wafer-scale integration with tungsten TSV for low-power applications. This paper reports the first use of low-temperature oxide bonding and copper TSV to stack high performance cache cores manufactured in 45nm SOI-CMOS embedded DRAM (EDRAM) having 12 to 13 copper wiring levels per strata. A key feature of this process is its compatibility with the existing high performance POWER7™ EDRAM core [4] requiring neither re-design nor modification of the existing CMOS fabrication process. Hardware measurements show no significant impact on device drive and off-current. Functional test at wafer level confirms 1.48GHz 3D stacked EDRAM operation.
三维晶圆堆叠采用Cu TSV集成45纳米高性能SOI-CMOS嵌入式DRAM技术
对于通过硅通孔(tsv)的3d堆叠芯片的大批量生产,与凹凸键合技术相比,晶圆级键合提供了更低的生产成本[1][2][3],并且在使用可用工具的情况下,有望实现互连间距<;= 5μ范围。先前的工作[3]已经提出了用于低功耗应用的钨TSV的晶圆级集成。本文报道了首次使用低温氧化物键合和铜TSV来堆叠由45纳米SOI-CMOS嵌入式DRAM (EDRAM)制造的高性能缓存核心,每层有12到13层铜布线。该工艺的一个关键特点是它与现有的高性能POWER7™EDRAM核心兼容[4],无需重新设计或修改现有的CMOS制造工艺。硬件测量显示对设备驱动和断流没有显著影响。晶圆级功能测试确认1.48GHz 3D堆叠EDRAM运行。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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