硅集成电路中单片III-V器件的材料、工艺和市场

Eugene A. Fitzgerald
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引用次数: 0

摘要

基于潜在市场应用需求和半导体行业基础设施的投入,制造单片111-V+CMOS电路的材料和工艺不断得到开发。GaN LED和III-V HEMT平台是最早开发的,并受到当前预期市场需求的推动。开发的工艺流程包括在CMOS代工厂中进行传统的200mm CMOS前端处理,将CMOS晶圆与III-V/Si晶圆合并,在硅制造环境中处理III-V器件,最后通过将晶圆返回CMOS代工厂进行后端互连。III-V+CMOS硅ic是在Cadence环境中设计的,使用代工pdk,通过插入集成的III-V器件模型进行修改。对于集成到硅集成电路中的不同III-V型集成电路,上述总体方法是不变的。采用GaN LED+CMOS、GaN HEMT+CMOS、InGaAs HEMT+CMOS和InGaP LED+CMOS平台设计电路。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Materials, Processes, and Markets for Monolithic III-V Devices in Silicon Integrated Circuits
Materials and processes to create monolithic 111-V+CMOS circuits have been developed iteratively with inputs from potential market application needs and semiconductor industry infrastructure. The GaN LED and III-V HEMT platforms are earliest to develop and driven by currently anticipated market needs. The developed process flow involves conventional 200mm CMOS front-end processing in a CMOS foundry, merging the CMOS wafer with a III-V/Si wafer, processing III-V devices in a silicon fabrication environment, and final interconnection via returning the wafer to a CMOS foundry for back-end interconnection. III-V+CMOS silicon ICs are designed in a Cadence environment using foundry PDKs modified with insertion of the integrated III-V device models. The overall method described above is invariant for the different III-V's that are integrated into silicon ICs. Circuits have been designed using GaN LED+CMOS, GaN HEMT+CMOS, InGaAs HEMT+CMOS, and InGaP LED+CMOS platforms.
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