低功耗集成系统的Ge/III-V MOS器件技术

S. Takagi, M. Takenaka
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引用次数: 6

摘要

在Si衬底上利用高迁移率Ge/III-V通道的CMOS有望成为未来技术节点中高性能和低功耗集成系统的有前途的器件之一,因为它增强了载流子传输特性。此外,使用Ge/III-V材料的隧道效应管(tfet)被认为是超低功耗应用中最重要的陡坡器件之一。本文研究了Ge/III-V型mosfet和tfet在Si CMOS平台上的器件和工艺技术。为了满足器件的要求,介绍了通道形成、源/漏(S/D)形成和栅极堆叠工程。等离子体后氧化形成GeOx界面层是Ge CMOS的关键栅极叠加技术。此外,超薄体量子阱III-V- oi通道的直接晶圆键合,结合三栅极结构,实现了具有阈值电压可调性的Si上高性能III-V nmosfet。我们还展示了平面型Ge/应变SOI和InGaAs tfet。具有陡峭杂质分布的无缺陷p+/n源结形成是实现高性能TFET工作的关键。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Ge/III-V MOS device technologies for low power integrated systems
CMOS utilizing high mobility Ge/III-V channels on Si substrates is expected to be one of the promising devices for high performance and low power integrated systems in the future technology nodes, because of the enhanced carrier transport properties. In addition, Tunneling-FETs (TFETs) using Ge/III-V materials are regarded as one of the most important steep slope devices for the ultra-low power applications. In this paper, we address the device and process technologies of Ge/III-V MOSFETs and TFETs on the Si CMOS platform. The channel formation, source/drain (S/D) formation and gate stack engineering are introduced for satisfying the device requirements. The plasma post oxidation to form GeOx interfacial layers is a key gate stack technology for Ge CMOS. Also, direct wafer bonding of ultrathin body quantum well III-V-OI channels, combined with Tri-gate structures, realizes high performance III-V nMOSFETs on Si with threshold voltage tunability. We also demonstrate planar-type Ge/strained SOI and InGaAs TFETs. The defect-less p+/n source junction formation with steep impurity profiles is a key for high performance TFET operation.
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