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Device and Circuit Performance of the Future Hybrid III-V and Ge-Based CMOS Technology

机译:未来的混合III-V和基于Ge的CMOS技术的器件和电路性能

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摘要

The device and circuit performance of a 20-nm gate length InGaAs and Ge hybrid CMOS based on an implant free quantum well (QW) device architecture is studied using a multiscale approach combining ensemble Monte Carlo simulation, drift-diffusion simulation, compact modeling, and TCAD mixed-mode circuit simulation. We have found that the QW and doped substrate, used in the hybrid CMOS, help to reduce short-channel effects by enhancing carrier confinement. The QW also reduces the destructive impact of a low density of states in III-V materials. In addition, the calculated access resistance is found to be a much lower than in Si counterparts thanks to a heavily doped overgrowth source/drain contact. We predict an overall low gate capacitance and a large drive current when compared with Si-CMOS that leads to a significant reduction in a circuit propagation time delay (∼5.5 ps). © 1963-2012 IEEE.
机译:使用结合集成蒙特卡洛模拟,漂移扩散模拟,紧凑建模和集成的多尺度方法研究了基于无植入量子阱(QW)器件架构的20nm栅长InGaAs和Ge混合CMOS的器件和电路性能。 TCAD混合模式电路仿真。我们发现,在混合CMOS中使用的QW和掺杂衬底有助于通过增强载流子限制来减少短沟道效应。 QW还减少了III-V材料中低密度状态的破坏性影响。此外,由于严重掺杂了过度生长的源极/漏极触点,因此计算得出的访问电阻比Si同行低得多。与Si-CMOS相比,我们预测总体栅极电容低,驱动电流大,这将大大减少电路传播时间延迟(〜5.5 ps)。 ©1963-2012 IEEE。

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