III-V Quantum Well Field Effect Transistors on Silicon for Future High Performance and Low Power Logic Applications

G. Dewey, M. Radosavljevic, N. Mukherjee
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引用次数: 2

Abstract

This work summarizes the advantages and challenges of III-V channel transistors for high performance and low power logic applications with respect to Si CMOS. The challenge of heterogeneous integration of III-V on Si is addressed by integration of In0.7Ga0.3As QWFETs on Si substrates with a total composite buffer thickness successfully scaled down to 1.3um. The main advantages are demonstrated with Schottky-Gate In0.7Ga0.3As QWFET on Si substrate showing 4.6X to 3.3X effective velocity gain over Si n-MOSFET for a VCC range of 0.5V to 1.0V, and 65% intrinsic drive current gain over Si nMOSFET at VCC = 0.5V. In addition, the challenge of further scaling and reduction of the high gate leakage that occurs in Schottky-gate devices is addressed by successful integration of an advanced composite high-K gate stack in the In0.7Ga0.3As QWFET.
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面向未来高性能、低功耗逻辑应用的硅基量子阱场效应晶体管
本工作总结了III-V通道晶体管相对于Si CMOS的高性能和低功耗逻辑应用的优势和挑战。通过在Si衬底上集成In0.7Ga0.3As qwfet,并成功地将总复合缓冲厚度缩小到1.3um,解决了III-V在Si上非均质集成的挑战。在Si衬底上的肖特基栅In0.7Ga0.3As QWFET的主要优点是,在VCC范围为0.5V至1.0V时,比Si n-MOSFET的有效速度增益为4.6倍至3.3倍,在VCC = 0.5V时,比Si n-MOSFET的固有驱动电流增益为65%。此外,通过在In0.7Ga0.3As QWFET中成功集成先进的复合高k栅极堆叠,解决了肖特基栅极器件中发生的进一步缩放和减少高栅极泄漏的挑战。
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