High performance double-gate device technology challenges and opportunities

M. Leong, H. Wong, E. Nowak, J. Kedzierski, E. E. Jones
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引用次数: 48

Abstract

The double-gate FET is widely recognized as the prime candidate for the ultimate scaling of FETs to the shortest channel length. From the device integration point of view, the attainment of low extrinsic resistance, carrier transport in the double-gated thin silicon channel and threshold voltage control, remained significant obstacles to high-performance double-gate CMOS structures. We report how these issues were addressed to achieve world-record double-gate device performance. The second gate in a double-gate device can be utilized for low-power and mixed-signal applications. The flexibility of individually controlling the two gates provides opportunities for overall system performance improvement. Ultra-low voltage operation of double-gate CMOS inverters was demonstrated. Finally, we discuss the migration of existing circuit/layout designs to double-gate device technology.
高性能双栅器件技术的挑战与机遇
双栅场效应管被广泛认为是将场效应管最终缩放到最短通道长度的首选器件。从器件集成的角度来看,实现低外在电阻、双门控薄硅沟道中的载流子输运和阈值电压控制仍然是高性能双门CMOS结构的重要障碍。我们报告了如何解决这些问题以实现世界纪录的双栅器件性能。双栅极器件中的第二栅极可用于低功耗和混合信号应用。单独控制两个门的灵活性为整体系统性能的改进提供了机会。演示了双栅CMOS逆变器的超低电压工作原理。最后,我们讨论了现有电路/布局设计向双栅器件技术的迁移。
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