Industry Trend: Planar Double Gate Technology

T. Dao, P. A. Montgomery, E. Luckowski, J. John, J. Norbert, S. Stewart, B. Nguyen, J. Teplik
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引用次数: 4

Abstract

Double gate FDSOI device performance improvements over single gate devices have been well documented by many companies in the semiconductor industry, having almost double the drive current, close to ideal subthreshold slope, reduced SCE, and reduced DIBL. However, in the past five years, planar double gate technology has been largely ignored, except for the case of IBM, because of the manufacturing challenges. These include the construction of the bottom gate underneath the FET body, the alignment of the bottom gate to the top gate, and the difficult task of incorporating metal gate or high k dielectric material for the bottom gate formation. From the design and device physics point of view, the planar double gate structure is predicted to behave similarly to single gate with the additional flexibility that the planar double-gate approach allows one to reach the limiting body thickness. In the past year, there has been significant renewed interest based on the increase in reports published by semiconductor companies, research labs and universities on the planar double gate manufacturing process. In this paper, an in-depth analysis will be done to compare industry planar double gate manufacturing methods, including that of Freescale Semiconductor
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行业趋势:平面双栅技术
双栅极FDSOI器件的性能优于单栅极器件,已被半导体行业的许多公司充分证明,其驱动电流几乎增加了一倍,接近理想的亚阈值斜率,降低了SCE,降低了DIBL。然而,在过去的五年中,由于制造方面的挑战,平面双栅极技术在很大程度上被忽视了,除了IBM的案例。其中包括在FET主体下方的底部栅极的构造,底部栅极与顶部栅极的对齐,以及将金属栅极或高k介电材料用于底部栅极形成的艰巨任务。从设计和器件物理的角度来看,预计平面双栅结构的行为与单栅相似,具有平面双栅方法允许达到极限体厚度的额外灵活性。在过去的一年里,由于半导体公司、研究实验室和大学发表的关于平面双栅制造工艺的报告越来越多,人们对其重新产生了浓厚的兴趣。本文将深入分析比较业界平面双栅制造方法,包括飞思卡尔半导体的制造方法
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