2X nm节点DRAM的NBTI深度分析

S. Han, Sungsam Lee, S. Baek, S. Jang, W. Jeong, K. Huh, Moonyoung Jeong, Junhee Lim, S. Yamada, H. Hong, Kyupil Lee, Gyoyoung Jin, E. Jung
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引用次数: 1

摘要

本文首次报道了由p-MOSFET的NBTI退化引起的DRAM性能退化的分析。为了提高NBTI的免疫力,对三名候选人进行了检查。首先,通过控制BEOL的热收支来最小化Si/SiON界面上的Si- h键,在NBTI寿命中显示出有希望的结果,但由于它减少了刷新时间,因此不适合DRAM工艺。其次,考虑埋入式SiGe通道p-MOSFET,其NBTI抗扰度提高1.2倍,但由于额外的制造成本,难以在DRAM外围电路中采用。最后,氘退火似乎是DRAM工艺的正确选择,因为它可以在没有刷新时间损失的情况下提高NBTI抗扰度。然而,这种NBTI增益取决于Si/SiON界面上氘原子的数量和Si- d键被Si- h键取代的可能性。因此,选择合适的工艺顺序和退火条件是至关重要的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
In-Depth Analysis of NBTI at 2X nm Node DRAM
An analysis on the degradation of DRAM performance caused by the NBTI degradation of p-MOSFET is first to be reported. To improve the NBTI immunity, three candidates are examined. First, minimizing Si-H bonds at Si/SiON interface through controlling the heat-budget at BEOL shows a promising result in NBTI lifetime, but it is not appropriate for DRAM process since it decreases the refresh time. Next, the buried SiGe channel p-MOSFET, which has 1.2 times higher NBTI immunity, is considered but difficult to adopt in DRAM peripheral circuit due to extra manufacturing cost. Finally, a deuterium annealing seems to be the right candidate for DRAM process since it improves the NBTI immunity without the refresh time penalty. This NBTI gain, however, varies depending on the amount of deuterium atom at Si/SiON interface and the probability of Si-D bond replacement with Si-H bond. Thus, selecting a right process sequence and an annealing condition is crucial.
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