USJ闪蒸退火技术:建模与计量

J. Gelpey, S. Mccoy, D. Camm, W. Lerch, S. Paul, P. Pichler, J. Borland, P. Timans
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引用次数: 3

摘要

闪光灯或激光毫秒退火似乎是满足先进技术节点的超浅结退火和多晶硅活化需求的主要方法。该技术有许多优点,包括高电活化、优异的横向突然性、可控和有限的掺杂扩散以及设计离子注入后遗留的扩展缺陷的能力。此外,还有许多挑战,如潜在的图案效应、局部和全局晶圆应力以及工艺集成的困难。其他挑战包括需要扩展过程TCAD的功能,以允许对ms过程进行准确的模拟和预测。对于各种技术上有趣的掺杂条件,扩散、激活和缺陷演变的建模必须是可靠的,以允许器件设计师和工艺工程师预测ms退火后的器件行为。现有的模型不足或仍然需要验证。超浅结的计量也是一个挑战。在10nm深的结上精确和重复测量片电阻和结漏的能力是非常困难的。本文概述了闪光灯退火,并讨论了过程模拟的一些有前途的扩展,以实现闪光灯退火条件下结行为的预测建模。我们还研究了一些新的计量技术,用于表征这些非常浅的结,并研究了不同结形成细节的一些趋势
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Flash Annealing Technology for USJ: Modeling and Metrology
Millisecond annealing either by flash lamp or laser appears to be the leading approach to meet the needs of ultra-shallow junction annealing and polysilicon activation for advanced technology nodes. There are many advantages to this technology including high electrical activation, excellent lateral abruptness, controlled and limited dopant diffusion and the ability to engineer the extended defects remaining from the ion implantation. There are also many challenges such as potential pattern effects, local and global wafer stress and difficulty in process integration. Additional challenges include the need to extend the capabilities of process TCAD to allow accurate simulation and prediction of the ms processes. Modeling of diffusion, activation and defect evolution for a variety of technologically interesting doping conditions must be dependable to allow the device designer and process engineer to predict the device behavior after ms annealing. Existing models fall short or still need to be validated. Metrology for ultra-shallow junctions is also a challenge. The ability to accurately and repeatably measure sheet resistance and junction leakage on junctions of the order of 10nm deep is very difficult. This paper provides an overview of flash lamp annealing and deal with some promising extensions of process simulation to enable the predictive modeling of junction behavior under flash lamp annealing conditions. We also examine some of the new metrology techniques for characterization of these very shallow junctions and look at some of the trends exhibited for different junction formation details
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Mechanical Stress in Silicon Based Materials: Evolution Upon Annealing and Impact on Devices Performances Micro-Scale Sheet Resistance Measurements on Ultra Shallow Junctions High-Resolution Transmission Electron Microscopy of Interfaces between thin Nickel Layers on Si(001) After Nickel Silicide Formation under Various Annealing Conditions Hot Plate Emissivity Effect in Low Temperature Annealing Growing Importance of Fundamental Understanding of the Source of Process Variations
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