使用pulusl®进行AsH3等离子体浸没离子注入的研究

J. Duchaine, F. Torregrosa, Y. Spiegel, G. Borvon, S. Qin, Y. Hu, A. Mcteer
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引用次数: 3

摘要

等离子体浸没离子注入(PIII)技术被认为是克服传统束流线离子注入的局限性的一种替代方法,可以在先进的存储和逻辑器件上进行浅、高剂量和3D掺杂。由于生产率更高、占用空间更小、操作成本更低,该技术还显示出更好的CoO。p型掺杂的生产实施和n型应用的开发解决了与氢化物使用相关的挑战,特别是在AsH3和PH3的情况下。过度沉积的问题导致工艺集成困难和可能的安全问题,如晶圆出气。[1]。与束流管线相比,价格较高的气体加上较高的气体消耗通常被认为是限制因素。在本文中,我们提出了一个完整的表征(在Micron和IBS完成)的AsH3等离子体植入使用的浦勒®(PIII工具由IBS生产)。由于其独特的远程源设计,浦力®允许更宽的工艺窗口使用更低的气体流量[2]。这些设计优势最大限度地减少了前面提到的缺点,允许更容易的过程集成[3]。AES(俄歇电子能谱)、ARXPS(角度分辨率x射线光电子能谱)、TOF-SIMS & D-SIMS(二次离子质谱)和TEM(透射电子显微镜)分析用于研究沉积、掺杂谱和非晶化作为加速电压和剂量的函数。讨论了剂量对Spike退火后片材电阻的影响,以及可能的氢稀释的影响。还介绍了放气的测量方法。
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Study of AsH3 Plasma Immersion Ion Implantation using PULSION®
Plasma immersion ion implantation (PIII) technology is known as an alternative to overcome the limitations of conventional beam line ion implantation for shallow, high dose and 3D doping on advanced memory and logic devices. This technique also shows a better CoO as the result of higher productivity, smaller footprint and lower operating costs. Implementation in production for P-type doping and development of N-type applications address issues from the challenges linked to the use of hydrides, especially in the case of AsH3 and PH3. Problems of excessive deposition lead to difficult process integration and possible safety issues such as wafer out-gassing. [1]. Higher priced gases coupled with higher gas consumption compared to beam line are often mentioned as limitations. In this paper we present a full characterization (done at Micron and at IBS) of AsH3 plasma implantation using PULSION® (PIII tool produced by IBS). Due to its unique remote source design, PULSION® allows a wider process window using lower gas flows [2]. These design advantages minimize the before mentioned drawbacks allowing easier process integration [3]. AES (Auger Electron Spectroscopy), ARXPS (Angle Resolution X-ray Photoelectron Spectroscopy), TOF-SIMS & D-SIMS (Secondary Ion Mass Spectrometry), and TEM (Transmission Electron Microscopy) analysis are used to study deposition, doping profiles, and amorphization as a function of acceleration voltage and dose. The effect of dose on sheet resistance after Spike anneal is discussed, as well as the effect of possible hydrogen dilution. Out-gassing measurements are also presented.
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