Physical aspects of particle deposition in RTP

P. Schmid, S. Frigge, T. Huelsmann, B. Nadig, Z. Nényei, R. Reisdorf
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引用次数: 2

Abstract

Advanced-logic and DRAM technology for the 90 nm node and beyond results in increasingly stringent particle specifications. Particles can be transported to the sensitive wafer surface via sedimentation, convective diffusion, thermo- electro-and photophoresis. Depending on the manufacturing equipment, the various transport mechanisms are more or less dominant. In atmospheric rapid thermal processing (RTP) equipment for instance, thermophoresis strongly influences the particle transport. Therefore it is important to control this effect such that it protects the wafer surface from particles rather than contaminate it. This paper briefly explains the physical aspects of the different particle transport mechanisms, but mainly it focuses on experimental data on thermo- and photophoresis, including 10000 wafer marathon run and production data. For particle generating processes correctly tuned thermophoresis reduces the particle number on the wafer by an order of magnitude
RTP中粒子沉积的物理方面
用于90纳米及以上节点的先进逻辑和DRAM技术导致越来越严格的颗粒规格。粒子可通过沉降、对流扩散、热电、光电泳等途径被输送到敏感晶圆表面。根据制造设备的不同,各种输送机制或多或少占主导地位。例如,在大气快速热处理(RTP)设备中,热泳进对粒子输运有很大的影响。因此,重要的是要控制这种影响,以保护晶圆片表面免受颗粒而不是污染。本文简要介绍了不同粒子输运机制的物理方面,但主要侧重于热电泳和光电泳的实验数据,包括10000晶圆马拉松和生产数据。对于颗粒产生过程,正确调谐热泳术可将晶圆上的颗粒数量减少一个数量级
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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