半导体加工设备中气体输送和液体输送系统的发展:模块化架构驱动可配置性选项并提高工具生产率;EO:设备优化

Gary Xing, P. Werbaneth, Randy Treur, Phil Barros
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引用次数: 1

摘要

模块化气体输送系统取代了半导体资本设备行业的传统气体面板,用于“干”制造工艺,如等离子蚀刻、化学气相沉积、物理气相沉积、外延和干带。采用模块化气体输送系统,是因为模块化架构比传统系统设计具有许多优点。这些优点包括更小的尺寸/更小的占地面积,易于定制配置,易于维护和提高设备生产力。作为主要干法加工设备制造商的气体面板供应商,我们观察并响应了客户驱动的模块化气体输送系统的转变。我们认为模块化的优势同样适用于液体化学输送应用,例如湿式清洗和表面去除,我们正在将传统的化学输送系统转换为基于模块化的系统。本文详细介绍了该行业从传统气体输送系统向模块化气体输送系统的转变,从中吸取经验教训,并将这些最佳实践应用于主要湿式工具应用中使用的模块化化学输送系统,包括湿式清洗、电化学沉积(ECD)和化学机械平面化(CMP)。我们还将讨论模块化系统架构开发的三个重点领域:可服务性、密封机制和污染控制。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Evolution of Gas Delivery and Liquid Delivery Systems in Semiconductor Processing Equipment: Modular Architectures Drive Configurability Options and Improve Tool Productivity : EO: Equipment Optimization
Modular gas delivery systems replaced conventional gas panels in the semiconductor capital equipment industry for “dry” manufacturing processes such as plasma etch, chemical vapor deposition, physical vapor deposition, epitaxy, and dry strip. Modular gas delivery systems were adopted as a result of numerous benefits the modular architecture offers over conventional system designs. These benefits include smaller size/smaller footprint, easily customizable configurability, ease of maintenance, and increased equipment productivity. From our position as a gas panel supplier to major dry processing equipment manufacturers we have observed and responded to the customer-driven conversion to modular gas delivery systems. We think the same advantages of modularity apply in liquid chemical delivery applications, for example wet cleaning and surface removal, and we are in the process of converting conventional chemical delivery systems into modular-based ones. We present here details about the industry’s conversion from conventional to modular gas delivery systems, extracting the lessons learned, and applying those best practices to modular architecture chemical delivery systems used in the major wet tool applications, including wet cleaning, Electrochemical Deposition (ECD), and Chemical Mechanical Planarization (CMP). We will also discuss three areas of focuses of development on the modular system architecture: serviceability, sealing mechanisms, and contamination control.
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