计量学
配方
过程(计算)
计算机科学
半导体器件制造
过程控制
GSM演进的增强数据速率
制造工程
数据处理
工程制图
系统工程
工程类
人工智能
数据库
食品科学
薄脆饼
电气工程
化学
操作系统
统计
数学
作者
Nathan G. Greeneltch,Haizhou Yin,J. Andres Torres,Melody Tao,Steven M. Lubin,Srividya Jayaram,Ivan Kissiov,Martin Niehoff,Marcus Wolf,Paul Jungmann,Todd Bailey
摘要
Modern semiconductor fabrication pushes the limits of chemistry and physics while simultaneously employing largescale, cutting-edge processing techniques. While fab expansion and capital expenditures continue to grow, the human element has become ever more demanding and prone to error. To assist with this issue, computer-aided process engineering, process control, and tool monitoring will continue to rise in the coming years. In this paper, we present an APC-integrated, customizable solution to an in-fab processing segment. Through machine learning, we combine information from design-specific extracted features with processing and metrology data to predict oxide deposition thickness. The result is a design-aware augmentation for current metrology that can recommend accurate process recipe conditions for new layouts. We also present experimental results highlighting the benefits of adding design-aware features with in-fab data to anchor and support each other across layouts and technologies. This result paves the way to decouple, isolate, and quantify the individual influences each processing step imposes on different designs at various stages of the fabrication flow.
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