基于体积扫描诊断结果的复杂FinFET缺陷机制良率学习

Huaxing Tang, Manish Sharma, Wu-Tung Cheng, Gaurav Veda, Douglas D. Gehringer, Matt Knowles, Jayant D'Souza, Kannan Sekar, Neerja Bawaskar, Yan Pan
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引用次数: 2

摘要

随着采用多模式工艺技术制造的高宽高比finfet,器件复杂性达到了历史最高水平。与此同时,人工智能和汽车等新产品领域正在采用这种先进工艺制造。在这种动态环境中,新的复杂缺陷模式对制造商提出了挑战,要求他们在先进节点上保持质量和产量。标准电池的工艺可变性引入了新的晶体管级缺陷模式。与此同时,传统故障分析的成本持续飙升。该行业将如何降低缺陷率,提高产量,以满足这些积极的市场需求?本文将详细介绍机器学习在扫描诊断领域的新突破。第一次,细胞内部缺陷被检测、诊断,现在用RCD(根本原因反褶积)解决。实验FA结果将展示如何使用RCD建立准确的缺陷帕累托,并为FA选择目标模具,以便更快,更便宜地识别根本原因。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Yield Learning for Complex FinFET Defect Mechanisms Based on Volume Scan Diagnosis Results
Device complexity is reaching all-time highs with the adoption of high aspect ratio FinFETs created using multi- patterning process technologies. Simultaneously, new product segments such as AI and automotive are being fabricated on such advanced processes. In this dynamic environment, new complex defect modes have challenged manufacturers to ramp and sustain quality and yield at advanced nodes. Process variability of the standard cell introduces new transistor-level defect modes. Meanwhile the cost of traditional failure analysis has continued to skyrocket. How will the industry reduce the defect-rate and ramp yield to meet these aggressive market demands? This article will detail a new breakthrough in the field of scan diagnosis using machine learning. For the first time, cell-internal defects are detected, diagnosed and now resolved with RCD (Root Cause Deconvolution). Experimental FA results will show how RCD is used to build an accurate defect pareto and pick targeted die for FA for faster and cheaper root cause identification.
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