Innovative practices session 9C DFT and data for diagnostics

K. Chung, S. Carlo
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引用次数: 0

Abstract

Diagnosis driven yield analysis (DDYA) based on layout aware diagnosis results for volume failure data has been widely adopted for yield learning. Layout aware diagnosis analyzes failure test data and calls out suspects of interconnect bridges and interconnect opens, and cells at cell boundary. Recently the semiconductor industry is seeing an increasing number of cell internal defects for FinFET technology, due to extremely small feature size, complex cell design and sophisticated manufacturing process. Cell aware diagnosis (CAD) has been proposed to pinpoint the defect location within a defective cell by using accurate defect models derived from analog simulation. Based on CAD results with accurate cell internal defect information, DDYA flow can handle cell related yield limiters better and thus speed up the yield ramp for FinFET technology.
创新实践会议9C DFT和诊断数据
基于布局感知的体积失效数据诊断结果的诊断驱动良率分析(DDYA)已被广泛应用于良率学习。布局感知诊断分析故障测试数据,并提出互连桥、互连开口和单元边界的怀疑点。近年来,由于极小的特征尺寸、复杂的电池设计和复杂的制造工艺,半导体行业发现FinFET技术的电池内部缺陷越来越多。细胞感知诊断(CAD)是一种利用模拟仿真得到的精确缺陷模型来精确定位缺陷细胞内缺陷位置的方法。基于精确的单元内部缺陷信息的CAD结果,DDYA流程可以更好地处理与单元相关的良率限制,从而加快FinFET技术的良率斜坡。
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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