Minimization of CNN Training Data by using Data Augmentation for Inline Defect Classification

Akihiro Fujishiro, Yoshikazu Nagamura, Tatsuya Usami, Masao Inoue
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引用次数: 4

Abstract

Detecting the defects in silicon wafers generated by semiconductor manufacturing is essential for quality assurance, and requires the acquisition and accurate classification of high-resolution images by scanning electron microscopy. However, owing to the difficulty of automation, the classification process is costly and its efficiency must be improved. To improve the classification accuracy and the cost of creating a classifier, which are the main bottlenecks of conventional technology, we propose a deep convolutional neural network (CNN) based on the VGG16 architecture, and perform appropriate data augmentations on training images. The CNN was successfully trained on a very small number of images, and achieved high defect classification accuracy.
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基于数据增强的CNN训练数据最小化内联缺陷分类
检测由半导体制造产生的硅片缺陷对于保证质量至关重要,并且需要通过扫描电子显微镜获取和准确分类高分辨率图像。然而,由于难以实现自动化,分类过程成本高,效率有待提高。为了提高分类精度和分类器创建成本这一传统技术的主要瓶颈,我们提出了一种基于VGG16架构的深度卷积神经网络(CNN),并对训练图像进行适当的数据增强。CNN在非常少的图像上成功训练,并取得了很高的缺陷分类准确率。
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