Cell defect recognition based on deep learning

Based on the TensorFlow framework, this paper builds convolutional neural networks to recognize the defects in the electroluminescent images of cells. It selects the exposed data set that contains the different types of defects in the cell. Based on the traditional VGGNet network, the full convoluti...

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Main Authors: Zhou Jiankai, Xu Shengzhi, Zhao Ergang, Yu Mei, Zhang Jianjun
Format: Article
Language:zho
Published: National Computer System Engineering Research Institute of China 2019-05-01
Series:Dianzi Jishu Yingyong
Subjects:
Online Access:http://www.chinaaet.com/article/3000101569
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spelling doaj-3ad95a74db7f4e92948c7aa00ef122062020-11-25T01:39:51ZzhoNational Computer System Engineering Research Institute of ChinaDianzi Jishu Yingyong0258-79982019-05-01455666910.16157/j.issn.0258-7998.1900533000101569Cell defect recognition based on deep learningZhou Jiankai0Xu Shengzhi1Zhao Ergang2Yu Mei3Zhang Jianjun4The Tianjin Key Laboratory for Optical-Electronics Thin Film Devices and Technology, Department of Electronic Science and Engineering,Nankai University,Tianjin 300350,ChinaThe Tianjin Key Laboratory for Optical-Electronics Thin Film Devices and Technology, Department of Electronic Science and Engineering,Nankai University,Tianjin 300350,ChinaThe Tianjin Key Laboratory for Optical-Electronics Thin Film Devices and Technology, Department of Electronic Science and Engineering,Nankai University,Tianjin 300350,ChinaThe Tianjin Key Laboratory for Optical-Electronics Thin Film Devices and Technology, Department of Electronic Science and Engineering,Nankai University,Tianjin 300350,ChinaThe Tianjin Key Laboratory for Optical-Electronics Thin Film Devices and Technology, Department of Electronic Science and Engineering,Nankai University,Tianjin 300350,ChinaBased on the TensorFlow framework, this paper builds convolutional neural networks to recognize the defects in the electroluminescent images of cells. It selects the exposed data set that contains the different types of defects in the cell. Based on the traditional VGGNet network, the full convolution neural network is used for training, and this paper analyzes the training effects of different loss functions and dropout probabilities on data set. Experiments have shown that the algorithm accurately recognizes whether the cell is defective. The study also shows that the compression network structure greatly increases the training rate of the algorithm, which makes the simplified model more portable and provides an effective solution for a wide range of real-time defect recognition.http://www.chinaaet.com/article/3000101569electrofluorescenceimage recognitionTensorFlowconvolutional neural network
collection DOAJ
language zho
format Article
sources DOAJ
author Zhou Jiankai
Xu Shengzhi
Zhao Ergang
Yu Mei
Zhang Jianjun
spellingShingle Zhou Jiankai
Xu Shengzhi
Zhao Ergang
Yu Mei
Zhang Jianjun
Cell defect recognition based on deep learning
Dianzi Jishu Yingyong
electrofluorescence
image recognition
TensorFlow
convolutional neural network
author_facet Zhou Jiankai
Xu Shengzhi
Zhao Ergang
Yu Mei
Zhang Jianjun
author_sort Zhou Jiankai
title Cell defect recognition based on deep learning
title_short Cell defect recognition based on deep learning
title_full Cell defect recognition based on deep learning
title_fullStr Cell defect recognition based on deep learning
title_full_unstemmed Cell defect recognition based on deep learning
title_sort cell defect recognition based on deep learning
publisher National Computer System Engineering Research Institute of China
series Dianzi Jishu Yingyong
issn 0258-7998
publishDate 2019-05-01
description Based on the TensorFlow framework, this paper builds convolutional neural networks to recognize the defects in the electroluminescent images of cells. It selects the exposed data set that contains the different types of defects in the cell. Based on the traditional VGGNet network, the full convolution neural network is used for training, and this paper analyzes the training effects of different loss functions and dropout probabilities on data set. Experiments have shown that the algorithm accurately recognizes whether the cell is defective. The study also shows that the compression network structure greatly increases the training rate of the algorithm, which makes the simplified model more portable and provides an effective solution for a wide range of real-time defect recognition.
topic electrofluorescence
image recognition
TensorFlow
convolutional neural network
url http://www.chinaaet.com/article/3000101569
work_keys_str_mv AT zhoujiankai celldefectrecognitionbasedondeeplearning
AT xushengzhi celldefectrecognitionbasedondeeplearning
AT zhaoergang celldefectrecognitionbasedondeeplearning
AT yumei celldefectrecognitionbasedondeeplearning
AT zhangjianjun celldefectrecognitionbasedondeeplearning
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