Generative domain adaptation for chest X‐ray image analysis

Abstract Chest X‐ray images taken under different conditions follow different distributions, preventing the models trained on a domain from generalising well on the other domain. In this paper, a generative domain adaptation (GDA) method is proposed to address this issue and facilitate the learning...

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Main Authors: Baocai Yin, Wenchao Liu, Zhonghua Fu, Jing Zhang, Cong Liu, Zengfu Wang
Format: Article
Language:English
Published: Wiley 2021-11-01
Series:IET Image Processing
Online Access:https://doi.org/10.1049/ipr2.12305
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spelling doaj-922a5e5584f14bee92aa760affe4c3d42021-10-04T12:09:56ZengWileyIET Image Processing1751-96591751-96672021-11-0115133118312910.1049/ipr2.12305Generative domain adaptation for chest X‐ray image analysisBaocai Yin0Wenchao Liu1Zhonghua Fu2Jing Zhang3Cong Liu4Zengfu Wang5University of Science and Technology of China Hefei ChinaiFLYTEK Research Hefei ChinaXi'an iFLYTEK Hyper‐brain Information Technology Co. Xi'an ChinaUniversity of Sydney Darlington New South Wales AustraliaiFLYTEK Research Hefei ChinaUniversity of Science and Technology of China Hefei ChinaAbstract Chest X‐ray images taken under different conditions follow different distributions, preventing the models trained on a domain from generalising well on the other domain. In this paper, a generative domain adaptation (GDA) method is proposed to address this issue and facilitate the learning process for downstream analysis. GDA adapts different domains to a virtual common one where images are aligned at the appearance level. To this end, a domain shared generator is used to transform the input images and two competitive discriminators are used to adversarially supervise the transforming process. The domain discriminator drives the generator to narrow the domain gap while the fidelity discriminator forces the generator to keep the inherent information. Moreover, a specific classification or detection network is attached to the generator to supervise it in a task‐oriented manner. Experiment results on a large‐scale dataset containing 46k chest X‐ray images demonstrate that GDA outperforms representative domain adaptation methods by a large margin for both disease classification and lesion detection as well as provides useful transformed images to assist experts for diagnosis.https://doi.org/10.1049/ipr2.12305
collection DOAJ
language English
format Article
sources DOAJ
author Baocai Yin
Wenchao Liu
Zhonghua Fu
Jing Zhang
Cong Liu
Zengfu Wang
spellingShingle Baocai Yin
Wenchao Liu
Zhonghua Fu
Jing Zhang
Cong Liu
Zengfu Wang
Generative domain adaptation for chest X‐ray image analysis
IET Image Processing
author_facet Baocai Yin
Wenchao Liu
Zhonghua Fu
Jing Zhang
Cong Liu
Zengfu Wang
author_sort Baocai Yin
title Generative domain adaptation for chest X‐ray image analysis
title_short Generative domain adaptation for chest X‐ray image analysis
title_full Generative domain adaptation for chest X‐ray image analysis
title_fullStr Generative domain adaptation for chest X‐ray image analysis
title_full_unstemmed Generative domain adaptation for chest X‐ray image analysis
title_sort generative domain adaptation for chest x‐ray image analysis
publisher Wiley
series IET Image Processing
issn 1751-9659
1751-9667
publishDate 2021-11-01
description Abstract Chest X‐ray images taken under different conditions follow different distributions, preventing the models trained on a domain from generalising well on the other domain. In this paper, a generative domain adaptation (GDA) method is proposed to address this issue and facilitate the learning process for downstream analysis. GDA adapts different domains to a virtual common one where images are aligned at the appearance level. To this end, a domain shared generator is used to transform the input images and two competitive discriminators are used to adversarially supervise the transforming process. The domain discriminator drives the generator to narrow the domain gap while the fidelity discriminator forces the generator to keep the inherent information. Moreover, a specific classification or detection network is attached to the generator to supervise it in a task‐oriented manner. Experiment results on a large‐scale dataset containing 46k chest X‐ray images demonstrate that GDA outperforms representative domain adaptation methods by a large margin for both disease classification and lesion detection as well as provides useful transformed images to assist experts for diagnosis.
url https://doi.org/10.1049/ipr2.12305
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AT congliu generativedomainadaptationforchestxrayimageanalysis
AT zengfuwang generativedomainadaptationforchestxrayimageanalysis
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