Contrastive domain adaptation with consistency match for automated pneumonia diagnosis

Pneumonia can be difficult to diagnose since its symptoms are too variable, and the radiographic signs are often very similar to those seen in other illnesses such as a cold or influenza. Deep neural networks have shown promising performance in automated pneumonia diagnosis using chest X-ray radiogr...

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Veröffentlicht in:Medical image analysis 2023-01, Vol.83, p.102664-102664, Article 102664
Hauptverfasser: Feng, Yangqin, Wang, Zizhou, Xu, Xinxing, Wang, Yan, Fu, Huazhu, Li, Shaohua, Zhen, Liangli, Lei, Xiaofeng, Cui, Yingnan, Sim Zheng Ting, Jordan, Ting, Yonghan, Zhou, Joey Tianyi, Liu, Yong, Siow Mong Goh, Rick, Heng Tan, Cher
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container_title Medical image analysis
container_volume 83
creator Feng, Yangqin
Wang, Zizhou
Xu, Xinxing
Wang, Yan
Fu, Huazhu
Li, Shaohua
Zhen, Liangli
Lei, Xiaofeng
Cui, Yingnan
Sim Zheng Ting, Jordan
Ting, Yonghan
Zhou, Joey Tianyi
Liu, Yong
Siow Mong Goh, Rick
Heng Tan, Cher
description Pneumonia can be difficult to diagnose since its symptoms are too variable, and the radiographic signs are often very similar to those seen in other illnesses such as a cold or influenza. Deep neural networks have shown promising performance in automated pneumonia diagnosis using chest X-ray radiography, allowing mass screening and early intervention to reduce the severe cases and death toll. However, they usually require many well-labelled chest X-ray images for training to achieve high diagnostic accuracy. To reduce the need for training data and annotation resources, we propose a novel method called Contrastive Domain Adaptation with Consistency Match (CDACM). It transfers the knowledge from different but relevant datasets to the unlabelled small-size target dataset and improves the semantic quality of the learnt representations. Specifically, we design a conditional domain adversarial network to exploit discriminative information conveyed in the predictions to mitigate the domain gap between the source and target datasets. Furthermore, due to the small scale of the target dataset, we construct a feature cloud for each target sample and leverage contrastive learning to extract more discriminative features. Lastly, we propose adaptive feature cloud expansion to push the decision boundary to a low-density area. Unlike most existing transfer learning methods that aim only to mitigate the domain gap, our method instead simultaneously considers the domain gap and the data deficiency problem of the target dataset. The conditional domain adaptation and the feature cloud generation of our method are learning jointly to extract discriminative features in an end-to-end manner. Besides, the adaptive feature cloud expansion improves the model’s generalisation ability in the target domain. Extensive experiments on pneumonia and COVID-19 diagnosis tasks demonstrate that our method outperforms several state-of-the-art unsupervised domain adaptation approaches, which verifies the effectiveness of CDACM for automated pneumonia diagnosis using chest X-ray imaging. •A novel domain adaptation method for small-scale target dataset.•A contrastive learning-based strategy to solve data deficiency problem.•An adaptive feature cloud expansion mechanism to improve model’s generalisation ability.•A new SOTA result for automated pneumonia and COVID-19 diagnosis.
doi_str_mv 10.1016/j.media.2022.102664
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Deep neural networks have shown promising performance in automated pneumonia diagnosis using chest X-ray radiography, allowing mass screening and early intervention to reduce the severe cases and death toll. However, they usually require many well-labelled chest X-ray images for training to achieve high diagnostic accuracy. To reduce the need for training data and annotation resources, we propose a novel method called Contrastive Domain Adaptation with Consistency Match (CDACM). It transfers the knowledge from different but relevant datasets to the unlabelled small-size target dataset and improves the semantic quality of the learnt representations. Specifically, we design a conditional domain adversarial network to exploit discriminative information conveyed in the predictions to mitigate the domain gap between the source and target datasets. Furthermore, due to the small scale of the target dataset, we construct a feature cloud for each target sample and leverage contrastive learning to extract more discriminative features. Lastly, we propose adaptive feature cloud expansion to push the decision boundary to a low-density area. Unlike most existing transfer learning methods that aim only to mitigate the domain gap, our method instead simultaneously considers the domain gap and the data deficiency problem of the target dataset. The conditional domain adaptation and the feature cloud generation of our method are learning jointly to extract discriminative features in an end-to-end manner. Besides, the adaptive feature cloud expansion improves the model’s generalisation ability in the target domain. 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subjects Automated disease diagnosis
Chest X-ray screening
Consistency match
Contrastive learning
COVID-19
COVID-19 Testing
Humans
Unsupervised domain adaptation
title Contrastive domain adaptation with consistency match for automated pneumonia diagnosis
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