Advancing COVID-19 Diagnosis with Privacy-Preserving Collaboration in
Artificial Intelligence
- URL: http://arxiv.org/abs/2111.09461v1
- Date: Thu, 18 Nov 2021 00:43:41 GMT
- Title: Advancing COVID-19 Diagnosis with Privacy-Preserving Collaboration in
Artificial Intelligence
- Authors: Xiang Bai, Hanchen Wang, Liya Ma, Yongchao Xu, Jiefeng Gan, Ziwei Fan,
Fan Yang, Ke Ma, Jiehua Yang, Song Bai, Chang Shu, Xinyu Zou, Renhao Huang,
Changzheng Zhang, Xiaowu Liu, Dandan Tu, Chuou Xu, Wenqing Zhang, Xi Wang,
Anguo Chen, Yu Zeng, Dehua Yang, Ming-Wei Wang, Nagaraj Holalkere, Neil J.
Halin, Ihab R. Kamel, Jia Wu, Xuehua Peng, Xiang Wang, Jianbo Shao,
Pattanasak Mongkolwat, Jianjun Zhang, Weiyang Liu, Michael Roberts, Zhongzhao
Teng, Lucian Beer, Lorena Escudero Sanchez, Evis Sala, Daniel Rubin, Adrian
Weller, Joan Lasenby, Chuangsheng Zheng, Jianming Wang, Zhen Li,
Carola-Bibiane Sch\"onlieb, Tian Xia
- Abstract summary: We launch the Unified CT-COVID AI Diagnostic Initiative (UCADI), where the AI model can be distributedly trained and independently executed at each host institution.
Our study is based on 9,573 chest computed tomography scans (CTs) from 3,336 patients collected from 23 hospitals located in China and the UK.
- Score: 79.038671794961
- License: http://creativecommons.org/licenses/by-nc-sa/4.0/
- Abstract: Artificial intelligence (AI) provides a promising substitution for
streamlining COVID-19 diagnoses. However, concerns surrounding security and
trustworthiness impede the collection of large-scale representative medical
data, posing a considerable challenge for training a well-generalised model in
clinical practices. To address this, we launch the Unified CT-COVID AI
Diagnostic Initiative (UCADI), where the AI model can be distributedly trained
and independently executed at each host institution under a federated learning
framework (FL) without data sharing. Here we show that our FL model
outperformed all the local models by a large yield (test sensitivity
/specificity in China: 0.973/0.951, in the UK: 0.730/0.942), achieving
comparable performance with a panel of professional radiologists. We further
evaluated the model on the hold-out (collected from another two hospitals
leaving out the FL) and heterogeneous (acquired with contrast materials) data,
provided visual explanations for decisions made by the model, and analysed the
trade-offs between the model performance and the communication costs in the
federated training process. Our study is based on 9,573 chest computed
tomography scans (CTs) from 3,336 patients collected from 23 hospitals located
in China and the UK. Collectively, our work advanced the prospects of utilising
federated learning for privacy-preserving AI in digital health.
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