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影响因子：12.0

DOI码：10.1038/s41524-020-00392-6

发表刊物：Nature Partner Journal (NPJ) Computational Materials

摘要：Recent progress in material data mining has been driven by high-capacity models trained on large datasets. However, collecting experimental data (real data) has been extremely costly owing to the amount of human effort and expertise required. Here, we develop a novel transfer learning strategy to address problems of small or insufficient data. This strategy realizes the fusion of real and simulated data and the augmentation of training data in a data mining procedure. For a specific task of grain instance image segmentation, this strategy aims to generate synthetic data by fusing the images obtained from simulating the physical mechanism of grain formation and the “image style” information in real images. The results show that the model trained with the acquired synthetic data and only 35% of the real data can already achieve competitive segmentation performance of a model trained on all of the real data. Because the time required to perform grain simulation and to generate synthetic data are almost negligible compared to the effort for obtaining real data, our proposed strategy is able to exploit the strong prediction power of deep learning without significantly increasing the experimental burden of training data preparation.

合写作者：Xiaoyan Wei,Chuni Liu,Xiaojuan Ban,Haiyou Huang,Hao Wang,Weihua Xue,Stephen Wu,Mingfei Gao,Qing Shen,Michele Mukeshimana,Adnan Omer Abuassba,Haokai Shen,Yanjing Su

第一作者：Boyuan Ma

论文类型：期刊论文

学科门类：工学

文献类型：J

卷号：6

期号：125

页面范围：1-9（Nature子刊）

是否译文：否

发表时间：2020-01-01

收录刊物：SCI