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Combined model-driven and dual-cycle interactive strategy few-shot learning scheme for predicting breast cancer
Xiaoyan Hong1, Lei Zhang2, Longzhen Ding1
1School of Artificial Intelligence and Computer Science, Jiangnan University, Wuxi, China.
Background And Objective:
Deep learning has achieved significant success in solving classification problems in the medical field, which has, in turn, facilitated the development of continuous and real-time health monitoring systems. Yet medical images have extremely low data regimes, unlike natural images with a large amount of data. Hence, to classify medical images with a few per-class data samples is a challenging problem. In this paper, we propose a novel few-shot learning scheme, which jointly embeds a model-driven mechanism and dual-cycle interactive strategy, to predict breast cancer molecular subtypes based on a few DCE-MRI samples.
Methods:
We present a unique spatio-temporal recurrent network classifier (STRNC) that predicts breast cancer molecular subtypes by learning spatial correlations and temporal dependencies in DCE-MRI. Moreover, the proposed dual-cycle interactive strategy (DCIS) formulates N-way C-shot tasks by applying task-specific adaptation to the support set and conducting meta-level evaluation on the query set, thus improving the model's generalization to unseen tasks.
Results:
Extensive experiments on public datasets have demonstrated that our proposed scheme achieves the best results, with a classification accuracy of 99.13 ±0.21 (%) for subtypes, and can accurately differentiate between individual molecular subtypes.
Conclusions:
Overall, our proposed method is able to learn spatial correlation and temporal dependence in DCE-MRI and has the potential to guide clinical typing prediction.

