A new time-decay radiomics integrated network (TRINet) for breast cancer risk prediction
Document Type
Article
Publication Date
1-1-2026
Abstract
To facilitate early detection of breast cancer, there is a need to develop risk prediction schemes that can prescribe personalized screening mammography regimens for women. In this study, we propose a new deep learning architecture called TRINet that implements time-decay attention to focus on recent mammographic screenings, as current models do not account for the relevance of newer images. We integrate radiomic features with an Attention-based Multiple Instance Learning (AMIL) framework to weigh and combine multiple views for better risk estimation. In addition, we introduce a continual learning approach with a new label assignment strategy based on bilateral asymmetry to make the model more adaptable to asymmetrical cancer indicators. Finally, we add a time-embedded additive hazard layer to perform dynamic, multi-year risk forecasting based on individualized screening intervals. We used two public datasets, namely 8528 patients from the American EMBED dataset and 8723 patients from the Swedish CSAW dataset in our experiments. Evaluation results on the EMBED test set show that our approach performs comparably with state-of-the-art models, achieving AUC scores of 0.851, 0.811, 0.796, 0.793, and 0.789 across 1-, 2-, to 5-year intervals, respectively. Our results underscore the importance of integrating temporal attention, radiomic features, time embeddings, bilateral asymmetry, and continual learning strategies, providing a more adaptive and precise tool for breast cancer risk prediction.
Keywords
Cancer risk prediction, Computer-aided diagnosis, Mammography, Radiomics
Publication Title
Medical Image Analysis
ISSN
1361-8415
DOI
10.1016/j.media.2025.103829
Recommended Citation
Yeoh, Hong Hui; Strand, Fredrik; Phan, Raphaël; Rahmat, Kartini; and Tan, Maxine, "A new time-decay radiomics integrated network (TRINet) for breast cancer risk prediction" (2026). Research Publications (2026 to 2030). 2017.
https://knova.um.edu.my/research_publications_2026_2030/2017
Volume
107
Publisher
Elsevier