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Purpose <p>To develop and validate a deep-learning model for detecting choroidal metastasis and predicting primary cancer sites using ultra-widefield fundus photography (UWFP).</p> Methods <p>This retrospective cohort study utilized 719 UWFP images from 112 patients with choroidal metastasis and 288 normal photos from 288 patients treated at Severance Hospital between 2005 and 2023. A Vision Transformer model, enhanced by transfer learning and image augmentation, was developed and evaluated using AUROC, accuracy, sensitivity, and specificity. Cross-validation, bootstrap sampling, and ablation studies were conducted to ensure robustness and interpretability.</p> Results <p>The model achieved an AUROC of 0.96 for detecting choroidal metastases, significantly outperforming ophthalmologists (AUROC 0.69). Incorporating age and sex information enhanced model performance, yielding AUROCs of 0.87 for lung cancer and 0.96 for breast cancer. Ablation studies confirmed that fundus image features were the primary contributors to classification.</p> Conclusion <p>The developed deep-learning model shows significant potential not only in detecting choroidal metastases but, more importantly, in predicting their primary cancer origins from UWFP images. This capability could serve as a valuable adjunct in clinical decision-making by guiding more targeted and efficient systemic evaluations, particularly in patients with undiagnosed primary cancers.</p>

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A deep-learning model for detecting choroidal metastases and predicting primary tumors from ultra-widefield fundus imaging

  • 期刊论文

  • 发表日期：

    2025年11月11日

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  • Hyo Jin Seong,
  • Choonghan Kim,
  • Jinho Chang,
  • Jiho Cha,
  • Christopher Seungkyu Lee

摘要

Purpose

To develop and validate a deep-learning model for detecting choroidal metastasis and predicting primary cancer sites using ultra-widefield fundus photography (UWFP).

Methods

This retrospective cohort study utilized 719 UWFP images from 112 patients with choroidal metastasis and 288 normal photos from 288 patients treated at Severance Hospital between 2005 and 2023. A Vision Transformer model, enhanced by transfer learning and image augmentation, was developed and evaluated using AUROC, accuracy, sensitivity, and specificity. Cross-validation, bootstrap sampling, and ablation studies were conducted to ensure robustness and interpretability.

Results

The model achieved an AUROC of 0.96 for detecting choroidal metastases, significantly outperforming ophthalmologists (AUROC 0.69). Incorporating age and sex information enhanced model performance, yielding AUROCs of 0.87 for lung cancer and 0.96 for breast cancer. Ablation studies confirmed that fundus image features were the primary contributors to classification.

Conclusion

The developed deep-learning model shows significant potential not only in detecting choroidal metastases but, more importantly, in predicting their primary cancer origins from UWFP images. This capability could serve as a valuable adjunct in clinical decision-making by guiding more targeted and efficient systemic evaluations, particularly in patients with undiagnosed primary cancers.