Ofira Zloto, Ofir Fogel, Guy Ben Simon, Mordechai Rosner, Vicktoria Vishnevskia-Dai, Avner Hostovsky, Eyal Klang
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For the benign category, a total of 373 images were sourced. By comparison, for the malignant category, 186 images were sourced. For the final model, at sensitivity of 93.8% (95% CI 80.0-100.0%), the model has a corresponding specificity of 73.7% (95% CI 60.0-87.1%). To further understand the decision-making process of our model, we employed heatmap visualization techniques, specifically gradient-weighted Class Activation Mapping.</p><p><strong>Discussion: </strong>This study introduces a dependable model-aided diagnostic technology for assessing eyelid skin lesions. The model demonstrated accuracy comparable to human evaluation, effectively determining whether a lesion raises a high suspicion of malignancy or is benign. 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引用次数: 0
摘要
目的:开发一种基于机器学习的自动诊断眼睑皮肤恶性肿瘤的新框架:本研究使用的眼睑病变图像来自以色列一家大型三级医疗中心--Sheba医疗中心。在模型训练之前,我们在由 25332 张图像组成的国际皮肤成像协作组织(ISIC)2019 数据集上对模型进行了预训练。然后使用专有眼睑数据集进行微调。该数据集包含每位患者的多幅图像,旨在对恶性病变与良性病变进行比较分类:分析的数据集包括代表眼睑良性和恶性病变的图像。良性病变共有 373 张图像。相比之下,在恶性病变类别中,共获取了 186 张图像。最终模型的灵敏度为 93.8%(95% CI 80.0-100.0%),特异度为 73.7%(95% CI 60.0-87.1%)。为了进一步了解模型的决策过程,我们采用了热图可视化技术,特别是梯度加权类活化图:本研究引入了一种可靠的模型辅助诊断技术,用于评估眼睑皮肤病变。该模型的准确性可与人类评估相媲美,能有效判断病变是高度怀疑恶性还是良性。这种模型有可能减轻医疗系统的负担,特别是惠及农村地区,并提高临床医生和整体医疗保健的效率。
Computer-aided diagnosis of eyelid skin tumors using machine learning.
Objective: To develop an automated, new framework based on machine learning to diagnose malignant eyelid skin tumors.
Methods: This study used eyelid lesion images from Sheba Medical Center, a large tertiary center in Israel. Before model training, we pretrained our models on the International Skin Imaging Collaboration (ISIC) 2019 dataset consisting of 25,332 images. The proprietary eyelid data set was then used for fine-tuning. The data set contained multiple images per patient, aiming to classify malignant lesions in comparison to benign counterparts.
Results: The analyzed data set consisted of images representing both benign and malignant eyelid lesions. For the benign category, a total of 373 images were sourced. By comparison, for the malignant category, 186 images were sourced. For the final model, at sensitivity of 93.8% (95% CI 80.0-100.0%), the model has a corresponding specificity of 73.7% (95% CI 60.0-87.1%). To further understand the decision-making process of our model, we employed heatmap visualization techniques, specifically gradient-weighted Class Activation Mapping.
Discussion: This study introduces a dependable model-aided diagnostic technology for assessing eyelid skin lesions. The model demonstrated accuracy comparable to human evaluation, effectively determining whether a lesion raises a high suspicion of malignancy or is benign. Such a model has the potential to alleviate the burden on the health care system, particularly benefiting rural areas, and enhancing the efficiency of clinicians and overall health care.