Thyroid Cytopathology Cancer Diagnosis from Smartphone Images Using Machine Learning

被引:9
作者
Assaad, Serge [1 ]
Dov, David [2 ,3 ]
Davis, Richard [3 ]
Kovalsky, Shahar [4 ]
Lee, Walter T.
Kahmke, Russel [5 ]
Rocke, Daniel [5 ]
Cohen, Jonathan [5 ]
Henao, Ricardo [1 ,6 ]
Carin, Lawrence [1 ,6 ]
Range, Danielle Elliott [3 ]
机构
[1] Duke Univ, Dept Elect & Comp Engn, Durham, NC USA
[2] Tel Aviv Sourasky Med Ctr, I Medata AI Ctr, Tel Aviv, Israel
[3] Duke Univ, Dept Pathol, Med Ctr, Durham, NC 27710 USA
[4] Univ N Carolina, Dept Math, Chapel Hill, NC USA
[5] Duke Univ, Dept Head & Neck Surg & Commun Sci, Med Ctr, Durham, NC USA
[6] King Abdullah Univ Sci & Technol, Thuwal, Saudi Arabia
基金
美国国家卫生研究院;
关键词
cytopathology; fine needle aspiration; machine learning; mobile imaging; thyroid; BETHESDA SYSTEM; CARCINOMA; MODEL;
D O I
10.1016/j.modpat.2023.100129
中图分类号
R36 [病理学];
学科分类号
100104 ;
摘要
We examined the performance of deep learning models on the classification of thyroid fine-needle aspiration biopsies using microscope images captured in 2 ways: with a high-resolution scanner and with a mobile phone camera.Our training set consisted of images from 964 whole-slide images captured with a high-resolution scanner. Our test set consisted of 100 slides; 20 manually selected regions of interest (ROIs) from each slide were captured in 2 ways as mentioned above.Applying a baseline machine learning algorithm trained on scanner ROIs resulted in performance deterioration when applied to the smartphone ROIs (97.8% area under the receiver operating characteristic curve [AUC], CI = [95.4%, 100.0%] for scanner images vs 89.5% AUC, CI = [82.3%, 96.6%] for mobile images, P = .019). Preliminary analysis via histogram matching shows that the baseline model is overly sensitive to slight color variations in the images (specifically, to color differences between mobile and scanner images). Adding color augmentation during training reduces this sensitivity and narrows the performance gap between mobile and scanner images (97.6% AUC, CI = [95.0%, 100.0%] for scanner images vs 96.0% AUC, CI = [91.8%, 100.0%] for mobile images, P = .309), with both modalities on par with human pathologist performance (95.6% AUC, CI = [91.6%, 99.5%]) for malignancy prediction (P = .398 for pathologist vs scanner and P = .875 for pathologist vs mobile). For indeterminate cases (pathologistassigned Bethesda category of 3, 4, or 5), color augmentations confer some improvement (88.3% AUC, CI = [73.7%, 100.0%] for the baseline model vs 96.2% AUC, CI = [90.9%, 100.0%] with color augmentations, P = .158). In addition, we found that our model's performance levels off after 15 ROIs, a promising indication that ROI data collection would not be time-consuming for our diagnostic system. Finally, we showed that the model has sensible Bethesda category (TBS) predictions (increasing risk malignancy rate with predicted TBS category, with 0% malignancy for predicted TBS 2 and 100% malignancy for TBS 6).(c) 2023 United States & Canadian Academy of Pathology. Published by Elsevier Inc. All rights reserved.
引用
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页数:9
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