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arXiv · 2407.14757

Enhancing Skin Disease Classification Leveraging Transformer-based Deep Learning Architectures and Explainable AI

Jayanth Mohan·Arrun Sivasubramanian·V Sowmya·Ravi Vinayakumar
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Abstract

Skin diseases affect over a third of the global population, yet their impact is often underestimated. Automating skin disease classification to assist doctors with their prognosis might be difficult. Nevertheless, due to efficient feature extraction pipelines, deep learning techniques have shown much promise for various tasks, including dermatological disease identification. This study uses a skin disease dataset with 31 classes and compares it with all versions of Vision Transformers, Swin Transformers and DivoV2. The analysis is also extended to compare with benchmark convolution-based architecture presented in the literature. Transfer learning with ImageNet1k weights on the skin disease dataset contributes to a high test accuracy of 96.48\% and an F1-Score of 0.9727 using DinoV2, which is almost a 10\% improvement over this data's current benchmark results. The performance of DinoV2 was also compared for the HAM10000 and Dermnet datasets to test the model's robustness, and the trained model overcomes the benchmark results by a slight margin in test accuracy and in F1-Score on the 23 and 7 class datasets. The results are substantiated using explainable AI frameworks like GradCAM and SHAP, which provide precise image locations to map the disease, assisting dermatologists in early detection, prompt prognosis, and treatment.

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Jayanth Mohan, Arrun Sivasubramanian, V Sowmya, Ravi Vinayakumar. 2024-07-20. Enhancing Skin Disease Classification Leveraging Transformer-based Deep Learning Architectures and Explainable AI. https://doi.org/10.1016/j.compbiomed.2025.110007

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