Objective: To directly compare the diagnostic accuracy of deep learning models with human experts and other diagnostic methods used for the clinical detection of oral cancer. Methods: Comparative diagnostic studies involving patients with photographic images of oral mucosal lesions (cancer or non-cancer) were included. Only studies using deep learning methods were eligible. Medline, EMBASE, Scopus, Google Scholar, and ClinicalTrials.gov were searched until September 2024. QUADAS-C assessed the risk of bias. A Bayesian meta-analysis compared diagnostic test accuracy. Results: Eight studies were included, none of which had a low risk of bias. Three studies compared deep learning versus human experts. The difference in sensitivity favored deep learning by 0.024 (95% CI: −0.093, 0.206), while the difference in specificity favored human experts by −0.041 (95% CI: −0.218, 0.038). Two studies compared deep learning versus postgraduate medical students. The differences in sensitivity and specificity favored deep learning by 0.108 (95% CI: −0.038, 0.324) and by 0.010 (95% CI: −0.119, 0.111), respectively. Both comparisons provided low-level evidence. Conclusions: Deep learning models showed comparable sensitivity and specificity to human experts. These models outperformed postgraduate medical students in terms of sensitivity. Prospective clinical trials are needed to evaluate the real-world performance of deep learning models.
Diagnosis of Oral Cancer With Deep Learning. A Comparative Test Accuracy Systematic Review / Nieri, M., Serni, L., Clauser, T., Paoletti, C., Franchi, L.. - In: ORAL DISEASES. - ISSN 1601-0825. - STAMPA. - 31:(2025), pp. 2368-2381. [10.1111/odi.15330]
Diagnosis of Oral Cancer With Deep Learning. A Comparative Test Accuracy Systematic Review
Nieri, Michele;Serni, Lapo
;Clauser, Tommaso;Paoletti, Costanza;Franchi, Lorenzo
2025
Abstract
Objective: To directly compare the diagnostic accuracy of deep learning models with human experts and other diagnostic methods used for the clinical detection of oral cancer. Methods: Comparative diagnostic studies involving patients with photographic images of oral mucosal lesions (cancer or non-cancer) were included. Only studies using deep learning methods were eligible. Medline, EMBASE, Scopus, Google Scholar, and ClinicalTrials.gov were searched until September 2024. QUADAS-C assessed the risk of bias. A Bayesian meta-analysis compared diagnostic test accuracy. Results: Eight studies were included, none of which had a low risk of bias. Three studies compared deep learning versus human experts. The difference in sensitivity favored deep learning by 0.024 (95% CI: −0.093, 0.206), while the difference in specificity favored human experts by −0.041 (95% CI: −0.218, 0.038). Two studies compared deep learning versus postgraduate medical students. The differences in sensitivity and specificity favored deep learning by 0.108 (95% CI: −0.038, 0.324) and by 0.010 (95% CI: −0.119, 0.111), respectively. Both comparisons provided low-level evidence. Conclusions: Deep learning models showed comparable sensitivity and specificity to human experts. These models outperformed postgraduate medical students in terms of sensitivity. Prospective clinical trials are needed to evaluate the real-world performance of deep learning models.| File | Dimensione | Formato | |
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