Aug 2026· DEN Open· Vol 7· 0 citations· 24 references
Medicine
TL;DR
No significant difference in sensitivity was observed between CADe and endoscopist detection for MGCs after ESD, and the absolute sensitivity remained low, so further improvements are needed before clinical implementation of CADe as a double‐checking tool.
Abstract
ABSTRACT Objectives Computer‐aided detection (CADe) using deep learning is promising for reducing missed gastric cancers (MGCs) and supporting physicians in double‐checking endoscopic images. We aimed to evaluate the CADe efficacy for MGCs after endoscopic submucosal dissection (ESD). Methods We collected 2324 endoscopic images, including 60 of MGCs detected during surveillance esophagogastroduodenoscopy within 18 months after initial ESD. The performance of the CADe system, developed for early GC detection using deep learning, was compared with that of 10 endoscopists in a detection study using collected images. Per‐lesion sensitivity, per‐image detection performance, and diagnostic time were compared. Results The per‐lesion sensitivity for MGCs was 15.0% (9/60) and 13.8% (83/600) for CADe and endoscopist detection, respectively (p = 0.538). The respective per‐image computer‐aided and endoscopist performance sensitivity was 11.3% and 10.6% (p = 0.548), specificity 88.5% and 94.8% (p < 0.001), positive predictive value 4.4% and 8.3%, and negative predictive value 95.7% and 96.0%. The per‐image CADe time was significantly shorter (0.03 s vs. 2.86 s, p < 0.001). CADe showed higher sensitivity in certain subgroups, although these findings should be interpreted cautiously given the small sample size. Conclusions No significant difference in sensitivity was observed between CADe and endoscopist detection for MGCs after ESD, and the absolute sensitivity remained low. Further improvements are needed before clinical implementation of CADe as a double‐checking tool. Trial Registration The authors have confirmed clinical trial registration is not needed for this submission.
A hybrid deep learning model that integrates YOLOv10 for polyp detection and feature extraction with a customized Convolutional Neural Network for the histological classification of colorectal polyps into hyperplastic and adenomatous categories is proposed.
Yao-Tien Chen, Debalke Embeyale Sahilu· International journal of ima...· 0 citations
PURPOSE
To investigate the clinical performance of a novel deep-learning based image reconstruction algorithm, namely artificial intelligence iterative reconstruction (AIIR), for assessing gastric cancer (GC) on CT.
MATERIALS AND METHODS
We prospectively enrolled 132 GC patients without history of treatment, all of w...
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A. Antzoulas, F. Mulita, Vasileios Leivaditis et al.· Journal of Clinical Medicine· 0 citations
Abstract Background and Study Aims The depth of early gastric cancer is an important factor in determining treatment plans, such as endoscopic resection or surgery. We developed an artificial intelligence (AI) program using deep neural networks to diagnose mucosal and submucosal cancers via endoscopic images. Performan...
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Bladder cancer is the most common malignancy of the urinary tract and is often treated with radical cystectomy with lymph node dissection, followed by a thorough pathological evaluation of the dissected nodes. This is crucial for both accurate prognosis and successful treatment. However, histopathological lymph node ex...
A. Gorczyński, Balázs Tarján, N. Neittaanmäki· Diagnostic Pathology· 0 citations
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