Copyright: ©Author(s) 2026.
Artif Intell Gastroenterol. Aug 8, 2026; 7(2): 119658
Published online Aug 8, 2026. doi: 10.35712/aig.v7.i2.119658
Published online Aug 8, 2026. doi: 10.35712/aig.v7.i2.119658
Table 1 Artificial intelligence and computed tomography colonography review
| Ref. | CT colonography | |
| Song et al[16], 2014 | Virtual pathological model exploring texture features to differentiate neoplastic from non-neoplastic lesions | 148 colon lesions; AUC: 0.74 (using the image intensity alone) to 0.85 (considering the gradient and curvature images) |
| Taylor et al[17], 2008 | Computer-aided detection software to detect flat early colon carcinoma | 24 flat T1 tumors; CAD detected 20 (83.3%), 17 (70.8%), and 13 (54.1%) of the 24 cancers at filter settings of 0, 0.75, and 1 |
| Grosu et al[18], 2025 | AI-assisted differentiation of adenomatous and non-adenomatous colorectal polyps as compared to standard radiology reading | 59 patients, 118 polyps; AI-assisted readings with higher accuracy (76% ± 1% vs 84% ± 1%), sensitivity (78% ± 6% vs 85% ± 1%), and specificity (73% ± 8% vs 82% ± 2%) in selecting polyps eligible for polypectomy (P < 0.001) |
| Alkabbany et al[19], 2022 | AI-based fusion of 2D projections with 3D colon representation images to generate new synthetic images used to train a RetinaNet model to detect polyps | 49 patients, 59 Polyps; 94% f1-score and 97% sensitivity |
| Endo et al[20], 2025 | Deep-learning-based AI algorithm developed to improve the detection of polyps | 92 lesions in the interval validation dataset; sensitivity of 0.815, 0.738, and 0.883 for lesions ≥ 6 mm, 6 mm to 10 mm, and ≥ 10 mm, respectively |
Table 2 Artificial intelligence and colon capsule endoscopy review
| Colon capsule endoscopy | Deep-learning models using convolutional neural networks to better detect colonic abnormalities | |
| Ref. | Model designed to detect | |
| Ribeiro et al[22], 2025 | Ulcers and erosions | 124 CCE exams; AUC: 1.00; accuracy: 99.6%, sensitivity: 96.9%, specificity: 99.9%; overall accuracy: 99.6% |
| Mascarenhas et al[23], 2022 | Intraluminal blood and mucosal lesions | 124 CCE exams; mean sensitivity: 96.3% and specificity: 98.2%; mucosal lesions - sensitivity: 92.0%, specificity: 98.5%; blood - sensitivity: 97.2%, specificity: 99.9% |
| Mascarenhas et al[24], 2022 | Protruding lesions | 124 CCE exams; AUC: 0.99; accuracy: 95.3%, sensitivity: 90.0%, specificity: 99.1%, PPV: 98.6%, NPV: 93.2% |
| Saraiva et al[25], 2021 | Protruding lesions | 24 CCE exams; AUC: 0.97; sensitivity: 90.7%, specificity: 92.6%, PPV: 79.2%, NPV: 96.9% |
| Blanes-Videl et al[26], 2019 | Polyps, compared to trained endoscopists | 250 patients; accuracy: 96.4%, sensitivity: 97.1%, specificity: 93.3% |
| Gilabert et al[27], 2022 | Polyps, and evaluate the reviewing time compared to the classical linear review software | 18 studies; reviewing time was reduced by a factor of 6, and polyp detection sensitivity was increased from 81.08% to 87.80% |
| Yamada et al[28], 2021 | Polyps and cancers | 15933 CCE images; AUC: 0.902; accuracy: 83.9%, sensitivity: 79.0%, specificity: 87.0% |
- Citation: Herman K, Busbait SA, Chitragari G, Mittal VK, Bhullar JS. Expanding the use of artificial intelligence in non-invasive colorectal cancer screening. Artif Intell Gastroenterol 2026; 7(2): 119658
- URL: https://www.wjgnet.com/2644-3236/full/v7/i2/119658.htm
- DOI: https://dx.doi.org/10.35712/aig.v7.i2.119658