Copyright: ©Author(s) 2026.
Artif Intell Gastroenterol. Aug 8, 2026; 7(2): 123751
Published online Aug 8, 2026. doi: 10.35712/aig.123751
Published online Aug 8, 2026. doi: 10.35712/aig.123751
Table 2 Categorization of artificial intelligence and machine learning techniques according to research theme and representative studies in abdominal tuberculosis
| Theme | Imaging/point data | Clinical/areal data | Key techniques | Representative original studies (n = 16) |
| Intestinal tuberculosis vs Crohn’s disease | Endoscopy images (white-light colonoscopy), CT/MRE radiomics, histopathology WSI, ATR-FTIR spectroscopy | Clinical/EHR parameters, nomograms, T-SPOT, pulmonary TB history | CNN/deep learning (U-Net, ResNet), radiomics (handcrafted + deep learning), XGBoost, few-shot learning (Xception), NLP/TextCNN (debiased), multimodal fusion, SHAP/LIME/attention maps explainability | Park et al[17], 2025; Cheng et al[18], 2024; Shu et al[19], 2024; Liu et al[21], 2024; Li et al[22], 2024; Lin et al[23], 2024; Gong et al[26], 2023; Lu et al[27], 2023; Chen et al[28], 2022; Weng et al[29], 2022; Zhu et al[30], 2021; Kim et al[31], 2021; Tong et al[32], 2020 |
| Peritoneal tuberculosis vs carcinomatosis | CT (omental/peritoneal signs, ascites, lymph nodes, scalloping) | Omental/peritoneal imaging signs | Machine learning ensembles, radiomics (shape, first-order, texture features) | Pang et al[25], 2023 |
| Nodal tuberculosis vs lymphoma | Contrast-enhanced CT (lymph node features) | Lymph-node morphological/textural features | Radiomics (logistic regression/SVM) | Shen et al[24], 2024 |
| Multimodal integration | Fusion of MRE radiomics + colonoscopy images + histopathology WSI | Integrated clinical + endoscopic + radiological + pathological features | Multidisciplinary fusion models (LASSO + logistic regression), fusion correlation neural networks | Lu et al[20], 2024; Chen et al[28], 2022 |
| Novel/emerging approaches | Few-shot endoscopic images, ATR-FTIR spectroscopy, noisy EHR text | Clinical parameters (for few-shot/explainable models) | Few-shot learning (dual transfer), spectroscopy + XGBoost/ML, debiased TextCNN (NLP), explainable AI (SHAP, LIME, integrated gradients, attention maps) | Lin et al[23], 2024; Li et al[22], 2024; Lu et al[27], 2023 (also embedded in multiple intestinal TB vs CD studies above) |
- Citation: Kaushik K, Pathania J, Singh PK, Dinkar M, Pathania V. Artificial intelligence and machine learning applications in abdominal tuberculosis diagnosis: A scoping review and translational roadmap. Artif Intell Gastroenterol 2026; 7(2): 123751
- URL: https://www.wjgnet.com/2644-3236/full/v7/i2/123751.htm
- DOI: https://dx.doi.org/10.35712/aig.123751