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Copyright: ©Author(s) 2026.
World J Methodol. Sep 20, 2026; 16(3): 117916
Published online Sep 20, 2026. doi: 10.5662/wjm.117916
Table 2 Artificial intelligence-driven predictive models for oncological outcomes
Outcome domain
Specific target
AI methodology
Key findings/performance
Clinical implication
HemodynamicsIntraoperative hypotensionGradient boosting; CNN-RNNAUROC 0.94; Accuracy 0.88; 6 endotypes[21,22]Preemptive endotype-specific treatment
HemodynamicsAnastomotic leakage (esophagectomy)Threshold analysisMAP < 65 mmHg: OR 1.02 per 10-minute[20]Avoid prolonged hypotension
ComplicationsAnastomotic leakage (colorectal)ANNSuperior sensitivity vs surgeons[13]Early intervention/diversion
ComplicationsCD ≥ 3 complicationsXGBoost with SHAPAUROC 0.77 (train), 0.73 (test)[6]Transparent risk stratification
NeurologicalPostoperative deliriumXGBoost (AI-delirium guard)AUC 0.85[31]Targeted prevention; web tool1
PainChronic postsurgical painStacking ensemble (EHR + Wearable)AUC 0.90; 89% accuracy[35]Precision analgesia intervention
PrognosisRecurrence (NSCLC)Cox regressionStage I: P = 0.036; stage II-III: NS[25]Stage-specific counseling
PrognosisMetastasis (cT1 lung)Random forest (MoLPre)AUC 0.92 (internal validation), 0.90 (external validation)[17]Online prediction tool2
PrognosisEarly recurrence (NSCLC)Stacking ensembleAUC 0.81 (test), 0.80 (external validation)[16]Adjuvant therapy decisions
Liver surgeryPost-Hepatectomy failureMultimodal ML (radiomics + clinical)Outperformed MELD/Child-Pugh[14]Resection vs transplant selection


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