BPG is committed to discovery and dissemination of knowledge
Minireviews
Copyright: ©Author(s) 2026.
World J Crit Care Med. Sep 9, 2026; 15(3): 120560
Published online Sep 9, 2026. doi: 10.5492/wjccm.120560
Table 2 Key artificial intelligence applications and methodologies in onco-critical care sepsis
Clinical application
Key AI/ML algorithms used
Primary data inputs
Demonstrated clinical impact
Early prediction of bacteremia in neutropeniaRandom forest, XGBoost, Support vector machinesRoutine hematological parameters (complete blood count + differential blood count trends), demographics[2,19]Predicts bacterial growth 2-5 days prior to culture results, reducing indiscriminate use of broad-spectrum antibiotics[2]
Early warning of septic shockDeepAISE (recurrent neural survival model), CNN-LSTMMoving time-windows of vital signs, continuous EHR physiological data[15,17]Identifies patient deterioration up to 12-24 hours before clinical onset, facilitating early administration of antimicrobials[20,25]
Integration of clinical notesLatent Dirichlet allocation, natural language processingFree-text physician progress notes, unstructured EHR data[17]Captures physician intuition and nuanced clinical status; significantly improves accuracy of predictions 12-48 hours ahead of onset[17]
ICU mortality predictionCatBoost, LightGBM, gradient boosting decision treesAge, minimum blood urea nitrogen, urine output, red cell distribution width, metastasis status, SOFA/APS III[3,4]Outperforms APACHE II/SOFA (AUC > 0.82-0.94); informs end-of-life and goals-of-care discussions[4,27,39]
Treatment optimizationReinforcement learning digital twinsHistorical treatment data, fluid balances, vasopressor responses[3,40]Optimizes individual fluid resuscitation and vasopressor titration, preventing volume overload and reducing mortality[3]


Write to the Help Desk