Artificial Intelligence as a Bridge to Gaps in Delirium Prediction, Detection, and Management

ABSTRACT Background Delirium affects up to one‐third of hospitalized older adults and is associated with adverse outcomes. Despite its clinical importance and the availability of validated screening tools, current care gaps extend beyond under‐recognition to inconsistent risk stratification, workforce constraints, documentation burden, fragmented intervention delivery, and practical challenges with monitoring of response. We review how artificial intelligence (AI) could bridge these gaps and distinguish model development and validation, real‐world clinical implementation, and emerging concepts in delirium care. Results Prediction models leveraging multimodal health record data, including structured variables and unstructured clinical notes, report good discrimination for delirium risk stratification, but only a few models have been integrated into clinical practice. A live multimodal machine learning model increased targeted delirium detection, yet a pre‐post comparative study found a longer length of stay; improved recognition alone therefore does not equate with improved outcomes. Natural language processing, large language models, computer vision, ambient sensing, and wearable technologies enable more continuous, objective, and less labor‐intensive assessment compared with traditional screening methods, but evidence remains limited with concerns about false positives and generalizability. AI‐supported delirium management through reinforcement learning and digital twins is currently largely conceptual. Responsible AI adoption requires a clearly defined intended use, external validation, action pathways, equitable performance, privacy and security, consent and transparency, clinician oversight, patient preferences, and post‐deployment monitoring. Conclusion AI is most defensible as an adjunct that connects evidence‐based delirium care to reliable execution rather than as a replacement for clinical assessment. Prospective comparative studies should evaluate patient outcomes, resource use, and balancing measures.

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Publication Details

Journal
Journal of the American Geriatrics Society
Published
2026-11-05
DOI
https://doi.org/10.1111/jgs.70823
Primary Topic
Intensive Care Unit Cognitive Disorders
Type
article
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article

Artificial Intelligence as a Bridge to Gaps in Delirium Prediction, Detection, and Management

Mfon E. Umoh, Heidi L. Lindroth, Tru Byrnes, David E. Karol et al.
Journal of the American Geriatrics Society
Intensive Care Unit Cognitive Disorders
article

Artificial Intelligence as a Bridge to Gaps in Delirium Prediction, Detection, and Management

Mfon E. Umoh, Heidi L. Lindroth, Tru Byrnes, David E. Karol, Lara Magnabosco, Sunyang Fu, Esther S. Oh, Min Ji Kwak, Sandeep R. Pagali, Ariba Khan, Marie Pavini, the American Delirium Society Innovation in Delirium Special Interest Group
article en

Abstract

ABSTRACT Background Delirium affects up to one‐third of hospitalized older adults and is associated with adverse outcomes. Despite its clinical importance and the availability of validated screening tools, current care gaps extend beyond under‐recognition to inconsistent risk stratification, workforce constraints, documentation burden, fragmented intervention delivery, and practical challenges with monitoring of response. We review how artificial intelligence (AI) could bridge these gaps and distinguish model development and validation, real‐world clinical implementation, and emerging concepts in delirium care. Results Prediction models leveraging multimodal health record data, including structured variables and unstructured clinical notes, report good discrimination for delirium risk stratification, but only a few models have been integrated into clinical practice. A live multimodal machine learning model increased targeted delirium detection, yet a pre‐post comparative study found a longer length of stay; improved recognition alone therefore does not equate with improved outcomes. Natural language processing, large language models, computer vision, ambient sensing, and wearable technologies enable more continuous, objective, and less labor‐intensive assessment compared with traditional screening methods, but evidence remains limited with concerns about false positives and generalizability. AI‐supported delirium management through reinforcement learning and digital twins is currently largely conceptual. Responsible AI adoption requires a clearly defined intended use, external validation, action pathways, equitable performance, privacy and security, consent and transparency, clinician oversight, patient preferences, and post‐deployment monitoring. Conclusion AI is most defensible as an adjunct that connects evidence‐based delirium care to reliable execution rather than as a replacement for clinical assessment. Prospective comparative studies should evaluate patient outcomes, resource use, and balancing measures.

Journal of the American Geriatrics Society
University of Vermont (US), Aurora Health Care (US), Regenstrief Institute (US), Mayo Clinic (US), Johns Hopkins University (US), Johns Hopkins Medicine (US), Carolinas Medical Center (US), Houston Health and Human Services Department (US), The University of Texas Health Science Center (US), Indiana University Indianapolis (US), Indiana University School of Medicine (US), University of Cincinnati (US), The University of Texas Health Science Center at Houston (US)
Openalex Percentile: Top 13%
Intensive Care Unit Cognitive Disorders
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