Predict–Prevent–Protect: An Explainable AI-Driven Patient-Centred Early-Warning and Intervention System to Prevent Leave Against Medical Advice and Improve Continuity of Care
Ajit Pal Singh *
Department of Medical Lab Technology, School of Medical and Allied Sciences, Galgotias University, Greater Noida, Uttar Pradesh, India.
Abhay Mishra
Department of Healthcare Management, School of Allied Health Sciences, Galgotias University, Greater Noida, Uttar Pradesh, India.
*Author to whom correspondence should be addressed.
Abstract
Background: Leave Against Medical Advice (LAMA), also termed Discharge Against Medical Advice (DAMA), is a clinically important event associated with interrupted treatment, avoidable care gaps, readmission and other adverse outcomes. Existing evidence indicates that LAMA is influenced by interacting clinical, socioeconomic, behavioural, communication and health-system factors. Although recent machine-learning studies demonstrate that LAMA/DAMA can be predicted from routinely collected electronic health record (EHR) and hospital data, prediction alone does not address the modifiable reasons that precipitate premature departure.
Objective: To develop and prospectively evaluate an explainable, patient-centred artificial intelligence (AI) early-warning and intervention system that links risk prediction to human-led preventive action and a structured continuity-of-care pathway.
Methods: We propose a prospective, pragmatic, mixed-methods, two-phase study. Phase I will develop and temporally evaluate candidate prediction models using routinely collected clinical, operational and patient-centred data. Candidate approaches will include regularised logistic regression, random forest and gradient-boosting models. Performance will be assessed using discrimination, calibration, decision-curve analysis, operational utility, temporal stability and subgroup fairness. Phase II will prospectively evaluate a human-in-the-loop intervention using a stepped-wedge or controlled before-and-after design, subject to institutional feasibility and ethical approval. Explainable model outputs will identify potentially modifiable contributors to elevated risk and trigger proportionate clinical, communication, social-support and care-coordination interventions. When a patient continues to choose LAMA, a structured Protect pathway will minimise avoidable harm through medication reconciliation, return precautions, follow-up planning and post-discharge contact.
Expected Results: The study is a research protocol and conceptual implementation framework; therefore, no empirical results are claimed. Expected outputs include a temporally evaluated prediction model, an actionable explanation layer, estimates of intervention effects on LAMA and continuity-of-care outcomes, subgroup fairness analyses and implementation measures.
Conclusion: The Predict–Prevent–Protect framework shifts the role of AI from retrospective risk labelling towards proactive, patient-centred risk reduction while preserving autonomy and clinician accountability. Prospective clinical evaluation is required to determine whether this closed-loop approach reduces avoidable LAMA and downstream harm without increasing inequity, alert burden or loss of trust.
Keywords: Leave against medical advice, discharge against medical advice, LAMA, DAMA, artificial intelligence, machine learning, explainable artificial intelligence, clinical decision support, patient-centred care, continuity of care, readmission, care transitions