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Graph Neural Network for Predicting Fragmented Care Episodes Using Provider Networks, Encounter Sequences, Referral Patterns, Cross-Setting Utilization, and Unresolved Care Gap Indicators
Care fragmentation is a silent driver of adverse outcomes because it distributes responsibility for a patient’s care across multiple providers, settings, and transitions. It is often recognized only after duplication, missed follow-up, or contradictory management has already occurred. Fragmentation unfolds through networks of providers, referrals, encounters, and unresolved care tasks. Conventional prediction models often treat these events as independent patient-level variables rather than as relational patterns embedded in a care system. This article develops a conceptual graph neural network model for predicting the likelihood of fragmented care episodes. The proposed model uses provider networks, encounter sequences, referral patterns, cross-setting utilization, and unresolved care gap indicators as an integrated graph representation. A heterogeneous graph is constructed with patient and provider nodes, while edges represent encounters, referrals, shared patients, cross-setting transitions, and unresolved care gaps. A graph neural network learns patient embeddings from this relational structure and produces a fragmentation risk score for each patient-period. Conceptually, the model would identify patients at elevated risk of fragmentation, such as those moving across many disconnected providers, receiving repeated referrals, or accumulating open follow-up tasks. These signals could support earlier care coordination before avoidable gaps widen into adverse outcomes. The relational lens of graph neural networks could transform fragmentation prediction from a static risk scoring task into a network-aware early-warning system. Such a model would be expected to help health systems detect fragmented care episodes before they become operationally and clinically consequential.
Journal of Health Informatics and Digital Systems
Original Research | Open access | 20 July 2025 | Article: 114
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AI-driven Diagnostics Artificial Intelligence in Health Informatics Artificial Intelligence in Healthcare Big Data in Healthcare Clinical Data Mining Clinical Decision Support Systems Clinical Informatics Computer Vision Connected Health Systems Deep Learning Digital Health Digital Healthcare Innovation Digital Transformation in Healthcare Electronic Health Records Ethical AI in Healthcare Explainable AI Health Data Analytics Health Data Privacy Health Informatics Health Information Management Health Information Systems Health System Optimization Health Technology Assessment Healthcare Data Science Healthcare Informatics Healthcare Information Security Healthcare Management Healthcare Management Information Systems Intelligent Medical Systems Internet of Medical Things (IoMT) Interoperability in Healthcare Systems Machine Learning Medical Data Analytics Medical Data Management Medical Imaging Mobile Health (mHealth) Natural Language Processing Precision Medicine Predictive Analytics Remote Patient Monitoring Smart Healthcare Systems Telemedicine Wearable Health Technologies e-Health




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