Machine Learning-Driven Decision-Support System for Nursing Risk Assessment in Post-Discharge Care: A Design Science Approach
Santos, M. M.; Peyroteo, M.; Lapao, L. V.
Show abstract
Hospital readmissions represent a persistent challenge for healthcare systems, often stemming from inadequate post-discharge monitoring. This study presents a Machine Learning (ML)-driven Clinical Decision Support System (CDSS) designed to enhance nursing risk assessment in post-discharge care. Developed using a Design Science Research Methodology, the artefact integrates a digital questionnaire, an ML-based risk stratification model, and a real-time dashboard to optimise follow-up processes. The system was developed at a medical-surgical inpatient unit of a private hospital in Portugal. A retrospective dataset of 10,134 structured telephone follow-up records, classified by nurses into three risk levels--stable (A), requiring reassessment (B), and clinically concerning (C)--was used to train and evaluate the ML model. Among the evaluated classifiers, Logistic Regression was selected for deployment based on its high specificity (0.9993), precision (0.9879), and absence of critical false negatives, despite slightly lower recall compared to XGBoost. The CDSS enables real-time risk classification based on patient-reported outcomes, supporting timely identification and prioritisation of patients requiring clinical attention. Simulation results indicate a potential reduction of up to 79% in nurse follow-up workload, while preserving care quality by focusing resources on moderate- and high-risk patients. Although direct evidence of reduced readmissions is not yet available, the system aligns with established best practices in transitional care. This study demonstrates the feasibility and utility of ML-based dynamic risk stratification for post-discharge monitoring, offering a scalable and interpretable solution that enhances clinical decision-making and resource allocation in nursing practice.
Matching journals
The top 7 journals account for 50% of the predicted probability mass.
Similar papers in this journal
- Development and Validation of ‘Patient Optimizer’ (POP) Algorithms for Predicting Surgical Risk with Machine Learning 94%
- Implicit bias in Critical Care Data: Factors affecting sampling frequencies and missingness patterns of clinical and biological variables in ICU Patients 94%
- On the predictability of postoperative complications for cancer patients: a Portuguese cohort study 93%
Similar papers in this journal
- Design and implementation of a system for automated monitoring of adherence to evidenced-based clinical guideline recommendations 96%
- Improving Patient Engagement in Phase 2 Clinical Trials with a Trial-specific Patient Decision Aid (tPDA): A Development and Usability Study 94%
- Understanding how the design and implementation of Online Consultations influence primary care outcomes: Systematic review of evidence with recommendations for designers, providers, and researchers 94%
Similar papers in this journal
- Development and preliminary testing of Health Equity Across the AI Lifecycle (HEAAL): A framework for healthcare delivery organizations to mitigate the risk of AI solutions worsening health inequities 94%
- Identification of predictive patient characteristics for assessing the probability of COVID-19 in-hospital mortality 94%
- From theoretical models to practical deployment: A perspective and case study of opportunities and challenges in AI-driven healthcare research for low-income settings 93%
Similar papers in this journal
- Development and Validation of a Machine Learning Model Integrated with the Clinical Workflow for Inpatient Discharge Date Prediction 97%
- Large Language Models in Real-World Clinical Workflows: A Systematic Review of Applications and Implementation 93%
- Implementing Home-Based Digital Health in Rural Canada: A Scoping Review 92%
Similar papers in this journal
"Similar papers" are the closest papers from that journal in the model's embedding space. They show what the match is built on, but the ranking comes mostly from a classifier over the whole training set, not from these examples alone.