LGJun 25, 2022

Integrating Machine Learning with Discrete Event Simulation for Improving Health Referral Processing in a Care Management Setting

arXiv:2206.12551v1h-index: 6
Originality Synthesis-oriented
AI Analysis

This work addresses process inefficiencies in healthcare systems for elderly and chronically ill patients, but it is incremental as it applies existing methods to a specific domain.

The paper tackled improving health referral processing in post-discharge care management by integrating machine learning with discrete event simulation, resulting in reduced average referral creation delay time.

Post-discharge care management coordinates patients' referrals to improve their health after being discharged from hospitals, especially elderly and chronically ill patients. In a care management setting, health referrals are processed by a specialized unit in the managed care organization (MCO), which interacts with many other entities including inpatient hospitals, insurance companies, and post-discharge care providers. In this paper, a machine-learning-guided discrete event simulation framework to improve health referrals processing is proposed. Random-forest-based prediction models are developed to predict the LOS and referral type. Two simulation models are constructed to represent the as-is configuration of the referral processing system and the intelligent system after incorporating the prediction functionality, respectively. By incorporating a prediction module for the referral processing system to plan and prioritize referrals, the overall performance was enhanced in terms of reducing the average referral creation delay time. This research will emphasize the role of post-discharge care management in improving health quality and reducing associated costs. Also, the paper demonstrates how to use integrated systems engineering methods for process improvement of complex healthcare systems.

Foundations

The foundational work for this paper's niche, ranked by how specifically the neighbourhood builds on it — not by global fame.

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