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PREDICTIVE CHRONIC DISEASE SURVEILLANCE FRAMEWORK: INTEGRATING MACHINE LEARNING, REAL-TIME DATA, AND PUBLIC HEALTH RESPONSE

Sep 2026 · World Journal of Advanced Research and Reviews · 0 citations

TL;DR

The Predictive Chronic Disease Surveillance Framework is presented, a framework for using multiple data sources and machine learning to estimate changing population-level risk and to connect those estimates to public health action and to connect those estimates to public health action.

Abstract

Chronic disease surveillance is an essential part of public health because it helps governments and health organizations understand the burden of disease, identify risk factors, recognize disparities, and track changes in health outcomes. Most existing surveillance systems, however, are mainly concerned with describing what has already happened. The growing use of electronic health records, wearable devices, environmental sensors, administrative databases, and other continuously generated sources of information creates an opportunity to move surveillance toward a more forward-looking approach. This article presents the Predictive Chronic Disease Surveillance Framework (PCDSF), a framework for using multiple data sources and machine learning to estimate changing population-level risk and to connect those estimates to public health action. The framework treats predictive surveillance as a continuous cycle: data are collected and combined, population risk is estimated, emerging patterns are identified, decisions are made, interventions are implemented, and the resulting outcomes are fed back into the system. This makes surveillance an ongoing learning process rather than a one-way reporting exercise. The framework also makes an important distinction between predicting disease in an individual patient and predicting changes in risk across populations. Its purpose is not simply to identify who is likely to become ill, but to help public health organizations understand where risk is increasing, which groups may be most affected, and where preventive resources could have the greatest impact. Six propositions are developed around multimodal data integration, timely updating, predictive performance, intervention, equity, and continuous learning. The article also discusses privacy, interoperability, data quality, algorithmic bias, transparency, and organizational capacity as conditions that can determine whether predictive surveillance works in practice.

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