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Mathematical Models in Epidemiology: Bridging Theoretical Insights and Practical Applications

Authors: Kanchan Vishwakarma

Published: 2025-02-21 14:11:40.905

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Abstract

Mathematical models are very crucial in epidemiology, as they provide both theoretical insights and practical applications for public health interventions. This paper explores their transformative impact across five core areas: predicting disease outbreaks, evaluating public health interventions, integrating diverse data sources, addressing model uncertainty and parameter estimation, and analyzing the effects of model-driven policy decisions. This study uses a quantitative approach by analyzing independent variables such as model parameters and data inputs against the dependent variables that include prediction accuracy, intervention efficacy, and policy impact. Validations are carried out to check whether advanced models can indeed improve the accuracy of prediction, enhance assessment of interventions, and inform policies based on evidence. Despite considerable progress, real-time integration of data, quantification of uncertainty, and long-term reliability of models continue to pose significant challenges. Future research should focus on overcoming these limitations to fully realize the potential of mathematical models in advancing epidemiological research and public health outcomes.

Keywords

Mathematical models, Parameter estimation, Policy decisions, Quantitative methodology

References

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How to Cite

Kanchan Vishwakarma, (2025-02-21 14:11:40.905). Mathematical Models in Epidemiology: Bridging Theoretical Insights and Practical Applications. Abhi International Journal of Mathematical Science, Volume hJHWKRPYd65OJwN6Zw4y, Issue 1.

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