Mathematical Modeling of Epidemic Spread: Predicting and Controlling Infectious Diseases
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https://doi.org/10.14419/15h4rp48
Received date: May 2, 2025
Accepted date: May 31, 2025
Published date: October 30, 2025
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Epidemic; Infection; Disease; Mathematical Model -
Abstract
Infectious diseases spread between individuals through direct or indirect contact. Microparasites, such as viruses and bacteria, and macroparasites, including flukes and helminths, are primarily responsible for causing a wide range of infectious diseases. Ecological and climatic changes increase the risk of pathogen emergence. Moreover, the evolution of pathogens makes it difficult to predict the spatio-temporal invasion of the diseases. HIV, smallpox, rabies, measles, dengue, and cholera are some of the diseases. For decades, these diseases have emerged: Zika, Ebola, Chikungunya, and others. Recently, these invaders have spread widely across the globe in just a few months. Infectious diseases can be a major economic problem for poor nations. Neglected tropical diseases lead to physical impairments and early deaths that hinder a nation's economic growth. Human-caused diseases harm both humans and animals, affecting economies and agriculture. Avian flu, foot-and-mouth disease, and viruses causing hemorrhage in fish all fall under this category of diseases. Because of significant financial damages in food production, farming industries, and the fisheries sectors annually. Furthermore, pathogens spread between species such as animals, birds, etc. Create the chance for humans to get sick.
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How to Cite
Pushparajesh , V. ., Singh , J. ., Kaushik , D. N. ., Parhi , D. M. ., Singh , H. ., Nandhini, D. S. U. . ., & Arora, A. . (2025). Mathematical Modeling of Epidemic Spread: Predicting and Controlling Infectious Diseases. International Journal of Basic and Applied Sciences, 14(SI-1), 308-313. https://doi.org/10.14419/15h4rp48
