Citation
Salman, Amer M. and Mohd Hafiz Mohd, . (2024) Sustainable COVID-19 control measures: a mathematical modelling study. Journal of Sustainability Science and Management (Malaysia), 19 (6). pp. 25-35. ISSN 2672-7226
Abstract
Mathematical modelling techniques have become essential in predicting the consequences of viral disease outbreaks and in planning sustainable preventative measures to curb their transmission dynamics. To better understand the sustainable evolution of the control measures’ impacts on the COVID-19 transmissions, a reaction-diffusion system is employed to describe the epidemiological phenomenon through two processes: (i) a reaction process of SEIRS-type (Susceptible, Exposed, Infected, Recovered, and Susceptible) kinetics; (ii) a diffusion process that models local dispersal of individuals through the incorporation of spatial dimension. Optimal control theory and numerical simulation studies are performed to examine the combined effects of reinfection, spatial dispersal process, and distinct control measures on the severity of the outbreaks. The results indicate the effectiveness of implementing adequate control measures vaccination and treatments to prevent further disease outbreaks and minimise the number of infected cases. The insights from these modelling studies benefit different stakeholders, e.g., public health practitioners and policymakers in devising sustainable COVID-19 management plans to prepare for endemicity and deal with large-scale disease outbreaks in the future.
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Abstract
Mathematical modelling techniques have become essential in predicting the consequences of viral disease outbreaks and in planning sustainable preventative measures to curb their transmission dynamics. To better understand the sustainable evolution of the control measures’ impacts on the COVID-19 transmissions, a reaction-diffusion system is employed to describe the epidemiological phenomenon through two processes: (i) a reaction process of SEIRS-type (Susceptible, Exposed, Infected, Recovered, and Susceptible) kinetics; (ii) a diffusion process that models local dispersal of individuals through the incorporation of spatial dimension. Optimal control theory and numerical simulation studies are performed to examine the combined effects of reinfection, spatial dispersal process, and distinct control measures on the severity of the outbreaks. The results indicate the effectiveness of implementing adequate control measures vaccination and treatments to prevent further disease outbreaks and minimise the number of infected cases. The insights from these modelling studies benefit different stakeholders, e.g., public health practitioners and policymakers in devising sustainable COVID-19 management plans to prepare for endemicity and deal with large-scale disease outbreaks in the future.
Additional Metadata
Item Type: | Article |
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AGROVOC Term: | COVID-19 |
AGROVOC Term: | pandemics |
AGROVOC Term: | public health |
AGROVOC Term: | mathematical models |
AGROVOC Term: | disease surveillance |
AGROVOC Term: | viruses |
AGROVOC Term: | human population |
AGROVOC Term: | disease control |
AGROVOC Term: | risk management |
Geographical Term: | Malaysia |
Depositing User: | Mr. Khoirul Asrimi Md Nor |
Date Deposited: | 09 Apr 2025 01:14 |
Last Modified: | 09 Apr 2025 01:14 |
URI: | http://webagris.upm.edu.my/id/eprint/2547 |
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