Epidemic model dynamics and fuzzy neural-network optimal control with impulsive traveling and migrating: Case study of COVID-19 vaccination

•SqvEIAR dynamics of the COVID-19 epidemic are developed with the impulsive optimal vaccination policy.•The equivalent model is established by utilizing only the daily data of symptomatic infectious individuals on the impulsive axis.•The proposed controller is directly derived for the negative contr...

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Veröffentlicht in:Biomedical signal processing and control 2022-01, Vol.71, p.103227-103227, Article 103227
1. Verfasser: Treesatayapun, C.
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Sprache:eng
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Zusammenfassung:•SqvEIAR dynamics of the COVID-19 epidemic are developed with the impulsive optimal vaccination policy.•The equivalent model is established by utilizing only the daily data of symptomatic infectious individuals on the impulsive axis.•The proposed controller is directly derived for the negative control direction of SqvEIAR dynamics. To suppress the epidemics caused by a virus such as COVID-19, three effective strategies listing vaccination, quarantine and medical treatments, are employed under suitable policies. Quarantine motions may affect the economic systems and pharmaceutical medications may be recently in the developing phase. Thus, vaccination seems the best hope of the current situation to control COVID-19 epidemics. In this work, the dynamic model of COVID-19 epidemic is developed when the quarantine factor and the antiviral factor are established as free variables. Moreover, the impulsive populations are comprehended for traveling and migrating of individuals. The proposed dynamics with impulsive distractions are employed to generate the online data. Thereafter, the equivalent model is developed by using only the daily data of symptomatic infectious individuals and the optimal vaccination policy is derived by utilizing the closed-loop control topology. The theoretical framework of the proposed schemes validates the reduction of symptomatic infectious individuals by using fewer doses of vaccines comparing with the scheduling vaccination.
ISSN:1746-8094
1746-8108
1746-8094
DOI:10.1016/j.bspc.2021.103227