Mathematical Modeling of Dog Rabies Transmission Dynamics Using Optimal Control Analysis

被引:1
|
作者
Hailemichael, Demsis Dejene [1 ]
Edessa, Geremew Kenassa [1 ]
Koya, Purnachandra Rao [1 ]
机构
[1] Wollega Univ, Dept Math, Nekemte, Ethiopia
来源
CONTEMPORARY MATHEMATICS | 2023年 / 4卷 / 02期
关键词
rabies; optimal control; vaccination; culling; sensitive index;
D O I
10.37256/cm.4220232347
中图分类号
O29 [应用数学];
学科分类号
070104 ;
摘要
An ideal control method for the dynamics of dog rabies transmission is provided in this study. Given the nature of the disease and the fact that contact behavior varies, we divided the infected compartment into prodromal and furious compartments in the current updated model, which is an extension of the previous SEIR model. Vaccination and culling are two disease-controlling strategies used in the current model, and their effects are examined. It is possible to compute the basic reproduction number using the next-generation matrix. We study the stability, sensitivity analysis, endemic equilibrium, disease-free equilibrium, and stability of the optimal control model. According to the numerical simulation, which utilizes approximations for parameter values, the most efficient strategy to prevent the spread of rabies is a combination of vaccination and the culling of infected dogs. Using ode45 from MATLAB, this numerical simulation investigation was carried out. According to our research, the annual dog birth rate is a factor that influences the incidence of rabies. The state equations, adjoint equations, and the optimal condition that sets the controls by Pontryagin's Maximum/Minimum principle can all be used to construct the optimal control system. The body of the article contains the findings and discussions in an ordered manner.
引用
收藏
页码:296 / 319
页数:24
相关论文
共 50 条
  • [21] Modeling and optimal control analysis of transmission dynamics of COVID-19: The case of Ethiopia
    Deressa, Chernet Tuge
    Duressa, Gemechis File
    ALEXANDRIA ENGINEERING JOURNAL, 2021, 60 (01) : 719 - 732
  • [22] A mathematical analysis of Zika virus transmission with optimal control strategies
    Goswami, Naba Kumar
    Shanmukha, B.
    COMPUTATIONAL METHODS FOR DIFFERENTIAL EQUATIONS, 2021, 9 (01): : 117 - 145
  • [23] Modeling the transmission dynamics and vaccination strategies for human papillomavirus infection: An optimal control approach
    Saldana, Fernando
    Camacho-Gutierrez, Jose A.
    Villavicencio-Pulido, Geiser
    Velasco-Hernandez, Jorge X.
    APPLIED MATHEMATICAL MODELLING, 2022, 112 : 767 - 785
  • [24] Analysis of Transmission Dynamics of Cholera: An Optimal Control Strategy
    Adewole, Matthew O.
    Onifade, Akindele
    Ismail, Ahmad Izani Md
    Faniran, Taye
    Abdullah, Farah A.
    JOURNAL OF APPLIED NONLINEAR DYNAMICS, 2022, 11 (02) : 387 - 400
  • [25] THE DYNAMICS OF TUBERCULOSIS TRANSMISSION WITH OPTIMAL CONTROL ANALYSIS IN INDONESIA
    Fatmawati
    Purwati, Utami D.
    Utoyo, Moh. I.
    Alfiniyah, Cicik
    Prihartini, Yuni
    COMMUNICATIONS IN MATHEMATICAL BIOLOGY AND NEUROSCIENCE, 2020, : 1 - 17
  • [26] A mathematical analysis of the effects of control strategies on the transmission dynamics of malaria
    Chiyaka, C.
    Tchuenche, J. M.
    Garira, W.
    Dube, S.
    APPLIED MATHEMATICS AND COMPUTATION, 2008, 195 (02) : 641 - 662
  • [27] Transmission dynamics and optimal control of measles epidemics
    Pang, Liuyong
    Ruan, Shigui
    Liu, Sanhong
    Zhao, Zhong
    Zhang, Xinan
    APPLIED MATHEMATICS AND COMPUTATION, 2015, 256 : 131 - 147
  • [28] Mathematical modeling with optimal control analysis of social media addiction
    Alemneh, Haileyesus Tessema
    Alemu, Negesse Yizengaw
    INFECTIOUS DISEASE MODELLING, 2021, 6 : 405 - 419
  • [29] Optimal Control Analysis of a Mathematical Model for Recurrent Malaria Dynamics
    Olaniyi S.
    Ajala O.A.
    Abimbade S.F.
    Operations Research Forum, 4 (1)
  • [30] MODELING PLANT NUTRIENT UPTAKE: MATHEMATICAL ANALYSIS AND OPTIMAL CONTROL
    Louison, Loic
    Omrane, Abdennebi
    Ozier-Lafontaine, Harry
    Picart, Delphine
    EVOLUTION EQUATIONS AND CONTROL THEORY, 2015, 4 (02): : 193 - 203