Protection Degree and Migration in the Stochastic SIRS Model: A Queueing System Perspective

被引:27
作者
Li, Yuhan [1 ]
Zeng, Ziyan [1 ]
Feng, Minyu [1 ]
Kurths, Juergen [2 ,3 ]
机构
[1] Southwest Univ, Coll Artificial Intelligence, Chongqing 400715, Peoples R China
[2] Potsdam Inst Climate Impact Res, D-14437 Potsdam, Germany
[3] Sechenov First Moscow State Med Univ, World Class Res Ctr Digital Biodesign & Personali, Ctr Anal Complex Syst, Moscow 119991, Russia
关键词
Epidemics; Markov processes; Statistics; Sociology; Analytical models; Queueing analysis; COVID-19; Epidemic modeling; Markov process; queueing network; evolving network; protection degree; migration; EPIDEMICS; DIFFUSION; SPREAD; SIS;
D O I
10.1109/TCSI.2021.3119978
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
With the prevalence of COVID-19, the modeling of epidemic propagation and its analyses have played a significant role in controlling epidemics. However, individual behaviors, in particular the self-protection and migration, which have a strong influence on epidemic propagation, were always neglected in previous studies. In this paper, we mainly propose two models from the individual and population perspectives. In the first individual model, we introduce the individual protection degree that effectively suppresses the epidemic level as a stochastic variable to the SIRS model. In the alternative population model, an open Markov queueing network is constructed to investigate the individual number of each epidemic state, and we present an evolving population network via the migration of people. Besides, stochastic methods are applied to analyze both models. In various simulations, the infected probability, the number of individuals in each state and its limited distribution are demonstrated.
引用
收藏
页码:771 / 783
页数:13
相关论文
共 33 条
  • [1] Modeling the Spatiotemporal Epidemic Spreading of COVID-19 and the Impact of Mobility and Social Distancing Interventions
    Arenas, Alex
    Cota, Wesley
    Gomez-Gardenes, Jesus
    Gomez, Sergio
    Granell, Clara
    Matamalas, Joan T.
    Soriano-Panos, David
    Steinegger, Benjamin
    [J]. PHYSICAL REVIEW X, 2020, 10 (04)
  • [2] Epidemics in small world networks
    da Gama, MMT
    Nunes, A
    [J]. EUROPEAN PHYSICAL JOURNAL B, 2006, 50 (1-2) : 205 - 208
  • [3] Dadlani A, 2016, IEEE SARNOFF SYMPOS, P187
  • [4] Coevolution of Vaccination Opinions and Awareness Affecting the Spread of Epidemics
    Dai, Xiangfeng
    Zhu, Peican
    Guo, Yangming
    Wang, Zhen
    [J]. IEEE ACCESS, 2019, 7 : 61558 - 61569
  • [5] Dike IJ., 2018, AM J APPL MATH STAT, V6, P96
  • [6] Dong W., 2012, ARXIV12104864
  • [7] Modelling disease spread through random and regular contacts in clustered populations
    Eames, K. T. D.
    [J]. THEORETICAL POPULATION BIOLOGY, 2008, 73 (01) : 104 - 111
  • [8] Epidemic thresholds of the susceptible-infected-susceptible model on networks: A comparison of numerical and theoretical results
    Ferreira, Silvio C.
    Castellano, Claudio
    Pastor-Satorras, Romualdo
    [J]. PHYSICAL REVIEW E, 2012, 86 (04)
  • [9] Discrete-time Markov chain approach to contact-based disease spreading in complex networks
    Gomez, S.
    Arenas, A.
    Borge-Holthoefer, J.
    Meloni, S.
    Moreno, Y.
    [J]. EPL, 2010, 89 (03)
  • [10] Community lockdowns in social networks hardly mitigate epidemic spreading
    Gosak, Marko
    Duh, Maja
    Markovic, Rene
    Perc, MatjaZ
    [J]. NEW JOURNAL OF PHYSICS, 2021, 23 (04):