An epidemic model with distributed time delay is derived to describe the dynamics of infectious diseases with varying immunity. It is shown that solutions are always positive, and the model has at most two steady states: disease-free and endemic. It is proved that the disease-free equilibrium is locally and globally asymptotically stable. When an endemic equilibrium exists, it is possible to analytically prove its local and global stability using Lyapunov functionals. Bifurcation analysis is performed using DDE-BIFTOOL and traceDDE to investigate different dynamical regimes in the model using numerical continuation for different values of system parameters and different integral kernels
We study the global dynamics of a reaction-diffusion SEIR infection model with distributed delay and...
An susceptible-infective-removed epidemic model incorporating media coverage with time delay is prop...
AbstractA class of more general delayed viral infection model with lytic immune response is proposed...
An epidemic model with distributed time delay is derived to describe the dynamics of in-fectious dis...
Abstract In this work we consider an epidemic model that contains four species susceptible, exposed,...
Many diseases, such as influenza and the common cold, cause recurrent epidemics. The classical SIRS ...
In this paper, we discussed a infinitely distributed delayed viral infection model with nonlinear im...
Considering the effect of isolation and vaccination on control of disease,a SEIQR epidemic model wit...
A new epidemiological model is introduced with nonlinear incidence, in which the infected disease ma...
In this paper, we investigate global dynamics for a system of delay differential equations which des...
Asymptotic properties of a malaria model with partial immunity and two discrete time delays are inv...
Epidemic models are normally used to describe the spread of infectious diseases. In this paper, we w...
AbstractIn this paper, a delayed SIRS epidemic model with saturation incidence and temporary immunit...
In this paper, we establish the global asymptotic stability of an endemic equilibrium for an SIRS ep...
AbstractIn this paper, we investigate global dynamics for a system of delay differential equations w...
We study the global dynamics of a reaction-diffusion SEIR infection model with distributed delay and...
An susceptible-infective-removed epidemic model incorporating media coverage with time delay is prop...
AbstractA class of more general delayed viral infection model with lytic immune response is proposed...
An epidemic model with distributed time delay is derived to describe the dynamics of in-fectious dis...
Abstract In this work we consider an epidemic model that contains four species susceptible, exposed,...
Many diseases, such as influenza and the common cold, cause recurrent epidemics. The classical SIRS ...
In this paper, we discussed a infinitely distributed delayed viral infection model with nonlinear im...
Considering the effect of isolation and vaccination on control of disease,a SEIQR epidemic model wit...
A new epidemiological model is introduced with nonlinear incidence, in which the infected disease ma...
In this paper, we investigate global dynamics for a system of delay differential equations which des...
Asymptotic properties of a malaria model with partial immunity and two discrete time delays are inv...
Epidemic models are normally used to describe the spread of infectious diseases. In this paper, we w...
AbstractIn this paper, a delayed SIRS epidemic model with saturation incidence and temporary immunit...
In this paper, we establish the global asymptotic stability of an endemic equilibrium for an SIRS ep...
AbstractIn this paper, we investigate global dynamics for a system of delay differential equations w...
We study the global dynamics of a reaction-diffusion SEIR infection model with distributed delay and...
An susceptible-infective-removed epidemic model incorporating media coverage with time delay is prop...
AbstractA class of more general delayed viral infection model with lytic immune response is proposed...