AbstractA differential equation model of HIV infection of CD4+ T-cells with cure rate is studied. We prove that if the basic reproduction number R0<1, the HIV infection is cleared from the T-cell population and the disease dies out; if R0>1, the HIV infection persists in the host. We find that the chronic disease steady state is globally asymptotically stable if R0>1. Furthermore, we also obtain the conditions for which the system exists an orbitally asymptotically stable periodic solution. Numerical simulations are presented to illustrate the results
In this paper we study a delay mathematical model for the dynamics of HIV in HIV-specific CD4 + T he...
We analyze a mathematical model that describes HIV infection of CD4+ T cells. We are interested in ...
We examine a model for the interaction of HIV with CD4+ T cells that considers four populations: uni...
AbstractA differential equation model of HIV infection of CD4+ T-cells with cure rate is studied. We...
We study a mathematical model for the interaction of HIV infection and CD4 T cells. Local and global...
A mathematical model that describes HIV infection of CD4+ T cells is analyzed. Global dynamics of th...
AbstractIt is well known that the mathematical models provide very important information for the res...
Abstract:In this paper, we consider the classical viral dynamic mathematical model. Global dynamics ...
Many mathematical models have developed to describe the immuno-logical response to infection with hu...
We analyze a mathematical power law model that describes HIV infection of CD4+ T cells. We report th...
This paper studies a modified human immunodeficiency virus (HIV) infection differential equation mod...
AbstractIn this paper, we investigate an HIV model incorporating the effect of an ARV regimen. Since...
Over the past quarter-century, considerable work has been invested in the study of the Human Immunod...
International audienceIn this paper we derive a model describing the dynamics of HIV-1 infection in ...
AbstractIn this paper, considering full Logistic proliferation of CD4+ T cells, we study an HIV path...
In this paper we study a delay mathematical model for the dynamics of HIV in HIV-specific CD4 + T he...
We analyze a mathematical model that describes HIV infection of CD4+ T cells. We are interested in ...
We examine a model for the interaction of HIV with CD4+ T cells that considers four populations: uni...
AbstractA differential equation model of HIV infection of CD4+ T-cells with cure rate is studied. We...
We study a mathematical model for the interaction of HIV infection and CD4 T cells. Local and global...
A mathematical model that describes HIV infection of CD4+ T cells is analyzed. Global dynamics of th...
AbstractIt is well known that the mathematical models provide very important information for the res...
Abstract:In this paper, we consider the classical viral dynamic mathematical model. Global dynamics ...
Many mathematical models have developed to describe the immuno-logical response to infection with hu...
We analyze a mathematical power law model that describes HIV infection of CD4+ T cells. We report th...
This paper studies a modified human immunodeficiency virus (HIV) infection differential equation mod...
AbstractIn this paper, we investigate an HIV model incorporating the effect of an ARV regimen. Since...
Over the past quarter-century, considerable work has been invested in the study of the Human Immunod...
International audienceIn this paper we derive a model describing the dynamics of HIV-1 infection in ...
AbstractIn this paper, considering full Logistic proliferation of CD4+ T cells, we study an HIV path...
In this paper we study a delay mathematical model for the dynamics of HIV in HIV-specific CD4 + T he...
We analyze a mathematical model that describes HIV infection of CD4+ T cells. We are interested in ...
We examine a model for the interaction of HIV with CD4+ T cells that considers four populations: uni...