The main goal of this study was to develop a theoretical short- and long-term optimal control treatment of HIV infection of CD4+T cells. The aim of the mathematical model used herein is to make the free HIV virus particles in the blood decrease, while administering a treatment that is less toxic to patients. Pontryagin’s classical control theory is applied to a mathematical model of HIV infection of CD4+T cells characterized by a system of nonlinear differential equations with the following unknown functions: the concentration of susceptible CD4+T cells, CD4+T cells infected by the HIV viruses and free HIV virus particles in the blood
We propose a system of ordinary differential equations modeling the interaction of HIV virus and the...
Bonhoeffer et al.1 studied the long-term dynamics of HIV drug therapy and virus load dynamics. It is...
In this paper, we propose a six-dimensional nonlinear system of differential equations for the human...
Human immunodeficiency virus infection destroys the body immune system, increases the risk of certai...
Human immunodeficiency virus infection destroys the body immune system, increases the risk of certai...
A system of ordinary differential equation, which describes the interaction of HIV and T cells in th...
AbstractA system of ordinary differential equation, which describes the interaction of HIV and T cel...
A mathematical model for the transmission dynamics of human immunodeficiency virus (HIV) within a ho...
This paper shows how mathematical methods can be implemented to formulate guidelines for clinical te...
We propose and study a new mathematical model of the human immunodeficiency virus (HIV). The main n...
A very important scientific advance was the identification of HIV as a causative agent for AIDS. HI...
Of great concern today is the treatment of patients infected with the human immunodeficiency virus (...
In HIV infection, the latent cells represent a reservoir that contribute to the of failure of the Hi...
The purpose of this paper is to expose the optimal approach of controlling HIV-1 infection in CD4+T ...
In HIV infection, the latent cells represent a reservoir that contributes to the failure of the High...
We propose a system of ordinary differential equations modeling the interaction of HIV virus and the...
Bonhoeffer et al.1 studied the long-term dynamics of HIV drug therapy and virus load dynamics. It is...
In this paper, we propose a six-dimensional nonlinear system of differential equations for the human...
Human immunodeficiency virus infection destroys the body immune system, increases the risk of certai...
Human immunodeficiency virus infection destroys the body immune system, increases the risk of certai...
A system of ordinary differential equation, which describes the interaction of HIV and T cells in th...
AbstractA system of ordinary differential equation, which describes the interaction of HIV and T cel...
A mathematical model for the transmission dynamics of human immunodeficiency virus (HIV) within a ho...
This paper shows how mathematical methods can be implemented to formulate guidelines for clinical te...
We propose and study a new mathematical model of the human immunodeficiency virus (HIV). The main n...
A very important scientific advance was the identification of HIV as a causative agent for AIDS. HI...
Of great concern today is the treatment of patients infected with the human immunodeficiency virus (...
In HIV infection, the latent cells represent a reservoir that contribute to the of failure of the Hi...
The purpose of this paper is to expose the optimal approach of controlling HIV-1 infection in CD4+T ...
In HIV infection, the latent cells represent a reservoir that contributes to the failure of the High...
We propose a system of ordinary differential equations modeling the interaction of HIV virus and the...
Bonhoeffer et al.1 studied the long-term dynamics of HIV drug therapy and virus load dynamics. It is...
In this paper, we propose a six-dimensional nonlinear system of differential equations for the human...