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T (t) ˙ = s − μT (t) − βT (t)V (t),

˙I(t) = βT (t)V (t) − αI(t),

V (t) ˙ = αγI(t) − dV (t),

when s=1 mu=0.2 beta=0.2 alpha=0.3 gamma=1 d=0.4

where T represents the concentration of uninfected target cells at time t, I represents the concentration of infected cells that produce virus at time t, V represents the concentration of virus at time t. The constant s (s > 0) is the rate at which new target cells are generated. The constants μ (μ > 0) and β (β 0) are the death rate of uninfected target cells and the rate constant characterizing infection of cells, respectively. The constant α (α > 0) is the death rate of infected cells either due to the action of the virus or the immune system. It is assumed that the infected cells produce γ (γ > 0) new virus particles during their life. Hence, on average, virus is produced at rate αγ (see, for example, [13]). The constant d (d > 0) is the rate at which virus particles are cleared from the system.

Construct a model/find equilibrium points for this HIV model?

http://www.sciencedirect.com/science/article/pii/S0022247X07001795

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