Our model is has cells existing in the G1 or G2 state, then transition from G2 to G1 doubles that cell.
$\frac{dG1}{dt} = -\beta [G1] + 2\alpha [G2] - \gamma_1 [G1]$
$\frac{dG2}{dt} = \beta [G1] + \alpha [G2] - \gamma_2 [G2]$
Based on this, the S.S.S. growth rate is:
$\frac{\alpha - \gamma_2 - \gamma_1 R}{1 + R}$
where R is $[G1]/[G2]$ at S.S.S.
By differentiating ratio:
$\delta \left( \frac{[G1]}{[G2]} \right)$
we get:
$R = \frac{b + \sqrt{b^2 + 8\alpha \beta}}{2 \beta}$
$b = \gamma_2 + \alpha - \gamma_1 - \beta$
for the ratio acheived in steady-state.
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