  The chromatic number of a very dense random graph $G(n,p)$, with $p \ge 1 -
n^{-c}$ for some constant $c > 0$, was first studied by Surya and Warnke, who
conjectured that the typical deviation of $\chi(G(n,p))$ from its mean is of
order $\sqrt{\mu_r}$, where $\mu_r$ is the expected number of independent sets
of size $r$, and $r$ is maximal such that $\mu_r > 1$, except when $\mu_r =
O(\log n)$. They moreover proved their conjecture in the case $n^{-2} \ll 1 - p
= O(n^{-1})$.
  In this paper, we study $\chi(G(n,p))$ in the range $n^{-1}\log n \ll 1 - p
\ll n^{-2/3}$, that is, when the largest independent set of $G(n,p)$ is
typically of size 3. We prove in this case that $\chi(G(n,p))$ is concentrated
on some interval of length $O(\sqrt{\mu_3})$, and for sufficiently `smooth'
functions $p = p(n)$, that there are infinitely many values of $n$ such that
$\chi(G(n,p))$ is not concentrated on any interval of size $o(\sqrt{\mu_3})$.
We also show that $\chi(G(n,p))$ satisfies a central limit theorem in the range
$n^{-1} \log n \ll 1 - p \ll n^{-7/9}$.
