  In this note we establish a resilience version of the classical hitting time
result of Bollob\'{a}s and Thomason regarding connectivity. A graph $G$ is said
to be $\alpha$-resilient with respect to a monotone increasing graph property
$\mathcal{P}$ if for every spanning subgraph $H \subseteq G$ satisfying
$\mathrm{deg}_H(v) \leq \alpha \cdot \mathrm{deg}_G(v)$ for all $v \in V(G)$,
the graph $G - H$ still possesses $\mathcal{P}$. Let $\{G_i\}$ be the random
graph process, that is a process where, starting with an empty graph on $n$
vertices $G_0$, in each step $i \geq 1$ an edge $e$ is chosen uniformly at
random among the missing ones and added to the graph $G_{i - 1}$. We show that
the random graph process is almost surely such that starting from $m \geq
(\tfrac{1}{6} + o(1)) n \log n$, the largest connected component of $G_m$ is
$(\tfrac{1}{2} - o(1))$-resilient with respect to connectivity. The result is
optimal in the sense that the constants $1/6$ in the number of edges and $1/2$
in the resilience cannot be improved upon. We obtain similar results for
$k$-connectivity.
