Alright, here is a proof that there is no simple group $G$ of order $33264=2^4\times3^3\times7\times22$.
Consider the number of $N_{11}$ $11$-Sylows, by Sylow we have $N_{11}=1,12,56,144$.
Case 0: If $N_{11}=1$ we're done.
Case 1: If $N_{11}=12$, then the normalizer of a $11$-Sylow contains an element of order $77$,
but as $G$ is simple and acts non-trivially on the set of $11$-Sylows by conjugation, we have an embedding $G \to S_{12}$, but $S_{12}$ does not contain any element of order $77$.
Case 2: If $N_{11}=144$, then the normalizer of a fixed $11$-Sylow $P_{11}$ has $3\times7\times11$ …