Is $\pi_1(\widetilde{X/G})$ always finite if $\pi_1(X)$ is finite? Let $X$ be a smooth complex manifold with finite fundamental group. Suppose that a finite group $G$ acts on $X$ and let $\widetilde{X/G}$ be a resolution of singularities. Is $\pi_1(\widetilde{X/G})$ always finite?
I think this is true but don't know a way to prove or a reference.
 A: The answer is yes when $X$ is simply connected. This can be proven as follows.
$\underline{\textrm{Step 1.}}$ The fundamental group  $\pi_1(X/G)$ is finite. More precisely, $\pi_1(X/G)= G/N$, where $N$ is the smallest  normal subgroup generated by those elements in $G$ which have fixed points on $X$. 
For a proof, see [M. A. Armstrong, Calculating the fundamental group of an orbit space, Proceedings of the American Mathematical Society 84 (1982)]. 
$\underline{\textrm{Step 2.}}$ Since $X/G$ has only quotient singularities, one has $\pi_1(X/G)=\pi_1(\widetilde{X/G})$. This is proven in Theorem 7.8 of [J. Kollar, Shafarevich maps and plurigenera of algebraic varieties, Inventiones  Mathematicae 113 (1993)]. See also this MathOverflow question: 
Comparing fundamental groups of a complex orbifolds and their resolutions.
The fact that $X$ is simply connected is only used in Step 1. Maybe this step can be refined in order to make it working also in the more general case where $X$ has finite fundamental group.
