Schmidt's game, fractals, and numbers normal to no base

Given $b>1$ and $y\in \mathbb{R}\mathrm{/}\mathbb{Z}$, we consider the set of $x\in $\mathbb{R}$$suchthat$y$isnotalimitpointofthesequence${b^n x \bmod 1: n\in$\mathbb{N}$}$. Such sets are known to have full Hausdorff dimension, and in many cases have been shown to have a stronger property of being winning in the sense of Schmidt. In this paper, by utilizing Schmidt games, we prove that these sets and their bi-Lipschitz images must intersect with `sufficiently regular’ fractals $K\subset \mathbb{R}$ (that is, supporting measures $\mu$ satisfying certain decay conditions). Furthermore, the intersection has full dimension in $K$ if $\mu$ satisfies a power law (this holds for example if $K$ is the middle third Cantor set). Thus it follows that the set of numbers in the middle third Cantor set which are normal to no base has dimension $\log 2\mathrm{/}\log 3$.