A planar set
$G \subset {\bb R}^2$
is constructed that is bilipschitz equivalent to (
$G, d^z$
), where (
$G, d$
) is not bilipschitz embeddable to any uniformly convex Banach space. Here,
$z \in (0, 1)$
and
$d^z$
denotes the
$z$
th power of the metric
$d$
. This proves the existence of a strong
$A_{\infty}$
weight in
${\bb R}^2$
, such that the corresponding deformed geometry admits no bilipschitz mappings to any uniformly convex Banach space. Such a weight cannot be comparable to the Jacobian of a quasiconformal self-mapping of
${\bb R}^2$
.