  A bar-joint framework $(G,p)$ in the Euclidean space $\mathbb{E}^d$ is
globally rigid if it is the unique realisation, up to rigid congruences, of $G$
in $\mathbb{E}^d$ with the edge lengths of $(G,p)$. Building on key results of
Hendrickson and Connelly, Jackson and Jord\'{a}n gave a complete combinatorial
characterisation of when a generic framework is global rigidity in
$\mathbb{E}^2$. We prove an analogous result when the Euclidean norm is
replaced by any norm that is analytic on $\mathbb{R}^2 \setminus \{0\}$. More
precisely, we show that a graph $G=(V,E)$ is globally rigid in a non-Euclidean
analytic normed plane if and only if $G$ is 2-connected and $G-e$ contains 2
edge-disjoint spanning trees for all $e\in E$. The main technical tool is a
recursive construction of 2-connected and redundantly rigid graphs in analytic
normed planes. We also obtain some sufficient conditions for global rigidity as
corollaries of our main result and prove that the analogous necessary
conditions hold in $d$-dimensional analytic normed spaces.
