  We propose a generalisation of the Weak Gravity Conjecture in de Sitter space
by studying charged black-holes and comparing the gravitational and an abelian
gauge forces. Using the same condition as in flat space, namely the absence of
black-hole remnants, one finds that for a given mass $m$ there should be a
state with a charge $q$ bigger than a minimal value $q_{\rm min}(m,l)$,
depending on the mass and the de Sitter radius $l$, in Planck units. In the
large radius flat space limit (large $l$), $q_{\rm min}\to m$ leading to the
known result $q>m/\sqrt{2}$, while in the highly curved case (small $l$)
$q_{\rm min}$ behaves as $\sqrt{ml}$. We also discuss the example of the gauged
R-symmetry in $N=1$ supergravity.
