  Majorana bound states are zero-energy states predicted to emerge in
topological superconductors and intense efforts seeking a definitive proof of
their observation are still ongoing. A standard route to realize them involves
antagonistic orders: a superconductor in proximity to a ferromagnet. Here we
show this issue can be resolved using antiferromagnetic rather than
ferromagnetic order. We propose to use a chain of antiferromagnetic skyrmions,
in an otherwise collinear antiferromagnet, coupled to a bulk conventional
superconductor as a novel platform capable of supporting Majorana bound states
that are robust against disorder. Crucially, the collinear antiferromagnetic
region neither suppresses superconductivity nor induces topological
superconductivity, thus allowing for Majorana bound states localized at the
ends of the chain. Our model introduces a new class of systems where
topological superconductivity can be induced by editing antiferromagnetic
textures rather than locally tuning material parameters, opening avenues for
the conclusive observation of Majorana bound states.
