  Recent experiments have searched for evidence of the impact of non-inertial
motion on the entanglement of particles. The success of these endeavours has
been hindered by the fact that such tests were performed within spatial scales
that were only "local" when compared to the spatial scales over which the
non-inertial motion was taking place. We propose a Sagnac-like interferometer
that, by challenging such bottlenecks, is able to achieve entangled states
through a mechanism induced by the mechanical rotation of a photonic
interferometer. The resulting states violate the
Bell-Clauser-Horne-Shimony-Holt (CHSH) inequality all the way up to the
Tsirelson bound, thus signaling strong quantum nonlocality. Our results
demonstrate that mechanical rotation can be thought of as resource for
controlling quantum non-locality with implications also for recent proposals
for experiments that can probe the quantum nature of curved spacetimes and
non-inertial motion.
