  We use the framework of asymptotically safe quantum gravity to derive
predictions for scalar leptoquark solutions to the $b \to s$ and $b\to c$
flavor anomalies. The presence of an interactive UV fixed point in the system
of gauge and Yukawa couplings imposes a set of boundary conditions at the
Planck scale, which allows one to determine low-energy values of the leptoquark
Yukawa matrix elements. As a consequence, the allowed leptoquark mass range can
be significantly narrowed down. We find that a consistent gravity-driven
solution to the $b\to s$ anomalies predicts a leptoquark with the mass of 4-7
TeV, entirely within the reach of a future hadron-hadron collider with
$\sqrt{s}=100$ TeV. Conversely, in the case of the $b\to c$ anomalies the
asymptotically safe gravity framework predicts a leptoquark mass at the edge of
the current LHC bounds. Complementary signatures appear in flavor observables,
namely the (semi)leptonic decays of B and D mesons and kaons.
