  We carry out the first investigation of the entanglement and mutual
information harvesting protocols for freely falling trajectories in
$(1+1)$-dimensional Schwarzschild black hole spacetime. We consider two
pointlike Unruh-DeWitt (UDW) detectors in different combinations of
free-falling and static trajectories and compare the results. We show that (i)
correlations harvested between free-falling and static detectors are always
less than those of the familiar two-static-detector case, where they are
largely kinematic in origin; (ii) correlations can be harvested purely from the
quantum vacuum, with evidence that this is possible even when the detectors are
causally disconnected by the event horizon; (iii) the previously known
`entanglement shadow' near the horizon is indeed absent for the two
free-falling-detector case since the relative gravitational redshift of the
detectors remains finite as the horizon is crossed, in accordance with the
equivalence principle.
