  We describe an experiment in which one member of a polarization-entangled
photon pair is stored in an active "loop and switch" type quantum memory
device, while the other propagates through a passive optical delay line. A
comparison of Bell's inequality tests performed before and after the storage is
used to investigate the ability of the memory to maintain entanglement, and
demonstrate a rudimentary entanglement distribution protocol. The entangled
photons are produced by a conventional Spontaneous Parametric Down Conversion
source with center wavelengths at 780 nm and bandwidths of $\sim$10 THz, while
the memory has an even wider operational bandwidth that is enabled by the
weakly dispersive nature of the Pockels effect used for
polarization-insensitive switching in the loop-based quantum memory platform.
