  We analyze a scheme to entangle the movable mirrors of two spatially
separated nanoresonators via a broadband squeezed light. We show that it is
possible to transfer the EPR-type continuous-variable entanglement from the
squeezed light to the mechanical motion of the movable mirrors. An optimal
entanglement transfer is achieved when the nanoresonators are tuned at
resonance with the vibrational frequencies of the movable mirrors and when
strong optomechanical coupling is attained. Stationary entanglement of the
states of the movable mirrors as strong as that of the input squeezed light can
be obtained for sufficiently large optomechanical cooperativity, achievable in
currently available optomechanical systems. The scheme can be used to implement
long distance quantum state transfer provided that the squeezed light interacts
with the nanoresonators.
