  In this manuscript, we investigate the enhancement of the transfer of quantum
correlations from squeezed light to movable mirrors within an optomechanical
system. This enhancement was achieved via the injection of squeezed light in
the cavities and via intracavity squeezed light. We quantify the entanglement
between mechanical oscillators via logarithmic negativity. We demonstrate that
entanglement is influenced by various factors, including the gain of the
parametric amplifier, the squeezing parameter characterizing the squeezed
light, the rate of the phonon tunneling process, the coupling strength of the
photon hopping process and the bath temperature of the mechanical oscillators.
We have shown that entanglement can be improved by a convenient choice of
coupling strength in the case of the photon hopping process, as well as for
specified values of the gain of the parametric amplifier.
