  The inhomogeneous quark condensate, responsible for dynamical chiral symmetry
breaking in cold nuclear matter, is studied by putting skyrmions onto the
face-centered cubic crystal and treating the skyrmion matter as nuclear matter.
By varying the crystal size, we explore the effect of density on the local
structure of the quark-antiquark condensate. By endowing the light vector
mesons $\rho$ and $\omega$ with hidden local symmetry and incorporating a
scalar meson as a dilaton of spontaneously broken scale symmetry, we uncover
the intricate interplay of heavy mesons in the local structure of the quark
condensate in dense baryonic matter described in terms of skyrmion crystal. It
is found that the inhomogeneous quark density persists to as high a density as
$\sim 4$ times nuclear matter density. The difference between the result from
the present approach and that from the chiral density wave ansatz is also
discussed.
