  This paper introduces a new percolation model motivated from polymer
materials. The mathematical model is defined over a random cubical set in the
$d$-dimensional space $\mathbb{R}^d$ and focuses on generations and
percolations of $(d-1)$-dimensional holes as higher dimensional topological
objects. Here, the random cubical set is constructed by the union of unit faces
in dimension $d-1$ which appear randomly and independently with probability
$p$, and holes are formulated by the homology generators. Under this model, the
upper and lower estimates of the critical probability $p_c^{\rm hole}$ of the
hole percolation are shown in this paper, implying the existence of the phase
transition. The uniqueness of infinite hole cluster is also proven. This result
shows that, when $p > p_c^{\rm hole}$, the probability $P_p(x^*\overset{\rm
hole}{\longleftrightarrow} y^*)$ that two points in the dual lattice
$(\mathbb{Z}^d)^*$ belong to the same hole cluster is uniformly greater than 0.
