  In this paper, we delve into the study of deformations of an algebraic
divisor that maintains a Kobayashi hyperbolic embedding, which is a more potent
concept than Kobayashi hyperbolicity, particularly in the context of toric
geometry. We establish that, for a projective toric variety denoted as $X$, it
is possible to identify a Zariski closed subset within the linear system of the
divisor $D.$ such that, for a torus $T_N$ residing inside $X$, the mapping from
$T_N \setminus D$ to $X$ constitutes a Kobayashi hyperbolic embedding when $D$
lies outside the mentioned Zariski closed subset. Furthermore, our
investigation extends to the case where an algebraic divisor $D$ is a
combination of $n+1$ hyperplanes and a hypersurface of degree $n$ within
$\mathbb{P}^n$. When $\mathbb{P}^n \setminus D$ is already Kobayashi
hyperbolically embedded within $\mathbb{P}^n,$ we demonstrate that it is
possible to deform the degree $n$ hypersurface while retaining its
hyperbolicity. Additionally, we explore a deformation process that preserves
hyperbolicity, with the parameter residing within $\mathbb{P}^1 \setminus E,$
where $E$ represents a finite set.
