  The author provides a solution to the equation $ y(s+2) = \mathcal{T}^2 y =
F(s,y,\mathcal{T} y) = F(s,y(s),y(s+1))$; where $y$ is holomorphic; and $F$ is
a holomorphic function with specific decay conditions. This result is provided
using infinite compositions, and a limiting process. The technique is
generalized to arbitrary $k$'th order transfer equations: $u(s+k) =
F(s,u(s),u(s+1),...,u(s+k-1))$. The technique is derived by utilizing solutions
$w(s+1) = \mathcal{T} w = F(s,w)$ and sequentially approximating $u$, or $y$,
with a sequence of said $w$.
