1}=\frac {x_ {n-k+ 1}^{p} y_ {n}}{a y_ {nk}^{p}+ b y_ {n}},\y_ {n+ 1}=\frac {y_ {n-k+ 1}^{p} x_ {n}}{\alpha x_ {nk}^{p}+\beta x_ {n}},\quad n, p\in\mathbb {N} _ {0},\k\in\mathbb {N},\end {equation*} where the coefficients $ a, b,\alpha,\beta $ and the initial values $ x_ {-i}, y_ {-i}, i\in\{0, 1,\ldots, k\} $ are real numbers, is obtained. Furthermore, the behavior of solutions of the above system when $ p= 1$ is examined. Numerical examples are presented to illustrate …
The solution form of the system of nonlinear difference equations \begin{equation*} x_{n+1} = \frac{x_{n-k+1}^{p}y_{n}}{a y_{n-k}^{p}+b y_{n}},\ y_{n+1} = \frac{y_{n-k+1}^{p}x_{n}}{\alpha x_{n-k}^{p}+\beta x_{n}}, \quad n, p \in \mathbb{N}_{0},\ k\in \mathbb{N}, \end{equation*} where the coefficients and the initial values are real numbers, is obtained. Furthermore, the behavior of solutions of the above system when is examined. Numerical examples are presented to illustrate the results exhibited in the paper.