The central objective of this thesis is to analyze the eventual periodic properties of solutions of the second order difference equation Xn+l = max{F{xn), G{xn_1 )}, n = 0,1,2, ... , (1.2) where F and G are any two, not necessarily distinct, functions in the system S = Ifx, x -1 ,_1__ ,!,1- X,} and max is the maximum function, max {x,y} = the 1 x I-x x x-I larger of x and y. Chapter 2 highlights some preliminary concepts and the proof that the system itself is closed under function composition. Chapter 3 introduces the Analysis of Interval Sequences, and its application to proving that every solution of Equation (1.2) is eventually periodic. The last part of the thesis follows with summary and recommendations. It is hoped that this paper wi...
AbstractIn this paper, we investigate the asymptotic behavior and periodic nature of positive soluti...
We establish conditions for the existence of periodic solutions of nonlinear, second-order differenc...
In this paper, we discuss the global behavior of all solutions of the difference equation Xn+1 = XnX...
The central objective of this thesis is to analyze the eventual periodic properties of solutions of ...
We study in this paper the following max-type system of difference equations of higher order: xn=max...
We study the following max-type difference equation xn=max{An/xn-r,xn-k}, n=1,2,…, where {An}n=1+∞ ...
Abstract In this paper, we study the following max-type system of difference equations: {xn=max{An,y...
AbstractWe show that every solution of the difference equation xn+1=max{1xn,Axn−1},n=0,1,..., where...
In this paper we shall examine the periodicity and formularization of the solutions for a system of ...
This paper studies the boundedness, global asymptotic stability, and periodicity of positive solutio...
AbstractIn this note, we investigate the periodic character of solutions of the nonlinear, second-or...
We establish conditions for the existence of periodic solutions of nonlinear, second-order differenc...
Consider the following higher order difference equation \begin{equation*} x(n+1)= f(n,x(n))+g(n,x(n...
We establish conditions for the existence of periodic solutions of nonlinear, second-order differenc...
For nonlinear difference equations of the form xn=F(n,xn−1,…,xn−m), it is usually difficult to find ...
AbstractIn this paper, we investigate the asymptotic behavior and periodic nature of positive soluti...
We establish conditions for the existence of periodic solutions of nonlinear, second-order differenc...
In this paper, we discuss the global behavior of all solutions of the difference equation Xn+1 = XnX...
The central objective of this thesis is to analyze the eventual periodic properties of solutions of ...
We study in this paper the following max-type system of difference equations of higher order: xn=max...
We study the following max-type difference equation xn=max{An/xn-r,xn-k}, n=1,2,…, where {An}n=1+∞ ...
Abstract In this paper, we study the following max-type system of difference equations: {xn=max{An,y...
AbstractWe show that every solution of the difference equation xn+1=max{1xn,Axn−1},n=0,1,..., where...
In this paper we shall examine the periodicity and formularization of the solutions for a system of ...
This paper studies the boundedness, global asymptotic stability, and periodicity of positive solutio...
AbstractIn this note, we investigate the periodic character of solutions of the nonlinear, second-or...
We establish conditions for the existence of periodic solutions of nonlinear, second-order differenc...
Consider the following higher order difference equation \begin{equation*} x(n+1)= f(n,x(n))+g(n,x(n...
We establish conditions for the existence of periodic solutions of nonlinear, second-order differenc...
For nonlinear difference equations of the form xn=F(n,xn−1,…,xn−m), it is usually difficult to find ...
AbstractIn this paper, we investigate the asymptotic behavior and periodic nature of positive soluti...
We establish conditions for the existence of periodic solutions of nonlinear, second-order differenc...
In this paper, we discuss the global behavior of all solutions of the difference equation Xn+1 = XnX...