AbstractWe study the behavior of all positive solutions of the difference equation in the title, where p is a positive real parameter and the initial conditions x−2,x−1,x0 are positive real numbers. For all the values of the positive parameter p there exists a unique positive equilibrium x̄ which satisfies the equation x̄2=x̄+p. We show that if 0<p<1 or p⩾2 every positive bounded solution of the equation in the title converges to the positive equilibrium x̄. When 0<p<1 we show the existence of unbounded solutions. When p⩾2 we show that the positive equilibrium is globally asymptotically stable. Finally we conjecture that when 1<p<2, the positive equilibrium is globally asymptotically stable
AbstractIn this note we study the difference equationxn+1=1+xn−1xn,n=0,1,…, where initial values x−1...
AbstractIn this article, we study the periodicity, the boundedness and the global stability of the p...
AbstractIn this note we consider a nonlinear difference equation of the form xn+1=f(xn−s,xn−t),n=0,1...
AbstractWe study the behavior of all positive solutions of the difference equation in the title, whe...
We give in this work the sufficient conditions on the positive solutions of the difference equation ...
AbstractWe investigate the global character of solutions of the equation in the title with positive ...
AbstractIn this note, we consider the nonlinear difference equation, xn+1=f(xn,xn−k),n=0,1,... where...
The main goal of this paper is to investigate the periodic character, invariant intervals, oscillati...
The main goal of this paper is to investigate the periodic character, invariant intervals, oscillati...
AbstractIn this paper we study the boundedness and the asymptotic behavior of the positive solutions...
AbstractIn this paper, we investigate the boundedness, invariant interval, semicycle and global attr...
Abstract. The aim of this paper is to investigate the global stability and periodic nature of the po...
We investigate the global stability character of the equilibrium points and the period-two solutions...
Abstract: The main objective of this paper is to study the boundedness character, the periodic chara...
AbstractIn this paper, we study the boundedness, the invariant intervals,the periodic character and ...
AbstractIn this note we study the difference equationxn+1=1+xn−1xn,n=0,1,…, where initial values x−1...
AbstractIn this article, we study the periodicity, the boundedness and the global stability of the p...
AbstractIn this note we consider a nonlinear difference equation of the form xn+1=f(xn−s,xn−t),n=0,1...
AbstractWe study the behavior of all positive solutions of the difference equation in the title, whe...
We give in this work the sufficient conditions on the positive solutions of the difference equation ...
AbstractWe investigate the global character of solutions of the equation in the title with positive ...
AbstractIn this note, we consider the nonlinear difference equation, xn+1=f(xn,xn−k),n=0,1,... where...
The main goal of this paper is to investigate the periodic character, invariant intervals, oscillati...
The main goal of this paper is to investigate the periodic character, invariant intervals, oscillati...
AbstractIn this paper we study the boundedness and the asymptotic behavior of the positive solutions...
AbstractIn this paper, we investigate the boundedness, invariant interval, semicycle and global attr...
Abstract. The aim of this paper is to investigate the global stability and periodic nature of the po...
We investigate the global stability character of the equilibrium points and the period-two solutions...
Abstract: The main objective of this paper is to study the boundedness character, the periodic chara...
AbstractIn this paper, we study the boundedness, the invariant intervals,the periodic character and ...
AbstractIn this note we study the difference equationxn+1=1+xn−1xn,n=0,1,…, where initial values x−1...
AbstractIn this article, we study the periodicity, the boundedness and the global stability of the p...
AbstractIn this note we consider a nonlinear difference equation of the form xn+1=f(xn−s,xn−t),n=0,1...