ArticleOn the recursive sequence xn+1 = alpha+(xn-1/xn^k)
January 2009
Applied Mathematics Letters 22:91-95
Source
DBLP
Authors: A. E. Hamza
Cairo University
Ahmed Morsy
Prince Sattam bin Abdulaziz University
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Abstract
In this work we investigate the global behavior of the difference equation xn+1 = α + xn−1 x k n , n = 0, 1, 2, . . . where α ∈ (0,∞) and k ∈ (0,∞).
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On the nonautonomous difference equation x n+1 =A n +x n-1 p x n qArticle
Feb 2011
APPL MATH COMPUT
Garyfalos Papaschinopoulos
Christos Schinas
Gesthimani Stefanidou
In this paper we study the asymptotic behavior and the periodicity of the positive solutions of the nonautonomous difference equation:ViewShow abstractDynamics of a higher order rational difference equationArticle
Oct 2006
APPL MATH COMPUT
Mohammad Saleh
Saida Abu Albaha
In this paper, we will investigate a nonlinear rational difference equation of higher order. Our concentration is on invariant intervals, periodic character, the character of semicycles and global asymptotic stability of all positive solutions of x(n+1) = beta x(n)+gamma x(n-k)/Bx(n)+Cx(n-k), n = 0, 1, ... It is worth to mention that our results solve the open problem proposed by Kulenvic and Ladas in their monograph [Dynamics of Second Order Rational Difference Equations: With Open Problems and Conjectures, Chapman & Hall/CRC, Boca Raton, 2002]. (c) 2006 Elsevier Inc. All rights reserved.ViewShow abstractOn a max-type and a min-type difference equationArticleFull-text available
Sep 2009
APPL MATH COMPUT
Elsayed M Elsayed
Bratislav D Iricanin
This note shows that every positive solution to the following third order non–autonomous max-type difference equationwhen (An)n∈N0 is a three-periodic sequence of positive numbers, is periodic with period three. The same result was proved for the following min-type difference equationViewShow abstractOn the recursive sequence y n+1 =(p+y n-1 )/(qy n +y n-1 )ArticleFull-text available
Nov 2000
Witold Kosmala
Mustafa R. S. Kulenović
G. Ladas
C. T. Teixeira
ViewOn the behavior of solutions of x n+1 =p+(x n-1 /x n )Article
Jun 2004
J. Feuer
Our goal in this article is to complete the study of the behavior of solutions of the equation in the title when the parameter p is positive and the initial conditions are arbitrary positive numbers. Our main focus is the case 0 1.ViewShow abstractAn introduction to difference equations. 2nd edArticle
Jan 1999
Saber Elaydi
ViewDynamics of Second Order Rational Difference Equations: With Open Problems and ConjecturesArticle
Jan 2002
Mustafa R. S. Kulenović
G. Ladas
INTRODUCTION AND CLASSIFICATION OF EQUATION TYPES PRELIMINARY RESULTS Definitions of Stability and Linearized Stability Analysis The Stable Manifold Theorem in the Plane Global Asymptotic Stability of the Zero Equilibrium Global Attractivity of the Positive Equilibrium Limiting Solutions The Riccati Equation Semicycle Analysis LOCAL STABILITY, SEMICYCLES, PERIODICITY, AND INVARIANT INTERVALS Equilibrium Points Stability of the Zero Equilibrium Local Stability of the Positive Equilibrium When is Every Solution Periodic with the same Period? Existence of Prime Period Two Solutions Local Asymptotic Stability of a Two Cycle Convergence to Period Two Solutions when C=0 Invariant Intervals Open Problems and Conjectures (1,1)-TYPE EQUATIONS Introduction The Case a=g=A=B=0: xn+1= b xn/C xn-1 The Case a=b=A=C=0: xn+1=g xn-1/B xn Open Problems and Conjectures (1,2)-TYPE EQUATIONS Introduction The Case b=g=C=0: xn+1= a /(A+ B xn) The Case b=g=A=0: xn+1= a /(B xn+ C xn-1) The Case a=g=B=0: xn+1= b xn/(A + C xn-1) The Case a=g=A=0: xn+1= b xn/(B xn+ C xn-1) The Case a=b=C=0: xn+1= g xn-1/(A+ B xn) The Case a=b=A=0: xn+1= g xn-1/(B xn+ C xn-1) Open Problems and Conjectures (2,1)-TYPE EQUATIONS Introduction The Case g=A=B=0: xn+1=(a + b xn)/(C xn-1) The Case g=A=C=0: xn+1=(a + b xn)/B xn Open Problems and Conjectures (2,2)-TYPE EQUATIONS(2,2)- Type Equations Introduction The Case g=C=0: xn+1=(a + b xn)/(A+ B xn) The Case g=B=0: xn+1=(a + b xn)/(A + C xn-1) The Case g=A=0: xn+1=(a + b xn)/(B xn+ C xn-1) The Case b=C=0: xn+1=(a + g xn-1)/(A+ B xn) The Case b=A=0: xn+1=(a + g xn-1)/(B xn+ C xn-1) The Case a=C=0: xn+1=(b xn+ g xn-1)/(A+ B xn) The Case a=B=0: xn+1=(b xn+ g xn-1)/(A + C xn-1) The Case a=A=0: xn+1=(b xn+ g xn-1)/(B xn+ C xn-1) Open Problems and Conjectures (2,3)-TYPE EQUATIONS Introduction The Case g=0: xn+1=(a + b xn)/(A+ B xn+ C xn-1) The Case b=0: xn+1=(a + g xn-1)/(A+ B xn+ C xn-1) The Case a=0: xn+1=(b xn+ g xn-1)/(A+ B xn+ C xn-1) Open Problems and Conjectures (3,2)-TYPE EQUATIONS Introduction The Case C=0: xn+1=(a + b xn+ g xn-1)/(A+ B xn ) The Case B=0: xn+1=(a + b xn+ g xn-1)/(A+ C xn-1) The Case A=0: xn+1=(a + b xn+ g xn-1)/(B xn+ C xn-1) Open Problems and Conjectures THE (3,3)-TYPE EQUATION The (3,3)- Type Equation: xn+1=(a + b xn+ g xn-1 )/(A+ B xn+ C xn-1) Linearized Stability Analysis Invariant Intervals Convergence Results Open Problems and Conjectures APPENDIX: Global Attractivity for Higher Order Equations BIBLIOGRAPHYViewShow abstractOn the recursive sequence x n+1 =α+x n-1 /x nArticle
Jan 1999
Amal Amleh
E.A. Grove
G. Ladas
Dimitrios Georgiou
ViewOn the Recursive Sequence x(n+1) = (a + b x(n-1) )/(g + x(n) )Article
Jan 2000
Mustafa R. S. Kulenović
C. H. Gibbons
G. Ladas
We show that the equation in the title with nonnegative parameters and nonnegative initial conditions exhibits a trichotomy character concerning periodicity, convergence, and boundedness which depends on whether the parameter is equal, less, or greater than the sum of the parameters and A.ViewShow abstractGlobal Behavior of Nonlinear Difference Equations of Higher Order with ApplicationBook
Jan 1993
Vlajko Kocic
G. Ladas
Preface. 1. Introduction and Preliminaries. 2. Global Stability Results. 3. Rational Recursive Sequences. 4. Applications. 5. Periodic Cycles. 6. Open Problems and Conjectures. Appendix: A. The Riccati Difference Equation. B. A Generalized Contraction Principle. C. Global Behaviour of Systems of Nonlinear Difference Equations. Bibliography. Subject Index. Author Index.ViewShow abstractDifference Equations: An Introduction with ApplicationsArticle
Jan 2001
W. G Kelley
Allan Peterson
ViewOn the recursive sequenceArticle
Jan 2000
J DIFFER EQU APPL
Mustafa R. S. Kulenović
G. Ladas
N.R. Prokup
We investigate the global stability, and the periodicity of the recursive sequence where the parameters α,β and A and the initial condition x-1 and Xo are non negative real numbers.ViewShow abstract
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