Abstract

In last many years ago there was a great interest in studying the existence of positive solutions for fractional differential equations. Many authors have considered the existence of positive solutions of non-linear differential equations of non-integer order with integral boundary value conditions using fixed point theorems. G.wang etal(2012)in vest gated the following fractional differential equation 〖^c〗D^α W(t)+f(t,W(t))=0,0 λ is a positive number (0 < λ < 2),〖^C〗D^αis the standard Caputo fractional derivative obtained his results by means of Guo-krosnosel'skii theorem in a cone also A.Cabada etat (2013) established the following non-linear fractional differential equation with integral boundary value conditions D^α W(t)+f(t,W(t))=0 ,00 ,λ≠α ,〗 D^αis Riemann –Liovuville standard fractional derivative and f is a continuous function the results was based on Guo-krasnosel'skii fixed point theorem in a cone . This paper we investigate the existence results of a positive solution for integral boundary value conditions of the following system of equations: 〖^c〗D^β h(t)+k(t,h(t))=0 ,t∈(0,1) h(0)=h^' (0)=h^''' (0)=0 ,h(1)=δ∫_0^1▒h(n)dn where 3< β≤4 ,δ is a positive number , δ≠3 ,〖^C〗D^β denotes Caputo standard derivative and k is a continuous function.Our work based on Banach's and Schauder's theorem.

Highlights

  • In this paper we investigate the existent results of a positive solution for the integral boundary value conditions of the following system of equations: cDβ h(t) + k(t, h(t)) = 0, t ∈ (0,1)

  • ‫‪Our establishment is the existence of positive solutions of the integral boundary conditions‬‬ ‫‪of the following fractional differential equation:-‬‬

  • Lemma 2.1.[8]. Let μ > 0,the fractional differential equation cDμW(t) = 0 has a unique solution given by the form

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Summary

Introduction

In this paper we investigate the existent results of a positive solution for the integral boundary value conditions of the following system of equations: cDβ h(t) + k(t, h(t)) = 0 , t ∈ (0,1) H(0) = h′(0) = h′′′(0) = 0 , h(1) = δ ∫ h(n)dn where 3< β ≤ 4 , δ is a positive number , δ ≠ 3 , CDβ denotes Caputo standard derivative and k is a continuous function.Our work based on Banach's and Schauder's theorem. Keyword: Fractional Differential Equation, Integral boundary value Conditions, Schauder's theorem, Green function.

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