Abstract
We consider the fractional differential equation D 0 + q u(t)=f ( t , u ( t ) ) ,0<t<1, satisfying the boundary conditions D 0 + p u(t) | t = 0 = D 0 + p − 1 u(t) | t = 0 =⋯= D 0 + p − n + 1 u(t) | t = 0 =0,u(1)= ∑ i = 1 m − 2 α i u( ξ i ), where D 0 + q is the Riemann-Liouville fractional order derivative. The parameters in the multi-point boundary conditions are such that the corresponding differential operator is a Fredholm map of index zero. As a result, the minimal and maximal nonnegative solutions for the problem are obtained by using a fixed point theorem of increasing operators.MSC:26A33, 34A08.
Highlights
Let us consider the fractional differential equationDq +u(t) = f t, u(t), < t
The minimal and maximal nonnegative solutions for the problem are obtained by using a fixed point theorem of increasing operators
In [ ], Wang obtained the minimal and maximal nonnegative solutions for a second-order m-point boundary value problem at resonance by using a new fixed point theorem of increasing operators, and in this paper we use this method of Wang to establish the existence theorem of equations ( . ) and ( . )
Summary
The minimal and maximal nonnegative solutions for the problem are obtained by using a fixed point theorem of increasing operators. 1 Introduction Let us consider the fractional differential equation
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