Existence of solution for a Katugampola fractional differential equation using coincidence degree theory (Q6566700)
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scientific article; zbMATH DE number 7875687
| Language | Label | Description | Also known as |
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| English | Existence of solution for a Katugampola fractional differential equation using coincidence degree theory |
scientific article; zbMATH DE number 7875687 |
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Existence of solution for a Katugampola fractional differential equation using coincidence degree theory (English)
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3 July 2024
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In this paper, the authors study the existence of positive solutions to the following fractional differential equation with boundary conditions:\N\[\N\left\{\N\begin{array}{llll}\N-(D^{\alpha,\rho}_{a^+} u)(t)=f(t,u(t),D^{\alpha,\rho}_{a^+} u)\quad \, t\in\N(a,b),\\\N&&\\\Nu(a)=0,\ u(b)=\int_a^bu(t)dA(t).\\\N\end{array}\right.\N\]\NHere, \(D^{\alpha,\beta}_{a^+}\) is a Katugampola fractional derivative, which generalizes the Riemann-Liouville and Hadamard fractional derivative, \(\alpha\in(1,2],\) and \(\int_a^bu(t)dA(t)\) denotes a Riemann-Stieltjes integral.\N\NThey apply the fixed point theorem (coincidence degree theory) to obtain criteria ensuring the existence of positive solutions to the above problem. The main results are well-illustrated by some numerical examples.
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fractional integral
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fractional derivative
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Katugampola derivative
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boundary value problem
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existence of solution
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coincidence degree theory
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