Nonlocal and multiple-point fractional boundary value problem in the frame of a generalized Hilfer derivative
Abstract The aim of this manuscript is to handle the nonlocal boundary value problem for a specific kind of nonlinear fractional differential equations involving a ξ-Hilfer derivative. The used fractional operator is generated by the kernel of the kind k ( ϑ , s ) = ξ ( ϑ ) − ξ ( s ) $k(\vartheta,s)...
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Online Access: | https://doi.org/10.1186/s13662-021-03450-5 |
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doaj-97ced3180e8f4a739f67feb8df46a22a2021-06-20T11:44:01ZengSpringerOpenAdvances in Difference Equations1687-18472021-06-012021111910.1186/s13662-021-03450-5Nonlocal and multiple-point fractional boundary value problem in the frame of a generalized Hilfer derivativeWasfi Shatanawi0Abdellatif Boutiara1Mohammed S. Abdo2Mdi B. Jeelani3Kamaleldin Abodayeh4Department of Mathematics and General Sciences, Prince Sultan UniversityLaboratory of Mathematics And Applied Sciences, University of GhardaiaDepartment of Mathematics, Hodeidah UniversityDepartment of Mathematics, Imam Mohammed Ibn Saud Islamic UniversityDepartment of Mathematics and General Sciences, Prince Sultan UniversityAbstract The aim of this manuscript is to handle the nonlocal boundary value problem for a specific kind of nonlinear fractional differential equations involving a ξ-Hilfer derivative. The used fractional operator is generated by the kernel of the kind k ( ϑ , s ) = ξ ( ϑ ) − ξ ( s ) $k(\vartheta,s)=\xi (\vartheta )-\xi (s)$ and the operator of differentiation D ξ = ( 1 ξ ′ ( ϑ ) d d ϑ ) ${ D}_{\xi } = ( \frac{1}{\xi ^{\prime }(\vartheta )}\frac{d}{d\vartheta } ) $ . The existence and uniqueness of solutions are established for the considered system. Our perspective relies on the properties of the generalized Hilfer derivative and the implementation of Krasnoselskii’s fixed point approach and Banach’s contraction principle with respect to the Bielecki norm to obtain the uniqueness of solution on a bounded domain in a Banach space. Besides, we discuss the Ulam–Hyers stability criteria for the main fractional system. Finally, some examples are given to illustrate the viability of the main theories.https://doi.org/10.1186/s13662-021-03450-5Nonlocal fractional differential equationsGeneralized Hilfer fractional derivativeExistence and Ulam stabilityFixed point theorem |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Wasfi Shatanawi Abdellatif Boutiara Mohammed S. Abdo Mdi B. Jeelani Kamaleldin Abodayeh |
spellingShingle |
Wasfi Shatanawi Abdellatif Boutiara Mohammed S. Abdo Mdi B. Jeelani Kamaleldin Abodayeh Nonlocal and multiple-point fractional boundary value problem in the frame of a generalized Hilfer derivative Advances in Difference Equations Nonlocal fractional differential equations Generalized Hilfer fractional derivative Existence and Ulam stability Fixed point theorem |
author_facet |
Wasfi Shatanawi Abdellatif Boutiara Mohammed S. Abdo Mdi B. Jeelani Kamaleldin Abodayeh |
author_sort |
Wasfi Shatanawi |
title |
Nonlocal and multiple-point fractional boundary value problem in the frame of a generalized Hilfer derivative |
title_short |
Nonlocal and multiple-point fractional boundary value problem in the frame of a generalized Hilfer derivative |
title_full |
Nonlocal and multiple-point fractional boundary value problem in the frame of a generalized Hilfer derivative |
title_fullStr |
Nonlocal and multiple-point fractional boundary value problem in the frame of a generalized Hilfer derivative |
title_full_unstemmed |
Nonlocal and multiple-point fractional boundary value problem in the frame of a generalized Hilfer derivative |
title_sort |
nonlocal and multiple-point fractional boundary value problem in the frame of a generalized hilfer derivative |
publisher |
SpringerOpen |
series |
Advances in Difference Equations |
issn |
1687-1847 |
publishDate |
2021-06-01 |
description |
Abstract The aim of this manuscript is to handle the nonlocal boundary value problem for a specific kind of nonlinear fractional differential equations involving a ξ-Hilfer derivative. The used fractional operator is generated by the kernel of the kind k ( ϑ , s ) = ξ ( ϑ ) − ξ ( s ) $k(\vartheta,s)=\xi (\vartheta )-\xi (s)$ and the operator of differentiation D ξ = ( 1 ξ ′ ( ϑ ) d d ϑ ) ${ D}_{\xi } = ( \frac{1}{\xi ^{\prime }(\vartheta )}\frac{d}{d\vartheta } ) $ . The existence and uniqueness of solutions are established for the considered system. Our perspective relies on the properties of the generalized Hilfer derivative and the implementation of Krasnoselskii’s fixed point approach and Banach’s contraction principle with respect to the Bielecki norm to obtain the uniqueness of solution on a bounded domain in a Banach space. Besides, we discuss the Ulam–Hyers stability criteria for the main fractional system. Finally, some examples are given to illustrate the viability of the main theories. |
topic |
Nonlocal fractional differential equations Generalized Hilfer fractional derivative Existence and Ulam stability Fixed point theorem |
url |
https://doi.org/10.1186/s13662-021-03450-5 |
work_keys_str_mv |
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