Publication detail
On dynamical systems with nabla half derivative on time scales
KISELA, T.
English title
On dynamical systems with nabla half derivative on time scales
Type
journal article in Web of Science
Language
en
Original abstract
This paper is devoted to study of dynamical systems involving nabla half derivative on an arbitrary time scale. We prove existence and uniqueness of the solution of such system supplied with a suitable initial condition. Both Riemann–Liouville and Caputo approaches to noninteger-order derivatives are covered. Under special conditions we present an explicit form of the solution involving a time scales analogue of Mittag–Leffler function. Also an algorithm for solving of such problems on isolated time scales is established. Moreover, we show that half power functions are positive and decreasing with respect to t−s on an arbitrary time scale.
English abstract
This paper is devoted to study of dynamical systems involving nabla half derivative on an arbitrary time scale. We prove existence and uniqueness of the solution of such system supplied with a suitable initial condition. Both Riemann–Liouville and Caputo approaches to noninteger-order derivatives are covered. Under special conditions we present an explicit form of the solution involving a time scales analogue of Mittag–Leffler function. Also an algorithm for solving of such problems on isolated time scales is established. Moreover, we show that half power functions are positive and decreasing with respect to t−s on an arbitrary time scale.
Keywords in English
Fractional calculus; time scales; nabla half derivative; dynamical systems; Mittag-Leffler function; existence and uniqueness
Released
23.10.2020
Publisher
Springer
ISSN
1660-5446
Volume
17
Number
187
Pages from–to
1–19
Pages count
19
BIBTEX
@article{BUT166026,
author="Tomáš {Kisela} and Jan {Čermák},
title="On dynamical systems with nabla half derivative on time scales",
year="2020",
volume="17",
number="187",
month="October",
pages="1--19",
publisher="Springer",
issn="1660-5446"
}