2016
DOI: 10.1007/978-3-319-32857-7_8
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Complex-Valued Fractional Derivatives on Time Scales

Abstract: We introduce a notion of fractional (noninteger order) derivative on an arbitrary nonempty closed subset of the real numbers (on a time scale). Main properties of the new operator are proved and several illustrative examples given.

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Cited by 10 publications
(8 citation statements)
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“…It is clear that if λ = 1 and p(t) = t, then the new derivative coincides with the standard Hilger derivative (i.e., Definition 2 reduces to Definition 1). Our first result shows, in particular, that for T = R and λ = 1, we obtain from Definition 2 the structural derivative (2). (…”
Section: Structural Derivatives On Time Scalesmentioning
confidence: 70%
“…It is clear that if λ = 1 and p(t) = t, then the new derivative coincides with the standard Hilger derivative (i.e., Definition 2 reduces to Definition 1). Our first result shows, in particular, that for T = R and λ = 1, we obtain from Definition 2 the structural derivative (2). (…”
Section: Structural Derivatives On Time Scalesmentioning
confidence: 70%
“…The study of fractional calculus on time scales was initiated with the papers [10,11,12] and is now under strong development: see, e.g., [13,14,15,25,32]. Here, inspired by the results of [3,8], we introduce new nabla fractional operators of variable order on isolated time scales.…”
Section: Fractional Sums and Differences Of Variable Ordermentioning
confidence: 99%
“…The first local notion of fractional derivative for functions defined on completely arbitrary time scales seems to have been introduced in 2015 [13]. Such results were then extended to the nabla and nonsymmetric cases in [14], while the possibility of a fractional derivative to be a complex number is addressed in [12]. In [7,8,9], the authors study the existence of solutions for fractional differential equations including the Caputo-Fabrizio derivative, that is, they concentrate on systems with continuous time.…”
Section: Introductionmentioning
confidence: 99%
“…12 (See[31]). Given a time scale T unbounded from above, we denoteS C (T) := T) := {λ ∈ R : ∀T ∈ T ∃t ∈ T, t > T : 1 + µ(t)λ = 0} .The set of exponential stability for the time scale T is then defined by S(T) := S C (T) ∪ S R (T).…”
mentioning
confidence: 99%