2015
DOI: 10.1002/mma.3470
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Relative controllability of nonlinear neutral fractional integro‐differential systems with distributed delays in control

Abstract: In this paper, we establish sufficient conditions for the global relative controllability of nonlinear neutral fractional Volterra integro-differential systems with distributed delays in control. The results are obtained by using the MittagLeffler functions and the Schauder fixed-point theorem. Examples are presented to illustrate the results.

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Cited by 10 publications
(2 citation statements)
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“…Concerning the controllability problem, due to the infinite-dimensional nature of the dynamics of neutral functional differential equations and difference equations, several different notions of controllability can be used, such as exact, approximate, spectral, or relative controllability [5,30]. Relative controllability has been originally introduced in the study of control systems with delays in the control input [5,20,27], but this notion has later been extended and used to study also systems with delays in the state [13,29] and in more general frameworks, such as for stochastic control systems [19] or fractional integro-differential systems [2]. The main idea of relative controllability is that, instead of controlling the state x t : [−r, 0] → C d of (1.1), defined by x t (s) = x(t + s), in a certain function space such as C k ([−r, 0], C d ) or L p ((−r, 0), C d ), where r ≥ max j∈ 1,N Λ j , one controls only the final state x(t) = x t (0).…”
mentioning
confidence: 99%
“…Concerning the controllability problem, due to the infinite-dimensional nature of the dynamics of neutral functional differential equations and difference equations, several different notions of controllability can be used, such as exact, approximate, spectral, or relative controllability [5,30]. Relative controllability has been originally introduced in the study of control systems with delays in the control input [5,20,27], but this notion has later been extended and used to study also systems with delays in the state [13,29] and in more general frameworks, such as for stochastic control systems [19] or fractional integro-differential systems [2]. The main idea of relative controllability is that, instead of controlling the state x t : [−r, 0] → C d of (1.1), defined by x t (s) = x(t + s), in a certain function space such as C k ([−r, 0], C d ) or L p ((−r, 0), C d ), where r ≥ max j∈ 1,N Λ j , one controls only the final state x(t) = x t (0).…”
mentioning
confidence: 99%
“…Fractional calculus was introduced in 1695. It becomes a rich area of research in the field of basic science and engineering domain from the second half of the twentieth century [1][2][3][4][5][6][7][8][9][10][11]. This paper is dedicated to the latest use of partial calculation that describes ECG graphs using very useful definitions of based on sections by Riemann-Liouville [6,20], Caputo [12,26], and Modified Riemann-Liouville [13,14].…”
Section: Introductionmentioning
confidence: 99%