Abstract:This article is concerned with the dissipativity-based finite-time filtering problem for a class of Markov jump systems (MJSs) using an event-triggered mechanism (ETM). First, two mutually independent Bernoulli sequences are introduced to model the probability distributions of randomly occurring uncertainty (ROU) and randomly occurring nonlinearity (RON), respectively. Second, due to the limited communication capacity, a mode-dependent ETM from sensor to filter is applied, which alleviated the data transmissio… Show more
“…It this work, the TPs of the jumping process are deemed to be partially accessible. 3 For explanation concisely, for all i ∈ , let…”
Section: System Descriptionmentioning
confidence: 99%
“…1 Because these dynamic systems are uncertain in dynamic changes, and these changes may be caused by random faults of components, changes in the correlation between subsystems, sudden environmental disturbances, etc. 2,3 Markovian jump (MJ) systems are effective models for describing the above systems. Since MJ systems are closely related to practical problems in control engineering, they are extensively reported in many valuable studies.…”
Section: Introductionmentioning
confidence: 99%
“…11 Up to date, the application of ETS in MJ systems with time-delays has made great advancements. 3,[12][13][14] To be specific, Reference 12 discusses the design of the event-based dissipative filtering approach for time-delay singular neural networks subject to MJ parameters. In Reference 3, a strictly dissipative stabilization method for multiple-memory MJ systems with time-varying delays is constructed by applying the ETS.…”
This paper is concerned with the design of the finite frequency fault detection (FD) filter based on the event-triggered scheme (ETS) for discrete-time Markovian jump (DMJ) systems with Lipschitz functions, time-varying delays, and packet dropouts. A novel FD filter subject to ETS and data missing is developed, and the augmented filter system is rewritten as a DMJ-linear parameter varying (DMJ-LPV) system through a reformulated Lipschitz property. Then, two novel lemmas are proposed to guarantee the DMJ-LPV system robust to unknown disturbances and sensitive to finite frequency faults. Next, the proposed lemmas are deduced into linear matrix inequalities by using Finsler's lemma and S-procedure. Finally, the application of Chua's circuit system is employed to illustrate the validity and superiority of the proposed theory.
“…It this work, the TPs of the jumping process are deemed to be partially accessible. 3 For explanation concisely, for all i ∈ , let…”
Section: System Descriptionmentioning
confidence: 99%
“…1 Because these dynamic systems are uncertain in dynamic changes, and these changes may be caused by random faults of components, changes in the correlation between subsystems, sudden environmental disturbances, etc. 2,3 Markovian jump (MJ) systems are effective models for describing the above systems. Since MJ systems are closely related to practical problems in control engineering, they are extensively reported in many valuable studies.…”
Section: Introductionmentioning
confidence: 99%
“…11 Up to date, the application of ETS in MJ systems with time-delays has made great advancements. 3,[12][13][14] To be specific, Reference 12 discusses the design of the event-based dissipative filtering approach for time-delay singular neural networks subject to MJ parameters. In Reference 3, a strictly dissipative stabilization method for multiple-memory MJ systems with time-varying delays is constructed by applying the ETS.…”
This paper is concerned with the design of the finite frequency fault detection (FD) filter based on the event-triggered scheme (ETS) for discrete-time Markovian jump (DMJ) systems with Lipschitz functions, time-varying delays, and packet dropouts. A novel FD filter subject to ETS and data missing is developed, and the augmented filter system is rewritten as a DMJ-linear parameter varying (DMJ-LPV) system through a reformulated Lipschitz property. Then, two novel lemmas are proposed to guarantee the DMJ-LPV system robust to unknown disturbances and sensitive to finite frequency faults. Next, the proposed lemmas are deduced into linear matrix inequalities by using Finsler's lemma and S-procedure. Finally, the application of Chua's circuit system is employed to illustrate the validity and superiority of the proposed theory.
“…Nowadays, many topics related to the EB approach have been studied in terms of a predefined performance index, such as robust EB and H ∞ control, 15,16 EB decentralized control, 17 EB fault detection, 18 EB output quantized control, 19 EB tracking control, 20 EB output synchronization, 21 and EB FT filter design. 22,23 Until recently, the EB filtering analysis and design problems of singular systems in Reference 8 were studied by utilizing filter equivalence and slack matrix variable techniques.…”
This article presents the analysis and design problems of event-based (EB) finite-time (FT) H ∞ filtering for discrete-time singular Markov jump network systems (SMNSs) based on separation of matrix inequality variables. According to the EB method, an SMNS model of network-induced delay is introduced.Sufficient conditions of singular stochastic FT boundedness are then obtained for the augmented SMNS model by applying a stochastic Lyapunov functional and introducing slack matrix variables. In addition, using separation schemes for decoupling matrix inequality variables, the EBFT H ∞ filter gain matrices and triggered ones are co-designed to ensure that the augmented SMNSs are singularly stochastic FT bounded with a prescribed performance index. Finally, a practical DC test example is presented to show effectiveness of the proposed approach.
K E Y W O R D Sdiscrete singular network systems, event-based communication method, Markovian jump parameters, singular stochastic finite-time H ∞ boundedness
“…Li et al 12 studied the state estimation problem of a class of positive MJSs. When there are disturbances in the systems, the filter for MJSs was designed by Gao and Deng 13 …”
The problem of the stochastic stability analysis and state feedback stabilization for nonlinear stochastic differential semi‐Markov jump systems with incremental quadratic constraints is investigated in this article. Different from Markovian process, the transition rate is time varying with known bounds and the sojourn time is conformed to the Weibull distribution in semi‐Markov process. Traditional nonlinear constraint such as Lipschitz, one‐sided Lipschitz, and so forth, is extended to incremental quadratic constraint. By the mode‐dependent Lyapunov function and the slack variable method, the sufficient conditions ensuring that the considered systems are stochastically stable are formulated by linear matrix inequalities. Then, a state feedback controller is designed to drive the closed‐loop system stochastically stable. Finally, an example of helicopter is used to illustrate the superiority as well as effectiveness of the results in this treatise.
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