Properties and computation of continuous-time solutions to linear systems

被引:4
|
作者
Stanimirovic, Predrag S. [1 ]
Katsikis, Vasilios N. [2 ]
Jin, Long [3 ]
Mosic, Dijana [4 ]
机构
[1] Univ Nis, Fac Sci & Math, Visegradska 33, Nish 18000, Serbia
[2] Natl & Kapodistrian Univ Athens, Dept Econ, Div Math & Informat, Sofokleous 1 St, Athens 10559, Greece
[3] Lanzhou Univ, Sch Informat Sci & Engn, Lanzhou 730000, Peoples R China
[4] Univ Nis, Fac Sci & Math, Dept Math, Visegradska 33, Nish 18000, Serbia
关键词
Zhang neural network; Gradient neural network; Dynamical system; Generalized inverse; Linear system; RECURRENT NEURAL-NETWORKS; DRAZIN-INVERSE; SOLVING SYSTEMS; CRAMER RULE; EQUATIONS; CONVERGENCE;
D O I
10.1016/j.amc.2021.126242
中图分类号
O29 [应用数学];
学科分类号
070104 ;
摘要
According to the traditional notation, C m ?n (resp. R m ?n ) indicate m ? n complex (resp. real) matrices. Further, rank (A ) , A *, R (A ) and N (A ) denote the rank, the conjugate transpose, the range (column space) and the null space of A ? C m ?n . The index of A ? C n ?n is the minimal k determined by rank ( A k ) = rank ( A k +1 ) and termed as ind (A ) . About the notation and main properties of generalized inverses, we suggest monographs [2,30,42] . The Drazin inverse of We investigate solutions to the system of linear equations (SoLE) in both the time-varying and time-invariant cases, using both gradient neural network (GNN) and Zhang neural network (ZNN) designs. Two major limitations should be overcome. The first limitation is the inapplicability of GNN models in time-varying environment, while the second constraint is the possibility of using the ZNN design only under the presence of invertible coefficient matrix. In this paper, by overcoming the possible limitations, we suggest, in all possible cases, a suitable solution for a consistent or inconsistent linear system. Convergence properties are investigated as well as exact solutions. ? 2021 Elsevier Inc. All rights reserved.
引用
收藏
页数:16
相关论文
共 50 条
  • [31] Iterative identification method for linear continuous-time systems
    Campi, Marco C.
    Sugie, Toshiharu
    Sakai, Fumitoshi
    PROCEEDINGS OF THE 45TH IEEE CONFERENCE ON DECISION AND CONTROL, VOLS 1-14, 2006, : 818 - +
  • [32] Resilient Consensus of Continuous-Time Linear Networked Systems
    Bai, Yuqi
    Wang, Jinzhi
    IEEE TRANSACTIONS ON CIRCUITS AND SYSTEMS II-EXPRESS BRIEFS, 2022, 69 (08) : 3500 - 3504
  • [33] Optimal semistable control for continuous-time linear systems
    Hui, Qing
    SYSTEMS & CONTROL LETTERS, 2011, 60 (04) : 278 - 284
  • [34] Decoupling zeros of positive continuous-time linear systems
    Kaczorek, T.
    BULLETIN OF THE POLISH ACADEMY OF SCIENCES-TECHNICAL SCIENCES, 2013, 61 (03) : 557 - 562
  • [35] OBSERVER THEORY FOR CONTINUOUS-TIME LINEAR-SYSTEMS
    TSE, E
    ATHANS, M
    INFORMATION AND CONTROL, 1973, 22 (05): : 405 - 434
  • [36] Sensor Fault Detection for Linear Continuous-Time Systems
    Wang, Heng
    Ju, He-Hua
    Wang, Yu-Long
    CCDC 2009: 21ST CHINESE CONTROL AND DECISION CONFERENCE, VOLS 1-6, PROCEEDINGS, 2009, : 1606 - +
  • [37] The Modulation Integral Observer for Linear Continuous-Time Systems
    Pin, Gilberto
    Chen, Boli
    Parisini, Thomas
    2015 EUROPEAN CONTROL CONFERENCE (ECC), 2015, : 2932 - 2939
  • [38] Piecewise linear constrained control for continuous-time systems
    LAEP, Cadi Ayyad University, Faculty of Science Semlalia, 40000 Marrakech, Morocco
    IEEE Trans Autom Control, 7 (1477-1481):
  • [39] H∞ filtering for continuous-time linear systems with delay
    Pila, AW
    Shaked, U
    de Souza, CE
    IEEE TRANSACTIONS ON AUTOMATIC CONTROL, 1999, 44 (07) : 1412 - 1417
  • [40] Positive Stabilization of Linear Continuous-Time Singular Systems
    Shafai, Bahram
    Li, Cheng
    2016 WORLD AUTOMATION CONGRESS (WAC), 2016,