Keywords and phrases: differential realization, identification of hyperbolic model.
Received: February 1, 2024; Accepted: March 28, 2024; Published: April 22, 2024
How to cite this article: A. V. Lakeyev, V. A. Rusanov, A. V. Banshchikov and R. A. Daneev, On finite character geometrical property of the differential realization of nonstationary hyperbolic systems, Advances in Differential Equations and Control Processes 31(2) (2024), 187-205. https://doi.org/10.17654/0974324324010
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References: [1] N. U. Ahmed, Optimization and Identification of Systems Governed by Evolution Equations on Banach Space, John Wiley and Sons, New York, 1988. [2] S. I. Kabanikhin, A. D. Satybaev and M. A. Shishlenin, Direct Methods of Solving Multidimensional Inverse Hyperbolic Problems, De Gruyter, Berlin, Boston, 2004. [3] A. T. Ramazanova, H. F. Kuliyev and A. Roesch, An inverse problem for determining right hand side of equations for hyperbolic equation of fourth order, Advances in Differential Equations and Control Processes 20(2) (2019), 143-161. [4] V. A. Rusanov, A. V. Lakeyev, A. V. Banshchikov and A. V. Daneev, On the bilinear second order differential realization of a infinite-dimensional dynamical system: An approach based on extensions to -operators, Fractal and Fractional 7(4) (2023), 1-18. [5] A. V. Daneev, V. A. Rusanov and D. Yu. Sharpinskii, Kalman-Mesarovic nonstationary realization in terms of Rayleigh-Ritz operators, Cybernetics and Systems Analysis 43(1) (2007), 66-72. [6] A. V. Daneev, A. V. Lakeyev, V. A. Rusanov and M. V. Rusanov, On the theory of realization of strong differential models, Journal of Applied and Industrial Mathematics 1(3) (2007), 273-282. [7] V. A. Rusanov, L. V. Antonova and A. V. Daneev, Inverse problem of nonlinear systems analysis: A behavioral approach, Advances in Differential Equations and Control Processes 10(2) (2012), 69-88. [8] A. V. Lakeyev, Yu. É. Linke and V. A. Rusanov, Metric properties of the Rayleigh-Ritz operator, Russian Mathematics 66(9) (2022), 46-53. [9] Y. A. Chen, New one-parameter inhomogeneous differential realization of the spl(2, 1) super-algebra, International Journal of Theoretical Physics 51(12) (2012), 3763-3768. [10] V. A. Rusanov, A. V. Daneev, A. V. Lakeyev and Yu. É. Linke, On the differential realization theory of nonlinear dynamic processes in Hilbert space, Far East Journal of Mathematical Sciences (FJMS) 97(4) (2015), 495-532. [11] A. V. Daneev, V. A. Rusanov and M. V. Rusanov, From Kalman-Mesarovic realization to a normal-hyperbolic linear model, Cybernetics and Systems Analysis 41(6) (2005), 909-923. [12] V. A. Rusanov, A. V. Daneev and Yu. É. Linke, To the geometrical theory of the differential realization of dynamic processes in a Hilbert space, Cybernetics and Systems Analysis 53(4) (2017), 554-564. [13] A. V. Lakeyev, V. A. Rusanov, A. V. Daneev and Yu. D. Aksenov, On realization of the superposition principle for a finite bundle of integral curves of a second-order bilinear differential system, Advances in Differential Equations and Control Processes 30(2) (2023), 169-197. [14] M. Reed and B. Simon, Methods of Modern Mathematical Physics 1, Functional Analysis, Academic Press, New York, 1972. [15] A. A. Kirillov, Elements of Theory Representations, Nauka, Moscow, 1978. [16] Y. Kōmura, Nonlinear semi-groups in Hilbert space, J. Math. Soc. Japan 19(4) (1967), 493-507. [17] R. Engelking, General Topology, PWN, Warszawa, 1985. [18] L. V. Kantorovich and G. P. Akilov, Functional Analysis, Nauka, Moscow, 1977. [19] V. A. Rusanov, Algebra of sets of dynamic processes with differential realizations in a Hilbert space, Doklady Mathematics 82(1) (2010), 676-677. [20] V. V. Prasolov, Elements of Combinatorial and Differentiable Topology, MCNMO, Moscow, 2014. [21] P. S. Alexandroff, Über stetige Abbildungen kompakter Räume, Math. Ann. 96 (1927), 555-571. [22] V. A. Rusanov and D. Y. Sharpinskii, The theory of the structural identification of nonlinear multidimensional systems, Journal of Applied Mathematics and Mechanics 74 (2010), 84-94. [23] M. E. Stieber, E. M. Petriu and G. Vukovich, Systematic design of instrumentation architecture for control of mechanical systems, IEEE Trans. on Instrument. and Meas. 45(2) (1996), 406-412. [24] P. J. Cohen and R. Hersh, Non-Cantorian set theory, Scientific American 217 (1967), 104-116. [25] A. V. Lakeyev, Yu. É. Linke and V. A. Rusanov, Metric properties of the Rayleigh-Ritz operator, Russian Mathematics 66(9) (2022), 46-53. [26] V. A. Rusanov, A. V. Daneev, A. V. Lakeyev and Yu. É. Linke, On solvability of the identification-inverse problem for operator-functions of a nonlinear regulator of a nonstationary hyperbolic system, Advances in Differential Equations and Control Processes 16(2) (2015), 71-84. [27] A. V. Lakeyev, Yu. É. Linke and V. A. Rusanov, Realization of a polylinear controller as a second-order differential system in a Hilbert space, Differential Equations 53(8) (2017), 1070-1081. [28] A. J. Van der Schaft, On realization of nonlinear systems described by higher-order differential equations, Mathematical Systems Theory 19(3) (1987), 239-275. [29] V. A. Rusanov, A. V. Daneev, A. V. Lakeyev and V. N. Sizykh, Higher-order differential realization of polylinear-controlled dynamic processes in a Hilbert space, Advances in Differential Equations and Control Processes 19(3) (2018), 263-274. [30] A. V. Daneev, A. V. Lakeyev and V. A. Rusanov, Existence of a bilinear differential realization in the constructions of tensor product of Hilbert spaces, WSEAS Transactions on Mathematics 19 (2020), 99-107. [31] A. V. Lakeyev, Yu. É. Linke and V. A. Rusanov, Rayleigh-Ritz operator in inverse problems for higher-order multilinear nonautonomous evolution equations, Siberian Advances in Mathematics 33(4) (2023), 329-337. [32] J. C. Willems, System theoretic models for the analysis of physical systems, Ric. Aut. 10 (1979), 71-106. [33] A. V. Banshchikov, A. V. Lakeyev and V. A. Rusanov, On polylinear differential realization of the determined dynamic chaos in the class of higher-order equations with delay, Russian Mathematics 67(10) (2023), 39-53.
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