Secular Terms for the Kinetic Mckean Model
Author(s):
Sergey Anatolievich Dukhnovsky
Moscow State University of Civil Engineering, Department of Applied Mathematics
Yaroslavskoye Shosse 26, 129337 Moscow, Russia
Senior Lecturer
Candidate of Physics and Mathematics Sciences
sergeidukhnvskijj@rambler.ru
Abstract:
In this article, we investigate the kinetic McKean model. The
perturbed solution of the Cauchy problem is sought in the form of Fourier
series. The Fourier coefficients for the zero and nonzero modes are written out,
respectively. The original system is reduced to an infinite system of differential
equations. An approximation for the systems is constructed. Under certain
assumptions, we find secular terms (non-integrable part). This, in turn, will
allow us to prove for the first time the exponential stabilization of the solution
in the future.
Keywords
- Fourier series
- kinetic model
- Knudsen parameter
- secular terms
References:
- Godunov S. K., Sultangazin U. M. On discrete models of the kinetic Boltzmann equation. Russian Mathematical Surveys, 1971; 26(3): 1-56
- Euler N., Steeb W. -H. Painleve test and discrete Boltzmann equations. Australian Journal of Physics, 1989; (42): 1-10
- Tchier F., Inc M. and Yusuf A. Symmetry analysis, exact solutions and numerical approximations for the space-time Carleman equation in nonlinear dynamical systems. The European Physical Journal Plus, 2019; 134(250): 1-18
- Dukhnovskii S. A. Solutions of the Carleman system via the Painleve expansion. Vladikavkaz Math. J., 2020; 22(4): 58-67. (In Russ. )
- Dukhnovsky S. On solutions of the kinetic McKean system. Bul. Acad. \c Stiin\c te Repub. Mold. Mat., 2020; 94(3): 3-11
- Vasil'eva O. A., Dukhnovskiy S. A. Secularity condition for the kinetic Carleman system. Vestnik MGSU, 2015; No. 7, 33-40
- Dukhnovskii S. A. Asymptotic stability of equilibrium states for Carleman and Godunov-Sultangazin systems of equation. Moscow University Mathematics Bulletin, 2019; 74(6): 246-248
- Vedenyapin V., Sinitsyn A., Dulov E. Kinetic Boltzmann, Vlasov and related equations. Amsterdam, Elsevier, 2011, xiii+304 pp
- Dukhnovsky S. A. The tanh-function method and the (G'/G)-expansion method for the kinetic McKean system. Differential equations and control processes, 2021; No. 2, 87-100
- Lindblom O., Euler N. Solutions of discrete-velocity Boltzmann equations via Bateman and Riccati equations. Theoretical and Mathematical Physics, 2002; 131(2): 595-608
- Radkevich E. V. On the large-time behavior of solutions to the Cauchy problem for a 2-dimensional discrete kinetic equation. Journal of Mathematical Sciences, 2014; 202(5): 735-768
- Dukhnovskii S. A. On the rate of stabilization of solutions to the Cauchy problem for the Godunov-Sultangazin system with periodic initial data. J. Math. Sci., 2021; (259): 349-375
- Vasil'eva O. A., Dukhnovskii S. A., Radkevich E. V. On the nature of local equilibrium in the Carleman and Godunov-Sultangazin equations. Journal of Mathematical Sciences, 2018; 235(4): 392-454
- Radkevich, E. V. On discrete kinetic equations. Doklady mathematics, 2012; 86(3): 809-813
- Ilyin, O. V. Symmetries, the current function, and exact solutions for Broadwell’s two-dimensional stationary kinetic model. Theoretical and Mathematical Physics, 2014; 179(3): 679-688
- Ilyin, O. V. Existence and stability analysis for the Carleman kinetic system. Computational Mathematics and Mathematical Physics, 2007; 47(12): 1990-2001
- Vasil'eva O. The investigation of evolution of the harmonic perturbation the stationary solution of the boundary value problem for a system of the Carleman equations. Matec web of conferences, 2017; (117), 00174
- Vasil’eva O. A. Numerical solution of the Godunov-Sultangazin system of equations. Periodic Case. Vestnik MGSU, 2016; No. 4: 27-35. (In Russ. )