activity
20182026
most citedSteady-state kinetic temperature distribution in a two-dimensional square harmonic scalar lattice lying in a viscous environment and subjected to a point heat source

19 citations · 105 across the 10 of their papers we have counts for

collaborators

10 papers

math-ph2026

On the adiabatic invariance of the action of a trapped wave

Ekaterina V. Shishkina, Serge N. Gavrilov

Recently, it has been shown (Gavrilov et al., Nonlinear Dyn, 112, 2024) that in a linear solid discrete-continuous system with several slowly time-varying parameters, the amplitude…

physics.class-ph2022★ 9 cited

The anti-localization of non-stationary linear waves and its relation to the localization. The simplest illustrative problem

Ekaterina V. Shishkina, Serge N. Gavrilov, Yulia A. Mochalova

We introduce a new wave phenomenon, which can be observed in continuum and discrete systems, where a trapped mode exists under certain conditions, namely, the anti-localization of…

cond-mat.stat-mech2022★ 13 cited

Unsteady ballistic heat transport in a 1D harmonic crystal due to a source on an isotopic defect

Ekaterina V. Shishkina, Serge N. Gavrilov

In the paper we apply asymptotic technique based on the method of stationary phase and obtain the approximate analytical description of thermal motions caused by a source on an iso…

cond-mat.mes-hall2021★ 12 cited

Steady-state ballistic thermal transport associated with transversal motions in a damped graphene lattice subjected to a point heat source

Serge N. Gavrilov, Anton M. Krivtsov

In the paper we deal with ballistic heat transport in a graphene lattice subjected to a point heat source. It is assumed that a graphene sheet is suspended under tension in a visco…

cond-mat.stat-mech2020★ 10 cited

Discrete and continuum fundamental solutions describing heat conduction in 1D harmonic crystal: Discrete-to-continuum limit and slow-and-fast motions decoupling

Serge N. Gavrilov

In the recent paper by Sokolov et al. (Int. J. of Heat and Mass Transfer 176, 2021, 121442) ballistic heat propagation in 1D harmonic crystal is considered and the properties of th…

physics.class-ph2019★ 7 cited

Passage through a resonance for a mechanical system, having time-varying parameters and possessing a single trapped mode. The principal term of the resonant solution

Ekaterina V. Shishkina, Serge N. Gavrilov, Yulia A. Mochalova

We consider a forced oscillation and passage through resonance for an infinite-length system, having time-varying parameters and possessing a single trapped mode. The system is a s…

cond-mat.stat-mech2019★ 12 cited

Thermal equilibration in a one-dimensional damped harmonic crystal

Serge N. Gavrilov, Anton M. Krivtsov

The features for the unsteady process of thermal equilibration ("the fast motions") in a one-dimensional harmonic crystal lying in a viscous environment (e.g., a gas) are under inv…

cond-mat.stat-mech2019★ 19 cited

Steady-state kinetic temperature distribution in a two-dimensional square harmonic scalar lattice lying in a viscous environment and subjected to a point heat source

Serge N. Gavrilov, Anton M. Krivtsov

We consider heat transfer in an infinite two-dimensional square harmonic scalar lattice lying in a viscous environment and subjected to a heat source. The basic equations for the p…

physics.class-ph2018★ 12 cited

Non-stationary localized oscillations of an infinite Bernoulli-Euler beam lying on the Winkler foundation with a point elastic inhomogeneity of time-varying stiffness

E. V. Shishkina, S. N. Gavrilov, Yu. A. Mochalova

We consider non-stationary localized oscillations of an infinite Bernoulli-Euler beam. The beam lies on the Winkler foundation with a point inhomogeneity (a concentrated spring wit…

physics.class-ph2018★ 11 cited

Non-stationary localized oscillations of an infinite string, with time-varying tension, lying on the Winkler foundation with a point elastic inhomogeneity

S. N. Gavrilov, E. V. Shishkina, Yu. A. Mochalova

We consider non-stationary oscillations of an infinite string with time-varying tension. The string lies on the Winkler foundation with a point inhomogeneity (a concentrated spring…