
handle: 11381/2594445
AbstractThis paper presents a study on quantitative prediction and understanding of time-harmonic wave characteristics in damped plates. Material dissipation is modelled by using complex-valued velocities of free dilatation and shear waves in an unbounded volume. As a numerical example, solution of the classical Rayleigh–Lamb problem for a viscoelastic plate is presented to illustrate and discuss the role of dissipation in the cut-off phenomenon and in the phenomenon of veering for dispersion curves. These phenomena are explained in more detail considering a simple model, which allows accurate asymptotic analysis of the perturbation of dispersion curves in the regions of cut-off and veering.
Mechanical Engineering, Applied Mathematics, Viscoelasticity, Dispersion, Condensed Matter Physics, Coupled waveguide, 510, Rayleigh–Lamb problem, Settore IIND-02/A - Meccanica applicata alle macchine, Materials Science(all), Mechanics of Materials, Modelling and Simulation, Guided waves
Mechanical Engineering, Applied Mathematics, Viscoelasticity, Dispersion, Condensed Matter Physics, Coupled waveguide, 510, Rayleigh–Lamb problem, Settore IIND-02/A - Meccanica applicata alle macchine, Materials Science(all), Mechanics of Materials, Modelling and Simulation, Guided waves
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