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Boundary revision of a beam model for a thin-walled waveguide at bending vibration

The paper discusses the problem of choosing a model type for a straight thin-walled waveguide with a rectangular cross-section during its vibrations. To do this, calculations were made of the first natural frequency of vibration for waveguides of different geometric sizes. The restraints of the wave...

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Published in:Journal of physics. Conference series 2021-04, Vol.1889 (2), p.22109
Main Authors: Kudryavtsev, I V, Brungardt, M V, Kudryavtseva, Yu M, Kolotov, A V, Rabetskaya, O I
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container_title Journal of physics. Conference series
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Brungardt, M V
Kudryavtseva, Yu M
Kolotov, A V
Rabetskaya, O I
description The paper discusses the problem of choosing a model type for a straight thin-walled waveguide with a rectangular cross-section during its vibrations. To do this, calculations were made of the first natural frequency of vibration for waveguides of different geometric sizes. The restraints of the waveguide were accepted by a cantilever, hinged, and fixed supports. The difference between the values of the first natural frequency of vibration for the beam and shell waveguide models was estimated. Calculations were carried out analytically on the theory of beam vibration and by the numerical method of finite elements. The results show that the boundary known in static calculations of the applicability of the beam model Rmax/L = 0.1 requires clarification at bending vibrations for the small thickness of the section wall. With small wall thicknesses, the error of calculating the first natural frequency of vibrations will increase sharply due to the effect of a beam section warping.
doi_str_mv 10.1088/1742-6596/1889/2/022109
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subjects Bending vibration
Finite element method
Numerical methods
Physics
Resonant frequencies
Thickness
Vibration
Waveguides
title Boundary revision of a beam model for a thin-walled waveguide at bending vibration
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