Establishing the natural frequency of oscillations of a continuous system with a concentrated mass in aviation and manufacturing engineering

The uneven transportation of products in the working bodies (trays) of one-mass vibrating conveyors with inertial exciters prompted the conduct of a study aimed at establishing the natural frequency of oscillations of a continuous system, namely, a long-dimensional body with distributed parameters in the form of a beam with a rigidly fixed concentrated mass. Using the Krylov-Duncan functions, the differential equation of movement of the beam was solved, taking into account the concentrated mass and the boundary conditions at its ends. The system of equations made it possible to analytically establish the natural frequency of such a continuous system. This approach was tested to establish the natural oscillation frequency of a glider, demonstrating its versatility for use in various industries. An analysis of the obtained results was carried out, and conclusions were drawn.

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Publication Details

Journal
Vibroengineering PROCEDIA
Published
2025-09-30
DOI
https://doi.org/10.21595/vp.2025.25078
Primary Topic
Heat Transfer and Mathematical Modeling
Type
article
Field-Weighted Citation Impact
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article

Establishing the natural frequency of oscillations of a continuous system with a concentrated mass in aviation and manufacturing engineering

Pavlo Maistruk, I.A. Khomych, Iryna Derevenko, Ihor Nazar et al.
Vibroengineering PROCEDIA
Heat Transfer and Mathematical Modeling
article

Establishing the natural frequency of oscillations of a continuous system with a concentrated mass in aviation and manufacturing engineering

Pavlo Maistruk, I.A. Khomych, Iryna Derevenko, Ihor Nazar, Оleksii Lanets, Ihor Kishka
article en

Abstract

The uneven transportation of products in the working bodies (trays) of one-mass vibrating conveyors with inertial exciters prompted the conduct of a study aimed at establishing the natural frequency of oscillations of a continuous system, namely, a long-dimensional body with distributed parameters in the form of a beam with a rigidly fixed concentrated mass. Using the Krylov-Duncan functions, the differential equation of movement of the beam was solved, taking into account the concentrated mass and the boundary conditions at its ends. The system of equations made it possible to analytically establish the natural frequency of such a continuous system. This approach was tested to establish the natural oscillation frequency of a glider, demonstrating its versatility for use in various industries. An analysis of the obtained results was carried out, and conclusions were drawn.

Vibroengineering PROCEDIAVol. 59
Openalex Percentile: Top 71%
Heat Transfer and Mathematical Modeling
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