Istrazivanja i projektovanja za privreduJournal of Applied Engineering Science

GEOMETRICALLY NONLINEAR PLATE BENDing UNDER THE ACTION OF MOVing LOAD

DOI: 10.5937/jaes0-28036
This is an open access article distributed under the CC BY 4.0

Volume 18 article 742 pages: 665 - 670

Ying Sun*
Hangzhou Xiaoshan Technician College, Department of Mechanical Engineering, Zhejiang, China

Boris A. Antufev
Moscow Aviation Institute (National Research University), Department of Resistance of Materials Dynamics and Strength of Machines, Moscow, Russian Federation

Alexander A. Orekhov
Institute of General Engineering Education, Moscow Aviation Institute (National Research University), Moscow, Russian Federation

Olga V. Egorova
Moscow Aviation Institute (National Research University),Department of Resistance of Materials Dynamics and Strength of Machines, Moscow, Russian Federation

Considerable scientific interest is the development of mathematical models that describe the behavior of materials that are sensitive to deformation rate and can improve the accuracy of analytical calculations of their deformation in the region of noticeable changes of loading rates. Nonetheless, in most works, the problems were solved under the assumption of small displacements (geometrically linear statement of the problem). Meanwhile, in practice, this is not always true and bending of cover can be commensurable with its thickness, this article approximately solves the problem of geometrically nonlinear deformation of a thin elastic plate in aquasistatic setting under the action of an infinite normal uniformly distributed load moving along its surface at a constant speed. In the article, the methods of mathematical modeling, the analytical method, as well as the methods of spatial characteristics and bicharacteristics are used. The problem is solved in the quasistatic formulation and is reduced to a system of two nonlinear differential equations for deflections of the plate and the stress function, which include the speed of the load as a parameter. The results of methodological calculations are presented; based on these solutions of linear and nonlinear problems, they were compared, and the influence of finiteness of displacements on the critical speeds of the forces was determined. Materials of the article can be useful in the study of wave dynamics, aircraft, mechanics, and engineering.

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The work has been conducted with the financial support of the grant of the Russian Foundation for Basic Research No 19-08-00579 and grant of the Russian Foundation for Basic Research No 19-01-00675.

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