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A Journal of Russian Academy of Sciences
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IssuesArchive of Issues2025-3pp.2234-2256

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Mandeep Kaur, Satish Kumar, and Vikas Sharma, "Size-Dependent Thin Plate Dynamics: Investigating Anti-Plane and In-Plane Wave Propagation with Generalized Boundary Restraints," Mech. Solids. 60 (3), 2234-2256 (2025)
Year 2025 Volume 60 Number 3 Pages 2234-2256
DOI 10.1134/S0025654425601065
Title Size-Dependent Thin Plate Dynamics: Investigating Anti-Plane and In-Plane Wave Propagation with Generalized Boundary Restraints
Author(s) Mandeep Kaur (Department of Mathematics, Thapar Institute of Engineering and Technology, Patiala, Punjab, India)
Satish Kumar (Department of Mathematics, Thapar Institute of Engineering and Technology, Patiala, Punjab, India)
Vikas Sharma (Department of Mathematics, Lovely Professional University, Phagwara, Punjab, India, vikassharma10a@yahoo.co.in, vikas.sharma@lpu.co.in)
Abstract Despite extensive research on plates with either traction-free boundaries or rigidly fixed faces, many real-world situations involve boundary conditions that fall between these two extremes. To bridge the gap between these fundamental cases—traction-free and fixed-boundary conditions—it is reasonable to assume that the fields at the boundaries follow a Hooke-type law, representing elastic restraints at the surfaces. These generalized boundary conditions, known as Elastically Restrained Boundary Conditions (ERBC), are applied in the normal, shear, and rotational directions to study anti-plane (SH) and in-plane (P-SV) wave phenomena in a microstructural elastic plate, modeled using the consistent couple stress theory. The ERBC incorporate stiffness coefficients to relate normal, tangential, and rotational stresses to the corresponding displacements within the plate. Analytical derivation of the dispersion relations is carried out to examine the wave propagation characteristics under varying boundary conditions. Special cases, such as stress-free boundary conditions (similar to Rayleigh-Lamb type waves), mixed boundary conditions, and rigid boundary conditions, emerge as limiting cases. The study explores the influence of the characteristic length scale parameter (l) introduced by the consistent couple stress model, along with stiffness coefficients like normal stiffness, shear stiffness, and rotational stiffness, on wave propagation. It also investigates the transition between rigidly fixed and stress-free boundary conditions, offering insights into how different boundary conditions affect wave behavior in a thin microstructural elastic plate.
Keywords SH waves, P-SV waves, couple stress theory, restrained boundary conditions, stress-free boundary conditions, rigid boundary conditions
Received 06 March 2025Revised 22 April 2025Accepted 23 April 2025
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