An efficient coupled zigzag third-order theory for dynamic analysis of multilayered piezoelectric semiconductor plates

Different from piezoelectric (PE) dielectrics, piezoelectric semiconductors (PSs) show the interaction between electromechanical field and mobile charges. This not only makes PSs have great potential for developing electronic devices, but also presents a lot of multi-field coupled problems that need to be investigated. In this paper, an efficient coupled zigzag third-order theory (CZTT) is developed for the dynamic analysis of a multilayered PS plate. The continuity of the mechanical displacements, the transverse shear stresses and the electrical fields at each layer interface are ensured. The shear traction-free condition and electrical short circuit condition are enforced at the top and bottom surfaces of the multilayered PS plates. The number of primary field variables is reduced to seven and is independent of the number of layers. The governing equations and the corresponding boundary conditions are derived using Hamilton principle. An analytical solution for a simply supported multilayered PS plate is obtained. The vibration frequency and damping for three-layer PS plates are calculated using the analytical solution and verified through the finite element (FE) simulation. The effects of steady-state electron density, different stacking sequences and thickness ratios on dynamic characteristics are discussed. The size-dependent dynamic behaviors resulting from the semiconductor (SC) property are revealed. It is shown that the dynamic behaviors can be divided into three coupling statuses according to the density value of steady-state electron. The vibration frequency is significantly weakened within a certain range of steady-state electron density due to the screen effect of free electrons. The findings could be useful to the analysis and design of layered composites made of smart PS materials. • Dynamic characteristics of multilayered piezoelectric semiconductor plates are firstly studied. • Effect of interaction between piezoelectric effect and semiconductor property on dynamic characteristics is revealed. • Size-dependent dynamic characteristics resulting from semiconductor property are found. • Effects of stacking sequences and thickness ratio on dynamic characteristics are shown.

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Publication Details

Journal
European Journal of Mechanics - A/Solids
Published
2025-09-01
DOI
https://doi.org/10.1016/j.euromechsol.2025.105855
Primary Topic
Composite Structure Analysis and Optimization
Type
article
Field-Weighted Citation Impact
0.00

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article

An efficient coupled zigzag third-order theory for dynamic analysis of multilayered piezoelectric semiconductor plates

Guoquan Nie, Jinxi Liu, Jianyu Guo, Guolin Wang
European Journal of Mechanics - A/Solids
Composite Structure Analysis and Optimization
article

An efficient coupled zigzag third-order theory for dynamic analysis of multilayered piezoelectric semiconductor plates

Guoquan Nie, Jinxi Liu, Jianyu Guo, Guolin Wang
article en

Abstract

Different from piezoelectric (PE) dielectrics, piezoelectric semiconductors (PSs) show the interaction between electromechanical field and mobile charges. This not only makes PSs have great potential for developing electronic devices, but also presents a lot of multi-field coupled problems that need to be investigated. In this paper, an efficient coupled zigzag third-order theory (CZTT) is developed for the dynamic analysis of a multilayered PS plate. The continuity of the mechanical displacements, the transverse shear stresses and the electrical fields at each layer interface are ensured. The shear traction-free condition and electrical short circuit condition are enforced at the top and bottom surfaces of the multilayered PS plates. The number of primary field variables is reduced to seven and is independent of the number of layers. The governing equations and the corresponding boundary conditions are derived using Hamilton principle. An analytical solution for a simply supported multilayered PS plate is obtained. The vibration frequency and damping for three-layer PS plates are calculated using the analytical solution and verified through the finite element (FE) simulation. The effects of steady-state electron density, different stacking sequences and thickness ratios on dynamic characteristics are discussed. The size-dependent dynamic behaviors resulting from the semiconductor (SC) property are revealed. It is shown that the dynamic behaviors can be divided into three coupling statuses according to the density value of steady-state electron. The vibration frequency is significantly weakened within a certain range of steady-state electron density due to the screen effect of free electrons. The findings could be useful to the analysis and design of layered composites made of smart PS materials. • Dynamic characteristics of multilayered piezoelectric semiconductor plates are firstly studied. • Effect of interaction between piezoelectric effect and semiconductor property on dynamic characteristics is revealed. • Size-dependent dynamic characteristics resulting from semiconductor property are found. • Effects of stacking sequences and thickness ratio on dynamic characteristics are shown.

European Journal of Mechanics - A/SolidsVol. 116
Hebei University of Engineering (CN), Shijiazhuang Tiedao University (CN)
National Natural Science Foundation of China, Natural Science Foundation of Hebei Province
Openalex Percentile: Top 74%
Composite Structure Analysis and Optimization
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