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Energy harvesting and vibration reduction by sandwiching piezoelectric elements into elastic damping components with parallel-grooved structures

•PZT patch are sandwiched into SBRs for vibration reduction and energy harvesting.•SBRs with parallel grooves on the top/bottom surface are designed and tested.•SBRs with different structures affect the vibration reduction and energy harvesting.•Numerical results reveal the effect mechanism of the S...

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Published in:Composite structures 2020-06, Vol.241, p.112105, Article 112105
Main Authors: Chen, W., Xiang, Z.Y., Mo, J.L., Fan, Z.Y., Qian, H.H., Wang, J.Y.
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Language:English
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cited_by cdi_FETCH-LOGICAL-c318t-a34ea8451a99533449b580f3bebb098ee716896522e04531e096513f176f8e0d3
cites cdi_FETCH-LOGICAL-c318t-a34ea8451a99533449b580f3bebb098ee716896522e04531e096513f176f8e0d3
container_end_page
container_issue
container_start_page 112105
container_title Composite structures
container_volume 241
creator Chen, W.
Xiang, Z.Y.
Mo, J.L.
Fan, Z.Y.
Qian, H.H.
Wang, J.Y.
description •PZT patch are sandwiched into SBRs for vibration reduction and energy harvesting.•SBRs with parallel grooves on the top/bottom surface are designed and tested.•SBRs with different structures affect the vibration reduction and energy harvesting.•Numerical results reveal the effect mechanism of the SBRs with different structures. In this study a method for simultaneous energy harvesting via friction-induced vibration and vibration reduction is proposed and implemented by sandwiching a piezoelectric patch between two layers of elastic damping components. A test bench that provides good repeatability and generates friction-induced vibration is developed. The experimental results show that the elastic damping components significantly suppress friction-induced vibration. The fluctuating voltage signals indicated the feasibility of the proposed approach for energy harvesting via friction-induced vibration. Several parallel grooves are fabricated on the surface of the elastic damping components to investigate the influence of damping components with different structures on the vibration reduction and energy recovery performance. The results show that the grooved damping components provide a greater reduction in the vibration level of the system than the smooth damping components, but the voltage signals are also weaker. Numerical analysis are performed in ABAQUS 6.14. The unstable mode shape shows that the elastic damping components and piezoelectric patch produce relatively large deformation, demonstrating the feasibility of the proposed energy harvesting approach. The results obtained from the implicit dynamic analysis are identical to the experimental results. Therefore, the implicit dynamic analysis is used to provide some reasonable explanations for the experimental phenomena.
doi_str_mv 10.1016/j.compstruct.2020.112105
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In this study a method for simultaneous energy harvesting via friction-induced vibration and vibration reduction is proposed and implemented by sandwiching a piezoelectric patch between two layers of elastic damping components. A test bench that provides good repeatability and generates friction-induced vibration is developed. The experimental results show that the elastic damping components significantly suppress friction-induced vibration. The fluctuating voltage signals indicated the feasibility of the proposed approach for energy harvesting via friction-induced vibration. Several parallel grooves are fabricated on the surface of the elastic damping components to investigate the influence of damping components with different structures on the vibration reduction and energy recovery performance. The results show that the grooved damping components provide a greater reduction in the vibration level of the system than the smooth damping components, but the voltage signals are also weaker. Numerical analysis are performed in ABAQUS 6.14. The unstable mode shape shows that the elastic damping components and piezoelectric patch produce relatively large deformation, demonstrating the feasibility of the proposed energy harvesting approach. The results obtained from the implicit dynamic analysis are identical to the experimental results. 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In this study a method for simultaneous energy harvesting via friction-induced vibration and vibration reduction is proposed and implemented by sandwiching a piezoelectric patch between two layers of elastic damping components. A test bench that provides good repeatability and generates friction-induced vibration is developed. The experimental results show that the elastic damping components significantly suppress friction-induced vibration. The fluctuating voltage signals indicated the feasibility of the proposed approach for energy harvesting via friction-induced vibration. Several parallel grooves are fabricated on the surface of the elastic damping components to investigate the influence of damping components with different structures on the vibration reduction and energy recovery performance. The results show that the grooved damping components provide a greater reduction in the vibration level of the system than the smooth damping components, but the voltage signals are also weaker. Numerical analysis are performed in ABAQUS 6.14. The unstable mode shape shows that the elastic damping components and piezoelectric patch produce relatively large deformation, demonstrating the feasibility of the proposed energy harvesting approach. The results obtained from the implicit dynamic analysis are identical to the experimental results. 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In this study a method for simultaneous energy harvesting via friction-induced vibration and vibration reduction is proposed and implemented by sandwiching a piezoelectric patch between two layers of elastic damping components. A test bench that provides good repeatability and generates friction-induced vibration is developed. The experimental results show that the elastic damping components significantly suppress friction-induced vibration. The fluctuating voltage signals indicated the feasibility of the proposed approach for energy harvesting via friction-induced vibration. Several parallel grooves are fabricated on the surface of the elastic damping components to investigate the influence of damping components with different structures on the vibration reduction and energy recovery performance. 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subjects Damping
Energy harvesting
Friction-induced vibration
Vibration reduction
title Energy harvesting and vibration reduction by sandwiching piezoelectric elements into elastic damping components with parallel-grooved structures
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