Abstract

With the breadth of applications and analysis performed over the last few decades, it would not be an exaggeration to call piezoelectric materials “the top of the crop” of smart materials. Piezoelectric materials have emerged as the most researched materials for practical applications among the numerous smart materials. They owe it to a few main reasons, including low cost, high bandwidth of service, availability in a variety of formats, and ease of handling and execution. Several authors have used piezoelectric materials as sensors and actuators to effectively control structural vibrations, noise, and active control, as well as for structural health monitoring, over the last three decades. These studies cover a wide range of engineering disciplines, from vast space systems to aerospace, automotive, civil, and biomedical engineering. Therefore, in this review, a study has been reported on piezoelectric materials and their advantages in engineering fields with fundamental modeling and applications. Next, the new approaches and hypotheses suggested by different scholars are also explored for control/repair methods and the structural health monitoring of engineering structures. Lastly, the challenges and opportunities has been discussed based on the exhaustive literature studies for future work. As a result, this review can serve as a guideline for the researchers who want to use piezoelectric materials for engineering structures.

Highlights

  • In the direction of smart material applications in engineering systems, various efforts were made

  • The results showed that the PD controller’s weight fraction, viscoelastic base, slenderness factor, external voltage, and graphene nanoplatelets (GPLs) have a major impact on the vibration and amplitude of the GPLRC cylindrical shell [58]

  • The results show that structural mechanical impedance is more susceptible to damage than EM, which is a better indicator of damage detection

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Summary

Introduction

In the direction of smart material applications in engineering systems, various efforts were made. In the event of the initiation of cracks/damages, any type of structure requires high maintenance of safety or can result in the replacement of the whole structure, and these damages are mostly due to fatigue/corrosion Such cases have been solved by the application of piezoelectric materials [2,3,4,5,6,7,8,9,10]. The use of piezoelectric-based structural health monitoring (SHM) has assisted in the transformation of the industry for various engineering aspects, while the electromechanical process, a relatively recent non-destructive research tool, has been studied for more than two decades and there are still a number of issues that must be resolved before it can be extended to actual structures. A conclusion has been constructed based on the current review work

Piezoelectric Materials
Reduced-Order Modal Equations
Piezoelectric Material Type-Based Investigation and Issues
Structural Control Using Piezoelectric Material
Vibration Control
Noise Control
Active Control
Aerospace Structures
Practical Issues
Challenges and Opportunities
Conclusions
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