RETRACTED: Transient Response Characteristics Analysis of High-Power Piezoelectric Transducers

To improve suitability in applications with high dynamic performance requirements, the transient response characteristics of high-power piezoelectric transducers should be studied quantitatively. This paper proposes the vector reduction method to solve the complex transient equations and obtains a t...

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Published in:Micromachines (Basel) 2022-09, Vol.13 (10), p.1638
Main Authors: Dong, Zhaopeng, Xu, Liang, Yang, Tianyue
Format: Article
Language:English
Subjects:
Analysis
Circuit components
Circuit design
Composite materials
Control algorithms
Damping
Dielectric properties
Electric properties
Frequency response
high-power piezoelectric transducer
Inverters
LC circuits
Matching
Mathematical analysis
Piezoelectric transducers
Reduction
Response time
Stability analysis
Time constant
Transformers
transient matching scheme
Transient response
transient response characteristic
vector reduction method
Vibration response
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Xu, Liang
Yang, Tianyue
description To improve suitability in applications with high dynamic performance requirements, the transient response characteristics of high-power piezoelectric transducers should be studied quantitatively. This paper proposes the vector reduction method to solve the complex transient equations and obtains a transient matching scheme clarifying the mechanism of electrical matching resistance on electromechanical damping. A matching scheme with a combination of full-bridge inverter, transformer and series LC circuit is designed and validated, which can provide suitable electrical damping without causing energy losses. Consequently, the experiment verifies the transient properties of the proposed scheme. For a typical piezoelectric cutting transducer with 100.8 ms response time, our scheme is verified to have high dynamic performance within frequency response time of 5.5 ms and vibration response time of 15.0 ms.
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subjects Analysis
Circuit components
Circuit design
Composite materials
Control algorithms
Damping
Dielectric properties
Electric properties
Frequency response
high-power piezoelectric transducer
Inverters
LC circuits
Matching
Mathematical analysis
Piezoelectric transducers
Reduction
Response time
Stability analysis
Time constant
Transformers
transient matching scheme
Transient response
transient response characteristic
vector reduction method
Vibration response
title RETRACTED: Transient Response Characteristics Analysis of High-Power Piezoelectric Transducers
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