Zhaoxin Wang

Dr. Zhaoxin Wang

School of Mechanical Engineering, Shandong University, Jinan, Shandong, China
orcid

Research Focus & Metrics

Academic Career Length

8Years (2019-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

View All Publications
1 May 2019 in Mechatronics
Verified
Journal Article
Closed access
JWJiru Wang
Jiru Wang
JLJianping LI
Jianping LI
ZXZhi Xu
Zhi Xu
SWShunbo Wang
Shunbo Wang
Zhaoxin WangZhaoxin Wang
Zhaoxin Wang
HZHongwei Zhao
Hongwei Zhao

1 November 2020 in Mechanical Systems and Signal Processing
Verified
Journal Article
Closed access
JWJiru Wang
Jiru Wang
HHHu Huang
Hu Huang
SZShizhong Zhang
Shizhong Zhang
FQFeng Qin
Feng Qin
Zhaoxin WangZhaoxin Wang
Zhaoxin Wang
HZHongwei Zhao
Hongwei Zhao

1 January 2021 in Mechanical Systems and Signal Processing
Verified
Journal Article
Closed access
JWJiru Wang
Jiru Wang
HHHu Huang
Hu Huang
Zhaoxin WangZhaoxin Wang
Zhaoxin Wang
FQFeng Qin
Feng Qin
HZHongwei Zhao
Hongwei Zhao

19 July 2019 in Smart Materials and Structures
Verified
Journal Article
Closed access
PDF file
JWJiru Wang
Jiru Wang
FQFeng Qin
Feng Qin
YZYanhui Zhang
Yanhui Zhang
TLTianwei Liang
Tianwei Liang
Zhaoxin WangZhaoxin Wang
Zhaoxin Wang
HZHongwei Zhao
Hongwei Zhao
This paper proposes a linear piezoelectric actuator with a flexible mechanism with wing skeletal structure. Besides the compact structure, high location precision and easy control, the main innovation point is that through the flexible mechanism with wing skeletal structure, the proposed actuator solves the problem that existing piezoelectric actuators based on parasitic motion principle must sacrifice motion performance in one direction for improving that in the opposite direction. The design process and operation principle of the proposed actuator is elaborated. And finite element analysis software ABAQUS and mathematical software MATLAB/SIMULINK are used to carry out static and dynamic analysis of the flexible mechanism. Last, a series of experiments are carried out and the results prove the proposed actuator can achieve desired function and show a favorable prospect to develop further.

1 March 2021 in Materials Science and Engineering: A
Verified
Journal Article
Closed access
YGYue Guo
Yue Guo
MZMeng Zhang
Meng Zhang
Zhaoxin WangZhaoxin Wang
Zhaoxin Wang
SWShunbo Wang
Shunbo Wang
CLChangyi Liu
Changyi Liu
HZHongwei Zhao
Hongwei Zhao

2 June 2021 in Smart Materials and Structures
Verified
Journal Article
Closed access
JWJiru Wang
Jiru Wang
HHHu Huang
Hu Huang
Zhaoxin WangZhaoxin Wang
Zhaoxin Wang
TLTianwei Liang
Tianwei Liang
HZHongwei Zhao
Hongwei Zhao
This paper compares three flexible mechanisms in parasitic motion principle piezoelectric actuator through analytic calculation and experiment investigation. The flexible mechanism used in piezoelectric actuator can be classified into functional shape type and asymmetrical stiffness type. For comparing the benefits of these two types of flexible mechanisms and their hybrid structure, the relation between the force and displacement of three flexible mechanisms are deduced using matrix-based compliance modeling method. Also, the dynamic model of parasitic motion principle piezoelectric actuator is used to explore the influence of dimension of flexible mechanism. After that, a prototype and above-mentioned three flexible mechanisms are manufactured and tested, and the motion characteristics of prototype with different flexible mechanisms are investigated, including the step length, velocity and load capacity under different driving voltage and driving frequency. Based on experiment results, the advantages of three flexible mechanisms are analyzed, the hybrid flexible mechanism can achieve fast velocity at medium driving frequency, but asymmetrical stiffness flexible mechanism shows greater motion efficiency and better performance under high driving frequency.