Jiaqiang Li

Dr. Jiaqiang Li

School of Mechanical and Electric Engineering, Suzhou, Jiangsu, China
orcid

Research Focus & Metrics

Academic Career Length

26Years (2001-Present)

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

Representative Publications

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1 June 2019 in Corrosion Science
Verified
Journal Article
Closed access
Jiaqiang LiJiaqiang Li
Jiaqiang Li
XLXin Lin
Xin Lin
JWJian Wang
Jian Wang
MZMin Zheng
Min Zheng
PGPengfei Guo
Pengfei Guo
WHWeidong Huang
Weidong Huang

1 September 2018 in Corrosion Science
Verified
Journal Article
Closed access
Jiaqiang LiJiaqiang Li
Jiaqiang Li
XLXin Lin
Xin Lin
PGPengfei Guo
Pengfei Guo
MSMenghua Song
Menghua Song
WHWeidong Huang
Weidong Huang

1 March 2018 in Corrosion Science
Verified
Journal Article
Closed access
PGPengfei Guo
Pengfei Guo
XLXin Lin
Xin Lin
Jiaqiang LiJiaqiang Li
Jiaqiang Li
YZYufeng Zhang
Yufeng Zhang
MSMenghua Song
Menghua Song
WHWeidong Huang
Weidong Huang

1 September 2018 in Electrochimica Acta
Verified
Journal Article
Closed access
Jiaqiang LiJiaqiang Li
Jiaqiang Li
XLXin Lin
Xin Lin
MZMin Zheng
Min Zheng
JWJian Wang
Jian Wang
PGPengfei Guo
Pengfei Guo
HYHaiou Yang
Haiou Yang

1 December 2019 in Applied Surface Science
Verified
Journal Article
Closed access
MZMin Zheng
Min Zheng
WLWei Lei
Wei Lei
JCJing Chen
Jing Chen
QZQiang Zhang
Qiang Zhang
Jiaqiang LiJiaqiang Li
Jiaqiang Li
WHWeidong Huang
Weidong Huang

18 May 2017 in Journal of the Electrochemical Society
Verified
Journal Article
Closed access
PDF file
PGPengfei Guo
Pengfei Guo
XLXin Lin
Xin Lin
JXJianjun Xu
Jianjun Xu
Jiaqiang LiJiaqiang Li
Jiaqiang Li
JLJianrui Liu
Jianrui Liu
WHWeidong Huang
Weidong Huang
To overcome the difficulty on manufacturing of large high-performance Inconel 718 parts with high efficiency and precision by traditional processing methods, we propose the laser/electrochemical hybrid precision forming technology. Here, the electrochemical behavior of different phases in laser solid formed (LSFed) Inconel 718 was investigated based on the analysis of surface micromorphology, surface products and polarization tests. The results showed that Nb-rich γ phase dissolves faster than γ matrix due to its higher lattice distortion energy and more negative electrode potential. The high free energy of atoms on phase boundaries also accelerates the dissolution of Nb-rich γ phase. Further, the secondary phases surrounded by Nb-rich γ phase fall out by undermining. Compared with γ matrix, Nb-rich γ phase possesses a lower onset potential because of its negative electrode potential. Moreover, qualitative model has been assumed to illustrate the electrochemical removal behavior of phases. These results provide an insight to improve the surface quality of LSFed Inconel 718 parts during the process of electrochemical machining.