Kai Qin

Dr. Kai Qin

Wuhan University of Technology, Wuhan, Hubei, China
orcid

Research Focus & Metrics

Academic Career Length

21Years (2006-Present)

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

Representative Publications

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1 October 2020 in Ocean Engineering
Verified
Journal Article
Closed access
Kai QinKai Qin
Kai Qin
YRYan Renjun
Yan Renjun
CMCui Mingen
Cui Mingen
ZHZeng Haiyan
Zeng Haiyan

1 January 2022 in International Journal of Naval Architecture and Ocean Engineering
Verified
Journal Article
Open access
GXGeng Xu
Geng Xu
Kai QinKai Qin
Kai Qin
RYRenjun Yan
Renjun Yan
QDQin Dong
Qin Dong

1 December 2017 in Ceramics International
Verified
Journal Article
Closed access
FMFangsheng Mei
Fangsheng Mei
TYTiechui Yuan
Tiechui Yuan
Ruidi LiRuidi Li
Ruidi Li
Kai QinKai Qin
Kai Qin
WWWenjun Wang
Wenjun Wang
ZYZhenyu Yuan
Zhenyu Yuan

1 February 2006 in Tsinghua Science and Technology
Verified
Journal Article
Open access
JNJianguo Nie
Jianguo Nie
Kai QinKai Qin
Kai Qin
VXVan Xiao
Van Xiao

1 January 2022 in Composite Structures
Verified
Journal Article
Closed access
WSWei Shen
Wei Shen
ZWZishuo Wang
Zishuo Wang
Kai QinKai Qin
Kai Qin
HFHeqi Fu
Heqi Fu
ELEnqian Liu
Enqian Liu

Verified
Journal Article
Open access
PDF file
Kai QinKai Qin
Kai Qin
YRYan Renjun
Yan Renjun
WSWei Shen
Wei Shen
思桂思源 桂
思源 桂
This paper studies the compressive failure behavior of pw-GFRP (plain-woven glass fiber reinforced polymer) sandwich composite L-joints for ships. Six L-joint specimens were subjected to ultimate compressive tests, which show that damage and stiffness degradation started much earlier than any visible signs. A modified fiber kinking criterion is developed for the compressive failure of pw-GFRP layup structure. Moreover, a hybrid stiffness degradation model is applied to simulate the damage progression. The criterion and the degradation model are implemented in simulation through Abaqus user coding. The simulation results are compared with other existing theories, and the proposed criterion is validated by the similar damage initiation time. The combination of the proposed criterion and hybrid degradation model demonstrates a clear advantage over conventional methods in predicting the compressive damage evolution and ultimate failure behavior of the L-joint structure.