Wei She

Prof. Wei She

Jiangsu Key Laboratory for Construction Materials, Southeast University, Nanjing 211189, China

Research Focus & Metrics

Academic Career Length

18Years (2009-Present)

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

Representative Publications

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1 March 2019 in Construction and Building Materials
Verified
Journal Article
Closed access
YZYu Zhang
Yu Zhang
YZYunsheng Zhang
Yunsheng Zhang
Wei SheWei She
Wei She
LYLin Yang
Lin Yang
GLGuojian Liu
Guojian Liu
YYYonggan Yang
Yonggan Yang

1 April 2018 in Cement and Concrete Research
Verified
Journal Article
Closed access
Wei SheWei She
Wei She
YDYi Du
Yi Du
CMChangwen Miao
Changwen Miao
JLJiaping Liu
Jiaping Liu
GZGuotang Zhao
Guotang Zhao
YZYunsheng Zhang
Yunsheng Zhang

1 May 2018 in Construction and Building Materials
Verified
Journal Article
Closed access
Wei SheWei She
Wei She
YDYi Du
Yi Du
GZGuotang Zhao
Guotang Zhao
PFPan Feng
Pan Feng
YZYunsheng Zhang
Yunsheng Zhang
XCXiaoyu Cao
Xiaoyu Cao

20 October 2021 in Advanced Functional Materials
Verified
Journal Article
Closed access
PDF file
GXGang Xu
Gang Xu
HXHuan Xia
Huan Xia
PCPengyu Chen
Pengyu Chen
Wei SheWei She
Wei She
HZHanning Zhang
Hanning Zhang
ZSZhengMing Sun
ZhengMing Sun

1 September 2018 in Journal of Cleaner Production
Verified
Journal Article
Closed access
MWMeng Wu
Meng Wu
YZYunsheng Zhang
Yunsheng Zhang
YJYongsheng Ji
Yongsheng Ji
GLGuojian Liu
Guojian Liu
CLCheng Liu
Cheng Liu
WSWei Sun
Wei Sun

20 June 2020 in Materials Horizons
Verified
Journal Article
Closed access
PDF file
FPFeng Pan
Feng Pan
SYShaoxiong Ye
Shaoxiong Ye
RWRuixing Wang
Ruixing Wang
Wei SheWei She
Wei She
JLJiaping Liu
Jiaping Liu
Wei ZhangWei Zhang
Wei Zhang
Underwater adhesives with intrinsically tough and stable performance are urgently needed for environmental and engineering applications. Marine organisms have inspired numerous studies on the design and development of wet adhesives. Here we report a facile yet powerful strategy that recapitulates the delivery process of mussel adhesion for the development of strong and durable hydrogel adhesives. With the hydrogel matrix serving as an interfacial binding site, while the nanocrystal fillers contribute to the strong cohesion, they demonstrate outstanding adhesion abilities to a wide range of wet surfaces including aluminum, ceramics, glass, polymers and wood. Moreover, in contrast to commercial products for underwater bonding, the hydrogel adhesives present continuous strength growth instead of degradation with time due to the hydration effects and intrinsic reinforcement capabilities of ye'elimite. By synergistically combining macroscopic scale architectures and molecular level interactions, this in situ formation strategy opens a new route to incorporate nanocrystals into a hydrogel matrix, leading to a universal bonding solution on diverse surfaces underwater.