Zhenfeng He

Prof. Zhenfeng He


Research Focus & Metrics

Academic Career Length

9Years (2018-Present)

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

Representative Publications

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1 December 2018 in Carbon
Verified
Journal Article
Closed access
CWChao Wang
Chao Wang
VMVignesh Murugadoss
Vignesh Murugadoss
JKJie Kong
Jie Kong
ZHZhenfeng He
Zhenfeng He
XMXianmin Mai
Xianmin Mai
ZGZhanhu Guo
Zhanhu Guo

1 June 2018 in Journal of Membrane Science
Verified
Journal Article
Closed access
CWChao Wang
Chao Wang
BMBiming Mo
Biming Mo
ZHZhenfeng He
Zhenfeng He
QSQian Shao
Qian Shao
DPDuo Pan
Duo Pan
ZGZhanhu Guo
Zhanhu Guo

19 January 2018 in Macromolecular Materials and Engineering
Verified
Journal Article
Closed access
PDF file
Wang ChaoWang Chao
Wang Chao
ZHZhenfeng He
Zhenfeng He
XXXiaofeng Xie
Xiaofeng Xie
XMXianmin MAI
Xianmin MAI
YLYingchun Li
Yingchun Li
ZGZhanhu Guo
Zhanhu Guo

11 December 2020 in Chemical Communications
Verified
Journal Article
Closed access
PDF file
YHYufeng Huo
Yufeng Huo
ZHZhenfeng He
Zhenfeng He
Wang ChaoWang Chao
Wang Chao
LZLei Zhang
Lei Zhang
QXQianyu Xuan
Qianyu Xuan
ZGZhanhu Guo
Zhanhu Guo
Supramolecular polymers have the combined properties of both traditional polymers and supramolecules. They are generally formed via the self-assembled polymerization driven noncovalent interactions such as hydrogen bonding, π–π stacking, metal coordination, and host–guest interaction between building blocks. The driving force for the formation of supramolecular polymers has changed from single noncovalent interactions to multiple noncovalent interactions. The advantages of multiple noncovalent interactions driving the formation of supramolecular polymers are reviewed from four aspects: polymer construction, the enhancement of bonding strength, properties and topological structure. The applications are illustrated with detailed examples including self-healing, drug delivery, bioimaging, biomedicine, environmental sensing and electronics.

1 April 2021 in Journal of Membrane Science
Verified
Journal Article
Closed access
LLLei Liu
Lei Liu
CWChao Wang
Chao Wang
ZHZhenfeng He
Zhenfeng He
HLHu Liu
Hu Liu
QHQian Hu
Qian Hu
ZGZhanhu Guo
Zhanhu Guo

10 February 2021 in Polymer Reviews
Verified
Journal Article
Closed access
ZHZhenfeng He
Zhenfeng He
GWGuoqing Wang
Guoqing Wang
Wang ChaoWang Chao
Wang Chao
LGLi Guo
Li Guo
RWRenbo Wei
Renbo Wei
ZGZhanhu Guo
Zhanhu Guo
With very fast polymerization in mild reaction conditions and unique characteristic of double bonds in its synthesized polymer skeleton for further modification and functionalization, ring opening metathesis polymerization (ROMP) becomes one typical processing method to obtain anion exchange membrane (AEM) for fuel cells. In this paper, AEMs prepared by ROMP are reviewed. Polycyclooctene and polynorbornene AEMs with both good stability and high conductivity are achieved with different ion exchange groups such as quaternary ammonium, phosphorus and metal cations (such as bis(terpyridine)-ruthenium(II) and cobaltocenium). Polymer structure and ion channels are mainly constructed in the polymer skeleton to form the “ion channel” microphase-separated structure to improve its chemical stability and ionic conductivity. On the basis of selected ion exchange groups and optimized polymer skeleton, performances obtained in these ion exchange membranes (IEMs) and their corresponding fuel cell performances are summarized. These polycyclooctene and polynorbornene AEMs have excellent properties and promising performances in fuel cells. We believe that further exploration of this class of AEM may lead to practical applications.