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3篇 您的检索式:作者名="Zhao Chenggui"
    题名 作者 年代 出处 被引量
1Research on a MCOP algorithm for optimized path显示文摘Qin Yong Wang Yukun Zhao Chenggui 2006Journal of Information & Computational Science2006,3,4:1
2Melting behaviors, isothermal and non-isothermal crystallization kinetics of nylon 1212显示文摘Minying Liu Qingxiang Zhao Yudong Wang Chenggui Zhang Zhishen Mo Shaokui Cao 2003Polymer2003,,8:1
3A conductive supramolecular hydrogel creates ideal endogenous niches to promote spinal cord injury repair显示文摘The current effective method for treatment of spinal cord injury(SCI)is to reconstruct the biological microenvironment by filling the injured cavity area and increasing neuronal differentiation of neural stem cells(NSCs)to repair SCI.However,the method is characterized by several challenges including irregular wounds,and mechanical and electrical mismatch of the material-tissue interface.In the current study,a unique and facile agarose/gelatin/polypyrrole(Aga/Gel/PPy,AGP3)hydrogel with similar conductivity and modulus as the spinal cord was developed by altering the concentration of Aga and PPy.The gelation occurred through non-covalent interactions,and the physically crosslinked features made the AGP3 hydrogels injectable.In vitro cultures showed that AGP3 hydrogel exhibited excellent biocompatibility,and promoted differentiation of NSCs toward neurons whereas it inhibited over-proliferation of astrocytes.The in vivo implanted AGP3 hydrogel completely covered the tissue defects and reduced injured cavity areas.In vivo studies further showed that the AGP3 hydrogel provided a biocompatible microenvironment for promoting endogenous neurogenesis rather than glial fibrosis formation,resulting in significant functional recovery.RNA sequencing analysis further indicated that AGP3 hydrogel significantly modulated expression of neurogenesis-related genes through intracellular Ca2+signaling cascades.Overall,this supramolecular strategy produces AGP3 hydrogel that can be used as favorable biomaterials for SCI repair by filling the cavity and imitating the physiological properties of the spinal cord.Biao Yang Chengzhen Liang Di Chen Feng Cheng Yuang Zhang Shaoke Wang Jiawei Shu Xianpeng Huang Jingkai Wang Kaishun Xia Liwei Ying Kesi Shi Chenggui Wang Xuhua Wang Fangcai Li Qian Zhao Qixin Chen 2022Bioactive Materials2022,7,9:0
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