个人信息Personal information
- 博士生导师
- 硕士生导师
- 教师拼音名称:Huang Chi
- 电子邮箱:
- 所在单位:化学与分子科学学院
- 职务:教授
- 学历:研究生毕业
- 办公地点:化学与分子科学学院
- 性别:男
- 联系方式:+86-27-68754226
- 在职信息:在职
- 毕业院校:武汉大学
- 所属院系:化学与分子科学学院
联系方式Contact information
论文成果
Structural design and evolution of one-dimensional Cu hydrogen-bonded organic framework for catalyzing the rapid decomposition of ammonium perchlorate
发表时间:2024-12-31 点击次数:
影响因子:12.2
DOI码:10.1016/j.jhazmat.2024.136961
发表刊物:Journal of Hazardous Materials
关键字:Structural design and evolution; Cu-HOF; Heterostructure; One-dimensional structure; Ammonium perchlorate
摘要:Enhancing the decomposition rate of ammonium perchlorate (AP), the most common oxidizer in solid propellants, is important for improving propellant performance. Metal organic frameworks (MOFs) have been developed as key materials for catalyzing AP decomposition, as they can achieve good dispersion of active sites through in-situ decomposition. Despite having considerable potential, the structural transformation process and catalytic performance of MOFs in AP decomposition are still unclear, which seriously hinders their application in the field of AP decomposition. Based on this, we propose a strategy to use a one-dimensional hydrogen-bonded organic framework (HOF) as a base to construct Cu complexes on the surface through coordination interactions to form heterostructure, which in turn yields a Cu-coordinated hydrogen-bonded organic framework(Cu-HOF) as a catalytic material. The good catalytic decarboxylation ability of Cu endows the material with a thermal instability that enables it to decompose rapidly and in situ during the catalytic process, leading to the exposed dispersive behavior of the active sites and the efficient catalysis. The experimental results showed that the decomposition rate of AP was dramatically increased by the addition of Cu-HOF, and the peak value of DTG was enhanced by 17.46 times, demonstrating the effectiveness of the design strategy.
合写作者:Zhou Peng,Zhou Yuming,Yuan Bo,Zhan Falu,Gao Junjie,Liang Tao,Ren Zhuoqun,Zhang Yifu
论文类型:期刊论文
通讯作者:Hu Mingjie*,Huang Chi*
论文编号:136961
学科门类:工学
文献类型:J
卷号:481
页面范围:136961. 2025
ISSN号:0304-3894
是否译文:否
收录刊物:SCI