催化作用
材料科学
铜
化学工程
复合数
金属
石墨烯
纤维素
超细纤维
纳米技术
耐久性
工作(物理)
催化剂载体
选择性催化还原
形态学(生物学)
还原(数学)
科技与社会
多相催化
聚合物
作者
Jiahan Zhao,Yingshuang Li,Zhuoyuan Bi,Guanwu Lian,Guokang Chen,Pei Liu,Yuan Meng,Fangrun Jin,Xiaoxu Zhao,Zhonghua Li,Jianyong Feng,Jiangbo Xi,Zhongxin Chen
标识
DOI:10.1002/adfm.202521090
摘要
Abstract Continuous‐flow fixed‐bed reactors effectively bridge laboratory research and industrial production. As the key component, the catalyst module must demonstrate high catalytic activity and rapid reactant distribution to maximize the catalytic turnover. Herein, a facile strategy is proposed to fabricate a microfibrous catalyst by decorating Cu single atoms (Cu 1 ) on composite microfiber (CMF) made from N‐doped holey graphene (NHG) and regenerated cellulose of waste paper. Benefiting from the high density of atomic metal species, maximized utilization of active sites, strong metal‐support interactions, and fibrous morphology with adjustable packing density, such a CMF‐supported Cu single‐atom catalyst (Cu 1 /CMF) displayed a benchmarking processing capacity of 1.92 mmol mg cat −1 h −1 and superior durability (≥ 25 cycles) for catalytic reduction of nitroarenes, surpassing the reported catalysts. This work opens new possibilities for continuous‐flow catalysis in organic transformations in a greener and more sustainable way.
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