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ZIF催化剂
SEPARATION AND PURIFICATION TECHNOLOGY · 2024 · IF 8.1

Structure regulation and catalytic performance of amine-functionalized zeolitic imidazolate frameworks for CO2 cycloaddition

Meng Linghu,Yang Jiakun,Huo Zichen,Wu Qin,Zhang Yaoyuan,Shi Daxin,Chen Kangcheng,Liu Helei,Xu Xiyan,Li Hansheng,Xu Hang

The capture and transformation of CO 2 , utilized as a C1 resource, play an integral role in mitigating CO 2 emissions and addressing the emerging 'carbon source crisis.' The CO 2 cycloaddition to cyclic carbonate is particularly noteworthy. A critical factor in optimizing the efficiency and minimizing the costs associated with CO 2 cycloaddition is the selection of an effective catalyst. A novel amine-functionalized intramolecular acid-base synergistic ZIF catalyst, designated as ABF-ZIF-X, was synthesized using a mixed ligand method, employing 2-MeIM and the larger molecular-sized ligand 2-amBzIM. The introduction of an amino active center and the strategic regulation of the active site defects in metal ions enable ABF-ZIF-X to enhance the density of Lewis acid and base sites. This enhancement facilitates intramolecular acid-base cooperation, which is pivotal for effective CO 2 cycloaddition catalysis. Notably, ABF-ZIF-X exhibits exceptional catalytic activity in the cycloaddition of EBH with CO 2 , eliminating the need for additional solvents and co-catalysts. The reaction mechanism of CO 2 cycloaddition, which is intramolecular acid-base synergistic catalysis and bimolecular activation, was proposed. Among the synthesized catalysts. ABF-ZIF-0.15 shows superior performance, achieving an impressive 96.7% conversion of EBH and a selectivity of 97.1%. Furthermore, this catalyst demonstrates remarkable reusability, maintaining high activity across five cycles.

研究领域: 材料科学 · 化学工程 · 环境科学
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