Chromatic Fulleropyrrolidine as Long‐Lived Metal‐Free Catalyst for CO 2 Photoreduction Reaction

Conversion of CO 2 into carbonaceous fuels with the aid of solar energy has been an important research subject for decades. Owing to their excellent electron‐accepting capacities, fullerene derivatives have been extensively used as n‐type semiconductors. This work reports that the fulleropyrrolidine...

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Published inChemSusChem Vol. 15; no. 5; p. e202102476
Main Authors Wang, Shih‐Hao, Raja, Rathinam, Hsiow, Chuen‐Yo, Khurshid, Farheen, Yang, Hau‐Ren, Chung, Po‐Wen, Lai, Yu‐Ying, Jeng, Ru‐Jong, Wang, Leeyih
Format Journal Article
LanguageEnglish
Published Germany 08.03.2022
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Summary:Conversion of CO 2 into carbonaceous fuels with the aid of solar energy has been an important research subject for decades. Owing to their excellent electron‐accepting capacities, fullerene derivatives have been extensively used as n‐type semiconductors. This work reports that the fulleropyrrolidine functionalized with 4,7‐di(thiophen‐2‐yl)benzo[ c ][1,2,5]thiadiazole, abbreviated as DTBT‐C 60 , could efficiently catalyze the photoreduction of CO 2 to CO. The novel C 60 ‐chromophore dyad structure facilitated better usage of solar light and effective dissociation of excitons. Consequently, the DTBT‐C 60 exhibited a promising CO yield of 144 μmol g cat −1 under AM1.5G solar illumination for 24 h. Moreover, the isotope experiments demonstrated that water molecules could function as an electron source to reactivate DTBT‐C 60 . Impressively, DTBT‐C 60 exhibited an extremely durable catalytic activity for more than one week, facilitating the practical application of photochemical CO 2 reaction.
ISSN:1864-5631
1864-564X
DOI:10.1002/cssc.202102476