A multidimensional In 2 S 3–CuInS 2 heterostructure for photocatalytic carbon dioxide reduction
Inorganic Chemistry Frontiers, 2018•pubs.rsc.org
We fabricated a multidimensional heterostructured In2S3–CuInS2 photocatalyst to convert
CO2 to CO. The hybrid photocatalyst can be obtained by using an In-containing MOF as a
precursor followed by sulfidation and ion exchange. Moreover, the multidimensional
structure, a 2D nanosheet semiconductor distributed on 1D hollow nanotubes, inhibits the
recombination of charge carriers, increases CO2 adsorption and affords a large surface area
promoting exposure of plentiful active sites. As a result, the as-synthesized optimal …
CO2 to CO. The hybrid photocatalyst can be obtained by using an In-containing MOF as a
precursor followed by sulfidation and ion exchange. Moreover, the multidimensional
structure, a 2D nanosheet semiconductor distributed on 1D hollow nanotubes, inhibits the
recombination of charge carriers, increases CO2 adsorption and affords a large surface area
promoting exposure of plentiful active sites. As a result, the as-synthesized optimal …
We fabricated a multidimensional heterostructured In2S3–CuInS2 photocatalyst to convert CO2 to CO. The hybrid photocatalyst can be obtained by using an In-containing MOF as a precursor followed by sulfidation and ion exchange. Moreover, the multidimensional structure, a 2D nanosheet semiconductor distributed on 1D hollow nanotubes, inhibits the recombination of charge carriers, increases CO2 adsorption and affords a large surface area promoting exposure of plentiful active sites. As a result, the as-synthesized optimal heterostructured In2S3–CuInS2 display a excellent activity with the CO evolution rate of 19.00 μmol g−1 h−1 over the under visible light irradiation, which is roughly four times higher than that of pristine In2S3. This work might pave the way for increasing the performance of metal sulphide photocatalysts by MOF-guided chemistry.
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