Preparation of hybrid photoelectrode based on defect-poor Zn-CuInSe2 QDs sensitized nanoporous ZnO nanosheets with an application in azo dye removal

The glutathione (GSH) and mercaptopropionic acid (MPA) modified internal defect-rich, surface defects-poor near infrared (NIR) Zn–CuInSe 2 (ZCISe) QDs were synthesized. Nanoporous ZnO nanosheets (NS) were firstly loaded with those ZCISe QDs to improve photoelectrochemical response in the NIR light r...

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Published inJournal of materials science. Materials in electronics Vol. 30; no. 8; pp. 7928 - 7939
Main Authors Yao, Lu, Geng, Hongchao, Cheng, Runrun, Cao, Kesheng, Sheng, Pengtao, Li, Weili, Li, Songtian
Format Journal Article
LanguageEnglish
Published New York Springer US 01.04.2019
Springer Nature B.V
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Abstract The glutathione (GSH) and mercaptopropionic acid (MPA) modified internal defect-rich, surface defects-poor near infrared (NIR) Zn–CuInSe 2 (ZCISe) QDs were synthesized. Nanoporous ZnO nanosheets (NS) were firstly loaded with those ZCISe QDs to improve photoelectrochemical response in the NIR light region. Then loading Mn doping CdS thin film onto the ZCISe/ZnO NS was further used to reduce the interfacial recombination between different components of hybrid photoelectrode, in addition to enhance the light absorption and resist the photo-oxidation decomposition of the photocatalysts. Successively introducing ZCISe and Mn–CdS onto ZnO NS can increase the photocurrent intensities from 1 mA/cm 2 for naked ZnO NS, 2.2 mA/cm 2 for ZCISe/ZnO NS, to 9 mA/cm 2 for Mn–CdS/ZCISe/ZnO NS. Here, excellent performance of ZCISe based ZnO NS photoelectrode is mainly attributed to an intrinsic defect state-related donor–acceptor pair (DAP) in ZCISe QDs with long-lived photogenerated carriers. Photocatalytic properties of Mn–CdS/ZCISe/ZnO NS were evaluated by removing azo dyes with an efficiency of 83%, an enhancement of 97% compared to that of ZnO NS.
AbstractList The glutathione (GSH) and mercaptopropionic acid (MPA) modified internal defect-rich, surface defects-poor near infrared (NIR) Zn–CuInSe2 (ZCISe) QDs were synthesized. Nanoporous ZnO nanosheets (NS) were firstly loaded with those ZCISe QDs to improve photoelectrochemical response in the NIR light region. Then loading Mn doping CdS thin film onto the ZCISe/ZnO NS was further used to reduce the interfacial recombination between different components of hybrid photoelectrode, in addition to enhance the light absorption and resist the photo-oxidation decomposition of the photocatalysts. Successively introducing ZCISe and Mn–CdS onto ZnO NS can increase the photocurrent intensities from 1 mA/cm2 for naked ZnO NS, 2.2 mA/cm2 for ZCISe/ZnO NS, to 9 mA/cm2 for Mn–CdS/ZCISe/ZnO NS. Here, excellent performance of ZCISe based ZnO NS photoelectrode is mainly attributed to an intrinsic defect state-related donor–acceptor pair (DAP) in ZCISe QDs with long-lived photogenerated carriers. Photocatalytic properties of Mn–CdS/ZCISe/ZnO NS were evaluated by removing azo dyes with an efficiency of 83%, an enhancement of 97% compared to that of ZnO NS.
The glutathione (GSH) and mercaptopropionic acid (MPA) modified internal defect-rich, surface defects-poor near infrared (NIR) Zn–CuInSe 2 (ZCISe) QDs were synthesized. Nanoporous ZnO nanosheets (NS) were firstly loaded with those ZCISe QDs to improve photoelectrochemical response in the NIR light region. Then loading Mn doping CdS thin film onto the ZCISe/ZnO NS was further used to reduce the interfacial recombination between different components of hybrid photoelectrode, in addition to enhance the light absorption and resist the photo-oxidation decomposition of the photocatalysts. Successively introducing ZCISe and Mn–CdS onto ZnO NS can increase the photocurrent intensities from 1 mA/cm 2 for naked ZnO NS, 2.2 mA/cm 2 for ZCISe/ZnO NS, to 9 mA/cm 2 for Mn–CdS/ZCISe/ZnO NS. Here, excellent performance of ZCISe based ZnO NS photoelectrode is mainly attributed to an intrinsic defect state-related donor–acceptor pair (DAP) in ZCISe QDs with long-lived photogenerated carriers. Photocatalytic properties of Mn–CdS/ZCISe/ZnO NS were evaluated by removing azo dyes with an efficiency of 83%, an enhancement of 97% compared to that of ZnO NS.
Author Cao, Kesheng
Li, Weili
Yao, Lu
Cheng, Runrun
Sheng, Pengtao
Li, Songtian
Geng, Hongchao
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Snippet The glutathione (GSH) and mercaptopropionic acid (MPA) modified internal defect-rich, surface defects-poor near infrared (NIR) Zn–CuInSe 2 (ZCISe) QDs were...
The glutathione (GSH) and mercaptopropionic acid (MPA) modified internal defect-rich, surface defects-poor near infrared (NIR) Zn–CuInSe2 (ZCISe) QDs were...
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SubjectTerms Azo dyes
Cadmium sulfide
Characterization and Evaluation of Materials
Chemistry and Materials Science
Copper indium selenides
Defects
Electromagnetic absorption
Glutathione
Materials Science
Nanosheets
Optical and Electronic Materials
Oxidation
Photocatalysis
Photoelectric effect
Photoelectric emission
Photovoltaic cells
Surface defects
Thin films
Zinc oxide
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Title Preparation of hybrid photoelectrode based on defect-poor Zn-CuInSe2 QDs sensitized nanoporous ZnO nanosheets with an application in azo dye removal
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