Near‐Infrared‐Driven Photocatalysts: Design, Construction, and Applications

Photocatalysts, which utilize solar energy to catalyze the oxidation or reduction half reactions, have attracted tremendous interest due to their great potential in addressing increasingly severe global energy and environmental issues. Solar energy utilization plays an important role in determining...

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Published inSmall (Weinheim an der Bergstrasse, Germany) Vol. 17; no. 9; pp. e1904107 - n/a
Main Authors Wang, Li, Xu, Xun, Cheng, Qunfeng, Dou, Shi Xue, Du, Yi
Format Journal Article
LanguageEnglish
Published Germany Wiley Subscription Services, Inc 01.03.2021
Subjects
Chemical reactions
Electrocatalysts
Energy conversion
Energy storage
Energy utilization
Infrared radiation
Nanotechnology
near‐infrared
Optical properties
Oxidation
Photocatalysis
Photocatalysts
plasmons
Pollutants
Reduction
Solar energy
solar energy conversion
vacancy
Water splitting
solar energy conversion
near-infrared
vacancy
photocatalysts
plasmons
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Abstract Photocatalysts, which utilize solar energy to catalyze the oxidation or reduction half reactions, have attracted tremendous interest due to their great potential in addressing increasingly severe global energy and environmental issues. Solar energy utilization plays an important role in determining photocatalytic efficiencies. In the past few decades, many studies have been done to promote photocatalytic efficiencies via extending the absorption of solar energy into near‐infrared (NIR) light. This Review comprehensively summarizes the recent progress in NIR‐driven photocatalysts, including the strategies to harvest NIR photons and corresponding photocatalytic applications such as the degradation of organic pollutants, water disinfection, water splitting for H2 and O2 evolution, CO2 reduction, etc. The application of NIR‐active photocatalysts employed as electrocatalysts is also presented. The subject matter of this Review is designed to present the relationship between material structure and material optical properties as well as the advantage of material modification in photocatalytic reactions. It paves the way for future material design in solar energy–related fields and other energy conversion and storage fields. This Review summarizes recent progress on near‐infrared (NIR)‐driven photocatalysts, including four strategies such as adopting upconversion/surface plasmon resonance (SPR)/chromophore components and employing bandgap engineering to harvest NIR photons, as well as NIR active photocatalytic oxidation/reduction reactions such as water splitting, NO photooxidation, CO2 photoreduction, N2 photofixation, etc. The application of NIR‐active photocatalysts employed as electrocatalysts is presented.
AbstractList Photocatalysts, which utilize solar energy to catalyze the oxidation or reduction half reactions, have attracted tremendous interest due to their great potential in addressing increasingly severe global energy and environmental issues. Solar energy utilization plays an important role in determining photocatalytic efficiencies. In the past few decades, many studies have been done to promote photocatalytic efficiencies via extending the absorption of solar energy into near‐infrared (NIR) light. This Review comprehensively summarizes the recent progress in NIR‐driven photocatalysts, including the strategies to harvest NIR photons and corresponding photocatalytic applications such as the degradation of organic pollutants, water disinfection, water splitting for H2 and O2 evolution, CO2 reduction, etc. The application of NIR‐active photocatalysts employed as electrocatalysts is also presented. The subject matter of this Review is designed to present the relationship between material structure and material optical properties as well as the advantage of material modification in photocatalytic reactions. It paves the way for future material design in solar energy–related fields and other energy conversion and storage fields. This Review summarizes recent progress on near‐infrared (NIR)‐driven photocatalysts, including four strategies such as adopting upconversion/surface plasmon resonance (SPR)/chromophore components and employing bandgap engineering to harvest NIR photons, as well as NIR active photocatalytic oxidation/reduction reactions such as water splitting, NO photooxidation, CO2 photoreduction, N2 photofixation, etc. The application of NIR‐active photocatalysts employed as electrocatalysts is presented.
Photocatalysts, which utilize solar energy to catalyze the oxidation or reduction half reactions, have attracted tremendous interest due to their great potential in addressing increasingly severe global energy and environmental issues. Solar energy utilization plays an important role in determining photocatalytic efficiencies. In the past few decades, many studies have been done to promote photocatalytic efficiencies via extending the absorption of solar energy into near-infrared (NIR) light. This Review comprehensively summarizes the recent progress in NIR-driven photocatalysts, including the strategies to harvest NIR photons and corresponding photocatalytic applications such as the degradation of organic pollutants, water disinfection, water splitting for H and O evolution, CO reduction, etc. The application of NIR-active photocatalysts employed as electrocatalysts is also presented. The subject matter of this Review is designed to present the relationship between material structure and material optical properties as well as the advantage of material modification in photocatalytic reactions. It paves the way for future material design in solar energy-related fields and other energy conversion and storage fields.
Photocatalysts, which utilize solar energy to catalyze the oxidation or reduction half reactions, have attracted tremendous interest due to their great potential in addressing increasingly severe global energy and environmental issues. Solar energy utilization plays an important role in determining photocatalytic efficiencies. In the past few decades, many studies have been done to promote photocatalytic efficiencies via extending the absorption of solar energy into near‐infrared (NIR) light. This Review comprehensively summarizes the recent progress in NIR‐driven photocatalysts, including the strategies to harvest NIR photons and corresponding photocatalytic applications such as the degradation of organic pollutants, water disinfection, water splitting for H2 and O2 evolution, CO2 reduction, etc. The application of NIR‐active photocatalysts employed as electrocatalysts is also presented. The subject matter of this Review is designed to present the relationship between material structure and material optical properties as well as the advantage of material modification in photocatalytic reactions. It paves the way for future material design in solar energy–related fields and other energy conversion and storage fields.
Photocatalysts, which utilize solar energy to catalyze the oxidation or reduction half reactions, have attracted tremendous interest due to their great potential in addressing increasingly severe global energy and environmental issues. Solar energy utilization plays an important role in determining photocatalytic efficiencies. In the past few decades, many studies have been done to promote photocatalytic efficiencies via extending the absorption of solar energy into near-infrared (NIR) light. This Review comprehensively summarizes the recent progress in NIR-driven photocatalysts, including the strategies to harvest NIR photons and corresponding photocatalytic applications such as the degradation of organic pollutants, water disinfection, water splitting for H2 and O2 evolution, CO2 reduction, etc. The application of NIR-active photocatalysts employed as electrocatalysts is also presented. The subject matter of this Review is designed to present the relationship between material structure and material optical properties as well as the advantage of material modification in photocatalytic reactions. It paves the way for future material design in solar energy-related fields and other energy conversion and storage fields.Photocatalysts, which utilize solar energy to catalyze the oxidation or reduction half reactions, have attracted tremendous interest due to their great potential in addressing increasingly severe global energy and environmental issues. Solar energy utilization plays an important role in determining photocatalytic efficiencies. In the past few decades, many studies have been done to promote photocatalytic efficiencies via extending the absorption of solar energy into near-infrared (NIR) light. This Review comprehensively summarizes the recent progress in NIR-driven photocatalysts, including the strategies to harvest NIR photons and corresponding photocatalytic applications such as the degradation of organic pollutants, water disinfection, water splitting for H2 and O2 evolution, CO2 reduction, etc. The application of NIR-active photocatalysts employed as electrocatalysts is also presented. The subject matter of this Review is designed to present the relationship between material structure and material optical properties as well as the advantage of material modification in photocatalytic reactions. It paves the way for future material design in solar energy-related fields and other energy conversion and storage fields.
Photocatalysts, which utilize solar energy to catalyze the oxidation or reduction half reactions, have attracted tremendous interest due to their great potential in addressing increasingly severe global energy and environmental issues. Solar energy utilization plays an important role in determining photocatalytic efficiencies. In the past few decades, many studies have been done to promote photocatalytic efficiencies via extending the absorption of solar energy into near‐infrared (NIR) light. This Review comprehensively summarizes the recent progress in NIR‐driven photocatalysts, including the strategies to harvest NIR photons and corresponding photocatalytic applications such as the degradation of organic pollutants, water disinfection, water splitting for H 2 and O 2 evolution, CO 2 reduction, etc. The application of NIR‐active photocatalysts employed as electrocatalysts is also presented. The subject matter of this Review is designed to present the relationship between material structure and material optical properties as well as the advantage of material modification in photocatalytic reactions. It paves the way for future material design in solar energy–related fields and other energy conversion and storage fields.
Author Cheng, Qunfeng
Dou, Shi Xue
Wang, Li
Du, Yi
Xu, Xun
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Issue 9
Keywords solar energy conversion
near-infrared
vacancy
photocatalysts
plasmons
Language English
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Snippet Photocatalysts, which utilize solar energy to catalyze the oxidation or reduction half reactions, have attracted tremendous interest due to their great...
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SubjectTerms Chemical reactions
Electrocatalysts
Energy conversion
Energy storage
Energy utilization
Infrared radiation
Nanotechnology
near‐infrared
Optical properties
Oxidation
Photocatalysis
Photocatalysts
plasmons
Pollutants
Reduction
Solar energy
solar energy conversion
vacancy
Water splitting
Title Near‐Infrared‐Driven Photocatalysts: Design, Construction, and Applications
URI https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fsmll.201904107
https://www.ncbi.nlm.nih.gov/pubmed/31539198
https://www.proquest.com/docview/2495984280
https://www.proquest.com/docview/2295479961
Volume 17
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