Surface-Engineered MoO[sub.x]/CN Heterostructures Enable Long-Term SF[sub.6] Photodegradation via Suppressed Fluoridation

Sulfur hexafluoride (SF[sub.6]), the strongest greenhouse gas, has great challenges in degradation because of its stable structure, posing significant environmental concerns. Photocatalysis offers an environmentally friendly, low-energy solution, but the fluoride deposition on catalysts reduces thei...

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Published inMolecules (Basel, Switzerland) Vol. 30; no. 7
Main Authors Zhou, Wenhui, Dong, Boxu, Si, Ziqi, Xu, Yushuai, He, Xinhua, Zhan, Ziyi, Zhang, Yaru, Song, Chaoyu, Lv, Zhuoqian, Zai, Jiantao, Qian, Xuefeng
Format Journal Article
LanguageEnglish
Published MDPI AG 01.04.2025
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Abstract Sulfur hexafluoride (SF[sub.6]), the strongest greenhouse gas, has great challenges in degradation because of its stable structure, posing significant environmental concerns. Photocatalysis offers an environmentally friendly, low-energy solution, but the fluoride deposition on catalysts reduces their activity, thus limiting their large-scale application. To prevent catalyst fluoride poisoning, we report a thin-layer graphitic carbon nitride (CN) material loaded with MoO[sub.x] (CNM) that resists fluoride deposition for long-term SF[sub.6] degradation. By combining molecular structure design and nanostructure regulation, we construct a photocatalyst with enhanced charge carrier mobility and reduced transport distances. We find that the CNM exhibits a high specific surface area, increased contact between reactants and active sites, and efficient electron–hole separation due to the Mo-N bonds, achieving an SF[sub.6] degradation efficiency of 1.73 mmol/g after one day due to the prolonged catalytic durability of the catalyst, which is eight times higher than pristine g-C[sub.3]N[sub.4] (0.21 mmol/g). We demonstrate the potential of CNMs for low-energy, high-efficiency SF[sub.6] degradation, offering a new approach to mitigate the environmental impact of this potent greenhouse gas. We envision that this study will inspire further research into advanced photocatalytic materials for environmental remediation, contributing to global efforts in combating climate change.
AbstractList Sulfur hexafluoride (SF[sub.6]), the strongest greenhouse gas, has great challenges in degradation because of its stable structure, posing significant environmental concerns. Photocatalysis offers an environmentally friendly, low-energy solution, but the fluoride deposition on catalysts reduces their activity, thus limiting their large-scale application. To prevent catalyst fluoride poisoning, we report a thin-layer graphitic carbon nitride (CN) material loaded with MoO[sub.x] (CNM) that resists fluoride deposition for long-term SF[sub.6] degradation. By combining molecular structure design and nanostructure regulation, we construct a photocatalyst with enhanced charge carrier mobility and reduced transport distances. We find that the CNM exhibits a high specific surface area, increased contact between reactants and active sites, and efficient electron–hole separation due to the Mo-N bonds, achieving an SF[sub.6] degradation efficiency of 1.73 mmol/g after one day due to the prolonged catalytic durability of the catalyst, which is eight times higher than pristine g-C[sub.3]N[sub.4] (0.21 mmol/g). We demonstrate the potential of CNMs for low-energy, high-efficiency SF[sub.6] degradation, offering a new approach to mitigate the environmental impact of this potent greenhouse gas. We envision that this study will inspire further research into advanced photocatalytic materials for environmental remediation, contributing to global efforts in combating climate change.
Audience Academic
Author He, Xinhua
Si, Ziqi
Xu, Yushuai
Lv, Zhuoqian
Song, Chaoyu
Zai, Jiantao
Zhou, Wenhui
Dong, Boxu
Zhang, Yaru
Qian, Xuefeng
Zhan, Ziyi
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Snippet Sulfur hexafluoride (SF[sub.6]), the strongest greenhouse gas, has great challenges in degradation because of its stable structure, posing significant...
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SubjectTerms Air pollution
Boron nitride
Catalysis
Climatic changes
Evaluation
Greenhouse gases
Sulfur hexafluoride
Title Surface-Engineered MoO[sub.x]/CN Heterostructures Enable Long-Term SF[sub.6] Photodegradation via Suppressed Fluoridation
Volume 30
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