NH2-MIL-125(Ti) modified graphitic carbon nitride with carbon vacancy for efficient photocatalytic NO removal. 2022

Cheng Cheng, and Dongyun Chen, and Najun Li, and Hua Li, and Qingfeng Xu, and Jinhui He, and Jianmei Lu
College of Chemistry, Chemical Engineering and Materials Science, Soochow University, 199 Ren'ai Road, Suzhou Industrial Park, Suzhou, 215123, China.

This paper reports the application of NH2-MIL-125(Ti) modified carbon nitride Cv-C3N4 with carbon vacancies in the removal of NO. We performed a series of characterizations of the complex and compared various ratios with the individual components. The results of UV spectrum analysis show that the composite's range of light absorption expanded due to the modification of Ti metal-organic framework. Furthermore, the results of photocurrent and electrical impedance indicate the compound has a better ability to generate and transfer electrons. The increase in the compound's NO removal efficiency (up to 63%) indicates that MOF has a positive effect on Cv-C3N4 modification-a good method for photocatalysis. Moreover, the compound can promote photocatalysis in a favorable direction.

UI MeSH Term Description Entries
D002244 Carbon A nonmetallic element with atomic symbol C, atomic number 6, and atomic weight [12.0096; 12.0116]. It may occur as several different allotropes including DIAMOND; CHARCOAL; and GRAPHITE; and as SOOT from incompletely burned fuel. Carbon-12,Vitreous Carbon,Carbon 12,Carbon, Vitreous
D002384 Catalysis The facilitation of a chemical reaction by material (catalyst) that is not consumed by the reaction. Catalyses
D006108 Graphite An allotropic form of carbon that is used in pencils, as a lubricant, and in matches and explosives. It is obtained by mining and its dust can cause lung irritation. Graphene
D000073396 Metal-Organic Frameworks Supramolecular networks that consist of ordered arrangements of organic electron donor linkers (usually ditopic or polytopic organic carboxylates) and metal cations. They can have an extremely high surface area and adjustable pore size that allows for the insertion of other molecules capable of various functions such as catalysis, capture of carbon dioxide, and drug delivery. Metal Organic Framework,Metal-Organic Framework,Porous Coordination Polymer,Covalent Organic Framework,Porous Coordination Networks,Porous Coordination Polymers,Coordination Networks, Porous,Coordination Polymer, Porous,Coordination Polymers, Porous,Framework, Covalent Organic,Framework, Metal Organic,Framework, Metal-Organic,Frameworks, Metal-Organic,Metal Organic Frameworks,Networks, Porous Coordination,Organic Framework, Covalent,Organic Framework, Metal,Polymer, Porous Coordination,Polymers, Porous Coordination
D014025 Titanium A dark-gray, metallic element of widespread distribution but occurring in small amounts with atomic number, 22, atomic weight, 47.867 and symbol, Ti; specific gravity, 4.5; used for fixation of fractures.
D017672 Nitrogen Compounds Inorganic compounds that contain nitrogen as an integral part of the molecule. Compounds, Nitrogen

Related Publications

Cheng Cheng, and Dongyun Chen, and Najun Li, and Hua Li, and Qingfeng Xu, and Jinhui He, and Jianmei Lu
November 2019, ChemSusChem,
Cheng Cheng, and Dongyun Chen, and Najun Li, and Hua Li, and Qingfeng Xu, and Jinhui He, and Jianmei Lu
March 2021, Journal of hazardous materials,
Cheng Cheng, and Dongyun Chen, and Najun Li, and Hua Li, and Qingfeng Xu, and Jinhui He, and Jianmei Lu
March 2022, Journal of colloid and interface science,
Cheng Cheng, and Dongyun Chen, and Najun Li, and Hua Li, and Qingfeng Xu, and Jinhui He, and Jianmei Lu
December 2021, Chemistry (Weinheim an der Bergstrasse, Germany),
Cheng Cheng, and Dongyun Chen, and Najun Li, and Hua Li, and Qingfeng Xu, and Jinhui He, and Jianmei Lu
August 2022, ACS omega,
Cheng Cheng, and Dongyun Chen, and Najun Li, and Hua Li, and Qingfeng Xu, and Jinhui He, and Jianmei Lu
February 2018, Chemical communications (Cambridge, England),
Cheng Cheng, and Dongyun Chen, and Najun Li, and Hua Li, and Qingfeng Xu, and Jinhui He, and Jianmei Lu
May 2019, Chemical science,
Cheng Cheng, and Dongyun Chen, and Najun Li, and Hua Li, and Qingfeng Xu, and Jinhui He, and Jianmei Lu
May 2022, Journal of hazardous materials,
Cheng Cheng, and Dongyun Chen, and Najun Li, and Hua Li, and Qingfeng Xu, and Jinhui He, and Jianmei Lu
January 2020, Nano-micro letters,
Cheng Cheng, and Dongyun Chen, and Najun Li, and Hua Li, and Qingfeng Xu, and Jinhui He, and Jianmei Lu
November 2016, Dalton transactions (Cambridge, England : 2003),
Copied contents to your clipboard!