Synergistically boosting of CO2 photoreduction over Bi/BiOBr nanostructure via in-situ formation of oxygen vacancy and metallic Bi
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[1] Haolong Li,et al. Mo-Modified (T-M)-Zro2 with Narrowed Band Gap and Strong Ability to Activate Reactants for Photocatalytic Co2 Reduction , 2023, SSRN Electronic Journal.
[2] Hongjun Dong,et al. Fabricate dual interface build-in electric fields by introducing Au nanospecies into Z-scheme heterojunction to propel photocatalytic CO2 reduction , 2023, Separation and Purification Technology.
[3] Jie Hao,et al. Restructuring Surface Frustrated Lewis Acid-Base Pairs of Biobr Through Isomorphous Sn Doping for Enhancing Photocatalytic Co2 Reduction , 2023, SSRN Electronic Journal.
[4] Zhaoling Li,et al. Development of Direct Z-Schemes 2d/2d Bi2o2co3/ Srtio3 Photocatalyst with Interfacial Interaction for Photocatalytic Co2 Reduction , 2023, SSRN Electronic Journal.
[5] Xiaoxia Zhou,et al. Research progress on the formation, detection methods and application in photocatalytic reduction of CO2 of oxygen vacancy , 2023, Journal of CO2 Utilization.
[6] Xubiao Luo,et al. Tunable Bi-Bridge S-Scheme Bi2s3/Biobr Heterojunction with Oxygen Vacancy and Lspr Effect for Efficient Photocatalytic Reduction of Cr(Vi) and Industrial Electroplating Wastewater Treatment , 2023, SSRN Electronic Journal.
[7] Xiaoyong Wu,et al. Construction of Bi2o3 Quantum Dots/Srbi4ti4o15 S-Scheme Heterojunction with Enhanced Photocatalytic Co2 Reduction:Role of Bi2o3 Quantum Dots and Mechanism Study , 2022, SSRN Electronic Journal.
[8] Qiang Yang,et al. Novel 2D/2D BiOBr/Zn(OH)2 photocatalysts for efficient photoreduction CO2 , 2022, Separation and Purification Technology.
[9] Jingjing Wei,et al. Encapsulated CdSe/CdS nanorods in double-shelled porous nanocomposites for efficient photocatalytic CO2 reduction , 2022, Nature Communications.
[10] S. Yin,et al. Oxygen Vacancy and Van Der Waals Heterojunction Modulated Interfacial Chemical Bond Over Mo2c/Bi4o5br2 for Boosting Photocatalytic Co2 Reduction , 2022, SSRN Electronic Journal.
[11] Rong Yu,et al. Unveiling the charge transfer dynamics steered by built-in electric fields in BiOBr photocatalysts , 2022, Nature Communications.
[12] Xuxu Wang,et al. Photocatalytic Reduction of CO2 with H2O Mediated by Ce-Tailored Bismuth Oxybromide Surface Frustrated Lewis Pairs , 2022, ACS Catalysis.
[13] Qingli Wang,et al. In situ construction of S-scheme AgBr/BiOBr heterojunction with surface oxygen vacancy for boosting photocatalytic CO2 reduction with H2O , 2022, Applied Catalysis B: Environmental.
[14] ming Wang,et al. Preparation of flower-like BiOBr/Bi2WO6 Z-scheme heterojunction through an ion exchange process with enhanced photocatalytic activity , 2022, Materials Science in Semiconductor Processing.
[15] R. Yıldırım,et al. Enhancing Charge Transfer in Photocatalytic Hydrogen Production over Dye-Sensitized Pt/TiO2 by Ionic Liquid Coating , 2021, ACS Applied Energy Materials.
[16] Xiufang Zhang,et al. One-step in-situ synthesis of Bi-decorated BiOBr microspheres with abundant oxygen vacancies for enhanced photocatalytic nitrogen fixation properties , 2021 .
[17] Qingli Wang,et al. Polyvinyl pyrrolidone-coordinated ultrathin bismuth oxybromide nanosheets for boosting photoreduction of carbon dioxide via ligand-to-metal charge transfer. , 2021, Journal of colloid and interface science.
[18] Hairong Yue,et al. Photocatalytic Production of Methyl Formate by Methanol Self-Coupling: From Oxidative Dehydrogenation to Direct Dehydrogenation , 2021, Industrial & Engineering Chemistry Research.
[19] Hong-cun Bai,et al. Nitrogen Vacancy‐Induced Deposition of Pd Nanoparticles onto g‐C 3 N 4 with Greatly Improved Photocatalytic Activity in H 2 Evolution , 2021 .
[20] Lili Wang,et al. Multichannel Electron Transmission and Fluorescence Resonance Energy Transfer in In2S3/Au/rGO Composite for CO2 Photoreduction. , 2021, ACS applied materials & interfaces.
[21] N. Zhang,et al. Schottky Junctions with Bi Cocatalyst for Taming Aqueous Phase N2 Reduction toward Enhanced Solar Ammonia Production , 2021, Advanced science.
[22] Bin Wang,et al. Oxygen Vacancies Engineering–Mediated BiOBr Atomic Layers for Boosting Visible Light‐Driven Photocatalytic CO 2 Reduction , 2020, Solar RRL.
[23] Joon-Yeob Lee,et al. Fabrication of a Cu2O-Au-TiO2 Heterostructure with Improved Photocatalytic Performance for the Abatement of Hazardous Toluene and α-Pinene Vapors , 2020 .
[24] T. Maji,et al. Charge-transfer regulated visible light driven photocatalytic H2 production and CO2 reduction in tetrathiafulvalene based coordination polymer gel , 2020, Nature Communications.
[25] Baoyi Wang,et al. Photocatalytic reduction of CO2 on BiOX: Effect of halogen element type and surface oxygen vacancy mediated mechanism , 2020 .
[26] Jianzhi Gao,et al. Flower-like Bi0/CeO2−δ plasmonic photocatalysts with enhanced visible-light-induced photocatalytic activity for NO removal , 2020, Science China Materials.
[27] Yu Huang,et al. In situ construction of biocompatible Z-scheme α-Bi2O3/CuBi2O4 heterojunction for NO removal under visible light , 2020 .
[28] Benxia Li,et al. Interfacial synergy of Pd sites and defective BiOBr for promoting the solar-driven selective oxidation of toluene , 2020, Journal of Materials Chemistry A.
[29] T. Do,et al. Plasmonic photocatalysts for sunlight-driven reduction of CO2-: Detail, development and perspective. , 2020, ChemSusChem.
[30] W. Ho,et al. Synthesis and characterization of Bi-BiPO4 nanocomposites as plasmonic photocatalysts for oxidative NO removal , 2020 .
[31] Yong Zhou,et al. Artificial Trees for Artificial Photosynthesis: Construction of Dendrite-Structured α-Fe2O3/g-C3N4 Z-Scheme System for Efficient CO2 Reduction into Solar Fuels , 2020 .
[32] Yibo Dou,et al. A leaf-branch TiO2/carbon@MOF composite for selective CO2 photoreduction , 2020 .
[33] J. Wu,et al. Photocatalytic reduction of CO2 using Pt/C3N4 photocatalyts , 2020 .
[34] Junhong Chen,et al. Facile construction of novel BiOBr/Bi12O17Cl2 heterojunction composites with enhanced photocatalytic performance. , 2020, Journal of colloid and interface science.
[35] Jun Zhao,et al. Simultaneous Phosphorylation and Bi Modification of BiOBr for Promoting Photocatalytic CO2 Reduction , 2019, ACS Sustainable Chemistry & Engineering.
[36] Jiarui Li,et al. Synergistic integration of Bi metal and phosphate defects on hexagonal and monoclinic BiPO4: Enhanced photocatalysis and reaction mechanism , 2019, Applied Catalysis B: Environmental.
[37] Y. Tong,et al. Ultrathin Bi 2 MoO 6 Nanosheets for Photocatalysis: Performance Enhancement by Atomic Interfacial Engineering , 2018, ChemistrySelect.
[38] J. Qian,et al. Photoelectrochemical monitoring of phenol by metallic Bi self-doping BiOI composites with enhanced photoelectrochemical performance , 2017 .
[39] Jinhua Ye,et al. Light‐Switchable Oxygen Vacancies in Ultrafine Bi5O7Br Nanotubes for Boosting Solar‐Driven Nitrogen Fixation in Pure Water , 2017, Advanced materials.
[40] E. Edri,et al. Coupling carbon dioxide reduction with water oxidation in nanoscale photocatalytic assemblies. , 2016, Chemical Society reviews.
[41] Yihe Zhang,et al. Homogeneous {001}-BiOBr/Bi Heterojunctions: Facile Controllable Synthesis and Morphology-Dependent Photocatalytic Activity , 2016 .
[42] M. Wasielewski,et al. Self-assembling hydrogel scaffolds for photocatalytic hydrogen production. , 2014, Nature chemistry.
[43] Chaozheng He,et al. Synergistically boosting highly selective CO2–to–CO photoreduction over BiOCl nanosheets via in-situ formation of surface defects and non-precious metal nanoparticles , 2021 .
[44] Jiani Qin,et al. Enhanced selective photocatalytic CO2 reduction into CO over Ag/CdS nanocomposites under visible light , 2017 .