On Factors of Ions in Seawater for CO2 Reduction
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Liejin Guo | Ya Liu | Mengmeng Song | Tengfei Ma | S. Bai | Feng Wang
[1] Liejin Guo,et al. Photochemical Systems for Solar-to-Fuel Production , 2022, Electrochemical Energy Reviews.
[2] Yubin Chen,et al. Simulation Study Reveals the Role of Hydrogen Spillover in pH- and Potential-Dependent Hydrogen Evolution over the NiCu Bimetal Catalyst , 2022, The Journal of Physical Chemistry C.
[3] Liejin Guo,et al. Porous fixed-bed photoreactor for boosting C–C coupling in photocatalytic CO2 reduction , 2022, eScience.
[4] Liejin Guo,et al. Revealing the Nature of C-C Coupling Sites on a Cu Surface for CO2 Reduction. , 2022, The journal of physical chemistry letters.
[5] Jeremy T. Feaster,et al. Gas diffusion electrodes, reactor designs and key metrics of low-temperature CO2 electrolysers , 2022, Nature Energy.
[6] Jianhong Chen,et al. Lignin-Supported Heterogeneous Photocatalyst for the Direct Generation of H2O2 from Seawater. , 2022, Journal of the American Chemical Society.
[7] Karen Chan,et al. Theories for Electrolyte Effects in CO2 Electroreduction. , 2022, Accounts of chemical research.
[8] Jason Lee,et al. Electrolyte layer gas triggers cathode potential instability in CO2 electrolyzers , 2022, Journal of Power Sources.
[9] Pengfei Hou,et al. CO2 Electrolysis System under Industrially Relevant Conditions. , 2022, Accounts of chemical research.
[10] Kun Jiang,et al. Resolving Local Reaction Environment toward an Optimized CO2-to-CO Conversion Performance , 2022, Energy & Environmental Science.
[11] B. Deng,et al. Interfacial Electrolyte Effects on Electrocatalytic CO2 Reduction , 2021, ACS Catalysis.
[12] M. Thyssen,et al. Mercury stable isotopes constrain atmospheric sources to the ocean , 2021, Nature.
[13] Alexander J. Cowan,et al. Water electrolysis: Direct from the sea or not to be? , 2021, Joule.
[14] Ling Tao,et al. The economic outlook for converting CO2 and electrons to molecules , 2021 .
[15] R. Schlögl,et al. Is direct seawater splitting economically meaningful? , 2021, Energy & Environmental Science.
[16] B. Logan,et al. Enabling the use of seawater for hydrogen gas production in water electrolyzers , 2021 .
[17] Yong Ding,et al. Switching of metal–oxygen hybridization for selective CO2 electrohydrogenation under mild temperature and pressure , 2021, Nature Catalysis.
[18] D. Sebők,et al. Operando cathode activation with alkali metal cations for high current density operation of water-fed zero-gap carbon dioxide electrolyzers , 2021, Nature Energy.
[19] Hao Ming Chen,et al. Linking dynamic chemical state of catalysts with product profile of electrocatalytic CO2 reduction. , 2021, Angewandte Chemie.
[20] Zhiguo Yuan,et al. Gas diffusion electrodes (GDEs) for electrochemical reduction of carbon dioxide, carbon monoxide, and dinitrogen to value-added products: a review , 2021 .
[21] A. Slattery,et al. Stable and Highly Efficient Hydrogen Evolution from Seawater Enabled by an Unsaturated Nickel Surface Nitride , 2021, Advanced materials.
[22] D. Nocera,et al. Continuous electrochemical water splitting from natural water sources via forward osmosis , 2021, Proceedings of the National Academy of Sciences.
[23] B. Wiley,et al. Environment Matters: CO2RR Electrocatalyst Performance Testing in a Gas-Fed Zero-Gap Electrolyzer , 2020, ACS Catalysis.
[24] H. Atwater,et al. A direct coupled electrochemical system for capture and conversion of CO2 from oceanwater , 2020, Nature Communications.
[25] G. Ho,et al. Photothermal Catalytic Gel Featuring Spectral and Thermal Management for Parallel Freshwater and Hydrogen Production , 2020, Advanced Energy Materials.
[26] B. Liu,et al. Grain-Boundary-Rich Copper for Efficient Solar-Driven Electrochemical CO2 Reduction to Ethylene and Ethanol. , 2020, Journal of the American Chemical Society.
[27] J. Vávra,et al. Stability and degradation mechanisms of copper-based catalysts for electrochemical CO2 reduction. , 2020, Angewandte Chemie.
[28] T. Jaramillo,et al. Using Microenvironments to Control Reactivity in CO2 Electrocatalysis , 2020 .
[29] H. Atwater,et al. CO2 Reduction to CO with 19% Efficiency in a Solar-Driven Gas Diffusion Electrode Flow Cell under Outdoor Solar Illumination , 2020, ACS Energy Letters.
[30] Javier Pérez-Ramírez,et al. Transforming Energy with Single-Atom Catalysts , 2019 .
[31] H. Balmann,et al. Investigation of ions hydration using molecular modeling , 2019, Journal of Molecular Liquids.
[32] A. Bell,et al. Understanding cation effects in electrochemical CO2 reduction , 2019, Energy & Environmental Science.
[33] F. Calle‐Vallejo,et al. Advances and challenges in understanding the electrocatalytic conversion of carbon dioxide to fuels , 2019, Nature Energy.
[34] Dingchang Lin,et al. Self-Selective Catalyst Synthesis for CO2 Reduction , 2019, Joule.
[35] Wilson A. Smith,et al. CO2 reduction on gas-diffusion electrodes and why catalytic performance must be assessed at commercially-relevant conditions , 2019, Energy & Environmental Science.
[36] Yijin Liu,et al. Solar-driven, highly sustained splitting of seawater into hydrogen and oxygen fuels , 2019, Proceedings of the National Academy of Sciences.
[37] Qinghua Zhang,et al. Solid-Diffusion Synthesis of Single-Atom Catalysts Directly from Bulk Metal for Efficient CO2 Reduction , 2019, Joule.
[38] G. Wallace,et al. CO2 electrolysis in seawater: calcification effect and a hybrid self-powered concept , 2018 .
[39] M. Sartin,et al. Effect of Particle Shape and Electrolyte Cation on CO Adsorption to Copper Oxide Nanoparticle Electrocatalysts , 2018, The Journal of Physical Chemistry C.
[40] Jun‐Jie Zhu,et al. A Highly Porous Copper Electrocatalyst for Carbon Dioxide Reduction , 2018, Advanced materials.
[41] Lei Jiang,et al. Superwetting Electrodes for Gas-Involving Electrocatalysis. , 2018, Accounts of chemical research.
[42] A. Bell,et al. Effects of Anion Identity and Concentration on Electrochemical Reduction of CO2 , 2018 .
[43] Sreekanth Narayanaru,et al. pH dependent CO adsorption and roughness-induced selectivity of CO2 electroreduction on gold surfaces , 2018 .
[44] Shunichi Fukuzumi,et al. Fuel Production from Seawater and Fuel Cells Using Seawater. , 2017, ChemSusChem.
[45] Josep Albero,et al. Photoassisted methanation using Cu2O nanoparticles supported on graphene as a photocatalyst , 2017 .
[46] Fuming Chen,et al. Dual-ions electrochemical deionization: a desalination generator , 2017 .
[47] A. Cuesta,et al. Spectroscopic Evidence of Size-Dependent Buffering of Interfacial pH by Cation Hydrolysis during CO2 Electroreduction. , 2017, ACS applied materials & interfaces.
[48] Dunfeng Gao,et al. Improved CO2 Electroreduction Performance on Plasma-Activated Cu Catalysts via Electrolyte Design: Halide Effect , 2017 .
[49] M. Biesinger. Advanced analysis of copper X‐ray photoelectron spectra , 2017 .
[50] Jingguang G. Chen,et al. The Central Role of Bicarbonate in the Electrochemical Reduction of Carbon Dioxide on Gold. , 2017, Journal of the American Chemical Society.
[51] W. Goddard,et al. Full atomistic reaction mechanism with kinetics for CO reduction on Cu(100) from ab initio molecular dynamics free-energy calculations at 298 K , 2017, Proceedings of the National Academy of Sciences.
[52] A. Bell,et al. Hydrolysis of Electrolyte Cations Enhances the Electrochemical Reduction of CO2 over Ag and Cu. , 2016, Journal of the American Chemical Society.
[53] Byoungsu Kim,et al. A Gross-Margin Model for Defining Technoeconomic Benchmarks in the Electroreduction of CO2. , 2016, ChemSusChem.
[54] Alexis T. Bell,et al. Effects of electrolyte, catalyst, and membrane composition and operating conditions on the performance of solar-driven electrochemical reduction of carbon dioxide. , 2015, Physical chemistry chemical physics : PCCP.
[55] Joseph H. Montoya,et al. Theoretical Insights into a CO Dimerization Mechanism in CO2 Electroreduction. , 2015, The journal of physical chemistry letters.
[56] Anders Nilsson,et al. High selectivity for ethylene from carbon dioxide reduction over copper nanocube electrocatalysts. , 2015, Angewandte Chemie.
[57] Xunyu Lu,et al. Electrodeposition of hierarchically structured three-dimensional nickel–iron electrodes for efficient oxygen evolution at high current densities , 2015, Nature Communications.
[58] M. Grätzel,et al. Efficient and selective carbon dioxide reduction on low cost protected Cu2O photocathodes using a molecular catalyst , 2015 .
[59] A. Fujishima,et al. High-yield electrochemical production of formaldehyde from CO2 and seawater. , 2014, Angewandte Chemie.
[60] Matthew W Kanan,et al. CO2 reduction at low overpotential on Cu electrodes resulting from the reduction of thick Cu2O films. , 2012, Journal of the American Chemical Society.
[61] Kirk G Scheckel,et al. Impact of environmental conditions (pH, ionic strength, and electrolyte type) on the surface charge and aggregation of silver nanoparticles suspensions. , 2010, Environmental science & technology.
[62] J. Ziegelbauer,et al. Investigation into the Competitive and Site-Specific Nature of Anion Adsorption on Pt Using In Situ X-ray Absorption Spectroscopy , 2008 .
[63] V. Stamenkovic,et al. The role of anions in surface electrochemistry. , 2008, Faraday discussions.
[64] B. Conway,et al. Elucidation of the effects of competitive adsorption of Cl−and Br− ions on the initial stages of Pt surface oxidation by means of electrochemical nanogravimetry , 2002 .
[65] O. Magnussen. Ordered anion adlayers on metal electrode surfaces. , 2002, Chemical reviews.
[66] Akira Murata,et al. Electrochemical Reduction of CO at a Copper Electrode , 1997 .
[67] Y. Hori,et al. Product Selectivity Affected by Cationic Species in Electrochemical Reduction of CO2 and CO at a Cu Electrode , 1991 .