Oxygen Functionalization-Induced Charging Effect on Boron Active Sites for High-Yield Electrocatalytic NH3 Production
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R. Thapa | R. S. Dey | Ashmita Biswas | S. Kapse | R. Dey
[1] R. Thapa,et al. Lewis acid–dominated aqueous electrolyte acting as co-catalyst and overcoming N2 activation issues on catalyst surface , 2022, Proceedings of the National Academy of Sciences of the United States of America.
[2] Ya-li Guo,et al. PdFe Single-Atom Alloy Metallene for N2 Electroreduction. , 2022, Angewandte Chemie.
[3] Xiaolin Zhao,et al. High-Efficiency N2 Electroreduction Enabled by Se-Vacancy-Rich WSe2-x in Water-in-Salt Electrolytes. , 2022, ACS nano.
[4] R. Thapa,et al. Strategic Modulation of Target-Specific Isolated Fe,Co Single-Atom Active Sites for Oxygen Electrocatalysis Impacting High Power Zn-Air Battery. , 2022, ACS nano.
[5] Michal L. Gala,et al. Proton Donors Induce a Differential Transport Effect for Selectivity toward Ammonia in Lithium-Mediated Nitrogen Reduction , 2022, ACS Catalysis.
[6] Ke Chu,et al. Ultra-efficient N2 electroreduction achieved over a rhodium single-atom catalyst (Rh1/MnO2) in water-in-salt electrolyte , 2022, Applied Catalysis B: Environmental.
[7] Venkata Surya Kumar Choutipalli,et al. Nitrogen Fixation at the Edges of Boron Nitride Nanomaterials: Synergy of Doping , 2022, Frontiers in Chemistry.
[8] Ya-li Guo,et al. Unveiling the Synergy of O‐Vacancy and Heterostructure over MoO3‐x/MXene for N2 Electroreduction to NH3 , 2021, Advanced Energy Materials.
[9] A. Bhowmik,et al. Alteration of Electronic Band Structure via a Metal-Semiconductor Interfacial Effect Enables High Faradaic Efficiency for Electrochemical Nitrogen Fixation. , 2021, ACS nano.
[10] M. Shao,et al. Electrochemical nitrogen reduction: an intriguing but challenging quest , 2021, Trends in Chemistry.
[11] J. Kibsgaard,et al. Electrolyte acidification from anode reactions during lithium mediated ammonia synthesis , 2021, Electrochemistry Communications.
[12] Ya-li Guo,et al. Synergistic Enhancement of Electrocatalytic Nitrogen Reduction Over Boron Nitride Quantum Dots Decorated Nb2 CTx -MXene. , 2021, Small.
[13] Ye Tian,et al. Metal-free BN quantum dots/graphitic C3N4 heterostructure for nitrogen reduction reaction. , 2021, Journal of colloid and interface science.
[14] C. Zhi,et al. Molecular Crowding Effect in Aqueous Electrolytes to Suppress Hydrogen Reduction Reaction and Enhance Electrochemical Nitrogen Reduction , 2021, Advanced Energy Materials.
[15] Ya-li Guo,et al. Boron Nitride Quantum Dots/Ti3C2Tx‐MXene Heterostructure For Efficient Electrocatalytic Nitrogen Fixation , 2021, ENERGY & ENVIRONMENTAL MATERIALS.
[16] Xiujian Zhao,et al. Insights into electrochemical nitrogen reduction reaction mechanisms: Combined effect of single transition-metal and boron atom , 2021, Journal of Energy Chemistry.
[17] S. Chattopadhyay,et al. Unveiling the genesis of the high catalytic activity in nickel phthalocyanine for electrochemical ammonia synthesis , 2021 .
[18] S. Shanmugam,et al. Strong catalyst support interactions in defect-rich γ-Mo2N nanoparticles loaded 2D-h-BN hybrid for highly selective nitrogen reduction reaction , 2021 .
[19] U. Waghmare,et al. Energy parameter and electronic descriptor for carbon based catalyst predicted using QM/ML , 2021 .
[20] Zhonglu Guo,et al. Carbon doped hexagonal boron nitride nanoribbon as efficient metal-free electrochemical nitrogen reduction catalyst , 2021 .
[21] Bin-Wei Zhang,et al. Bi-Atom Electrocatalyst for Electrochemical Nitrogen Reduction Reactions , 2021, Nano-Micro Letters.
[22] Bin Chang,et al. Metal-free boron carbonitride with tunable boron Lewis acid sites for enhanced nitrogen electroreduction to ammonia , 2021 .
[23] Chang Yu,et al. Strategies to suppress hydrogen evolution for highly selective electrocatalytic nitrogen reduction: challenges and perspectives , 2021 .
[24] R. Thapa,et al. Scalable Production of Cobalt Phthalocyanine Nanotubes: Efficient and Robust Hollow Electrocatalyst for Ammonia Synthesis at Room Temperature. , 2021, ACS nano.
[25] T. Aida,et al. Boron Carbon Nitride Thin Films: From Disordered to Ordered Conjugated Ternary Materials , 2020, Journal of the American Chemical Society.
[26] R. S. Dey,et al. A No-Sweat Strategy for Graphene-Macrocycle Co-assembled Electrocatalyst toward Oxygen Reduction and Ambient Ammonia Synthesis. , 2020, Inorganic chemistry.
[27] Jaecheol Choi,et al. Identification and elimination of false positives in electrochemical nitrogen reduction studies , 2020, Nature Communications.
[28] R. S. Dey,et al. Unveiling the Potential of an Fe Bis(terpyridine) Complex for Precise Development of an Fe-N-C Electrocatalyst to Promote the Oxygen Reduction Reaction. , 2020, Inorganic chemistry.
[29] Tianyi Ma,et al. Bismuth-Based Free-Standing Electrodes for Ambient-Condition Ammonia Production in Neutral Media , 2020, Nano-micro letters.
[30] Shaobin Wang,et al. Rational Catalyst Design for N2 Reduction under Ambient Conditions: Strategies toward Enhanced Conversion Efficiency , 2020 .
[31] Zehui Yang,et al. Identification of functionality of heteroatoms in boron, nitrogen and fluorine ternary-doped carbon as a robust electrocatalyst for nitrogen reduction reaction powered by rechargeable zinc–air batteries , 2020 .
[32] F. D. de Groot,et al. Oxygen K-edge X-ray Absorption Spectra , 2020, Chemical reviews.
[33] Wenrong Yang,et al. Defective Carbon-Doped Boron Nitride Nanosheets for Highly Efficient Electrocatalytic Conversion of N2 to NH3 , 2020 .
[34] Weiguang Chen,et al. O-doped graphdiyne as metal-free catalysts for nitrogen reduction reaction , 2020 .
[35] Tianyi Ma,et al. Transition Metal Aluminum Boride as a New Candidate for Ambient-Condition Electrochemical Ammonia Synthesis , 2020, Nano-micro letters.
[36] Cheng Tang,et al. The crucial role of charge accumulation and spin polarization in activating carbon-based catalysts for electrocatalytic nitrogen reduction. , 2020, Angewandte Chemie.
[37] B. Tang,et al. Synergistic Promotion of the Electrochemical Reduction of Nitrogen to Ammonia by Phosphorus and Potassium , 2020 .
[38] S. Jiang,et al. Electron localization of gold in control of nitrogen-to-ammonia fixation. , 2019, Angewandte Chemie.
[39] S. Jiang,et al. Tuning the Electron Localization of Gold Enables the Control of Nitrogen‐to‐Ammonia Fixation , 2019, Angewandte Chemie.
[40] Jinsong Hu,et al. Identification of FeN4 as an Efficient Active Site for Electrochemical N2 Reduction , 2019, ACS Catalysis.
[41] Yi Luo,et al. Graphene–boron nitride hybrid-supported single Mo atom electrocatalysts for efficient nitrogen reduction reaction , 2019, Journal of Materials Chemistry A.
[42] Abdullah M. Asiri,et al. Hexagonal boron nitride nanosheet for effective ambient N2 fixation to NH3 , 2019, Nano Research.
[43] Cheng Tang,et al. Two-Dimensional Mosaic Bismuth Nanosheets for Highly Selective Ambient Electrocatalytic Nitrogen Reduction , 2019, ACS Catalysis.
[44] Chenghua Sun,et al. Single-Boron Catalysts for Nitrogen Reduction Reaction. , 2019, Journal of the American Chemical Society.
[45] Abdullah M. Asiri,et al. Template-free synthesis of carbon-doped boron nitride nanosheets for enhanced photocatalytic hydrogen evolution , 2019, Applied Catalysis B: Environmental.
[46] Chen Chen,et al. BN Pairs Enriched Defective Carbon Nanosheets for Ammonia Synthesis with High Efficiency. , 2019, Small.
[47] D. Macfarlane,et al. MoS2 Polymorphic Engineering Enhances Selectivity in the Electrochemical Reduction of Nitrogen to Ammonia , 2019, ACS Energy Letters.
[48] Gengfeng Zheng,et al. Boron-Doped Graphene for Electrocatalytic N2 Reduction , 2018, Joule.
[49] D. Sokaras,et al. Designing Boron Nitride Islands in Carbon Materials for Efficient Electrochemical Synthesis of Hydrogen Peroxide. , 2018, Journal of the American Chemical Society.
[50] Caijin Huang,et al. Boron Carbon Nitride Semiconductors Decorated with CdS Nanoparticles for Photocatalytic Reduction of CO2 , 2018 .
[51] T. Bandosz,et al. Irreversible water mediated transformation of BCN from a 3D highly porous form to its nonporous hydrolyzed counterpart , 2018 .
[52] R. Ma,et al. Facile Synthesis of N-Doped Graphene-Like Carbon Nanoflakes as Efficient and Stable Electrocatalysts for the Oxygen Reduction Reaction , 2017, Nano-micro letters.
[53] Glenn Jones,et al. Synthesis and characterization of boron carbon oxynitride films with tunable composition using methane, boric acid and ammonia , 2017 .
[54] Haihui Wang,et al. Ammonia Electrosynthesis with High Selectivity under Ambient Conditions via a Li+ Incorporation Strategy. , 2017, Journal of the American Chemical Society.
[55] Daniel P. Miller,et al. Graphene-like Boron-Carbon-Nitrogen Monolayers. , 2017, ACS nano.
[56] M. Pumera,et al. Layered SnS versus SnS2: Valence and Structural Implications on Electrochemistry and Clean Energy Electrocatalysis , 2016 .
[57] Markus Antonietti,et al. Carbon-doped BN nanosheets for metal-free photoredox catalysis , 2015, Nature Communications.
[58] H. Zeng,et al. “Chemical Blowing” of Thin‐Walled Bubbles: High‐Throughput Fabrication of Large‐Area, Few‐Layered BN and Cx‐BN Nanosheets , 2011, Advanced materials.
[59] C N R Rao,et al. Graphene analogues of BN: novel synthesis and properties. , 2010, ACS nano.
[60] C. Zhi,et al. Synthetic Routes and Formation Mechanisms of Spherical Boron Nitride Nanoparticles , 2008 .
[61] J. Misewich,et al. Investigating the structure of boron nitride nanotubes by near-edge X-ray absorption fine structure (NEXAFS) spectroscopy. , 2005, Physical chemistry chemical physics : PCCP.
[62] G. Kresse,et al. From ultrasoft pseudopotentials to the projector augmented-wave method , 1999 .
[63] Y. Saito,et al. Electron energy-loss spectroscopy study of the electronic structure of boron nitride nanotubes , 1998 .
[64] Burke,et al. Generalized Gradient Approximation Made Simple. , 1996, Physical review letters.
[65] Miyoko O. Watanabe,et al. Bonding characterization of BC2N thin films , 1996 .
[66] Blöchl,et al. Projector augmented-wave method. , 1994, Physical review. B, Condensed matter.
[67] G. Doll,et al. Morphology and bonding measured from boron‐nitride powders and films using near‐edge x‐ray absorption fine structure , 1994 .
[68] D. Grahame. The electrical double layer and the theory of electrocapillarity. , 1947, Chemical reviews.