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      요소 산화반응을 위한 NiFe2O4 나노파티클 촉매 합성 및 특성 분석 = Synthesis and characterization of NiFe2O4 nanoparticle electrocatalyst for urea and water oxidation

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      https://www.riss.kr/link?id=A108731685

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      Urea oxidation reaction (UOR) via electrochemical oxidation process can replace oxygen evolution reaction (OER) for green hydrogen production since UOR has lower thermodynamic potential (0.37 VRHE) than that of OER (1.23 VRHE). However, in the case of UOR, 6 electrons are required for the entire UOR. For this reason, the reaction rate is slower than OER, which requires 4 electrons. In addition, it is an important challenge to develop catalysts in which both oxidation reactions (UOR and OER) are active since the active sites of OER and UOR are opposite to each other. We prove that among the NiFe2O4 nanoparticles synthesized by the hydrothermal method at various synthesis temperatures, NiFe2O4 nanoparticle with properly controlled particle size and crystallinity can actively operate OER and UOR at the same time.
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      Urea oxidation reaction (UOR) via electrochemical oxidation process can replace oxygen evolution reaction (OER) for green hydrogen production since UOR has lower thermodynamic potential (0.37 VRHE) than that of OER (1.23 VRHE). However, in the case of...

      Urea oxidation reaction (UOR) via electrochemical oxidation process can replace oxygen evolution reaction (OER) for green hydrogen production since UOR has lower thermodynamic potential (0.37 VRHE) than that of OER (1.23 VRHE). However, in the case of UOR, 6 electrons are required for the entire UOR. For this reason, the reaction rate is slower than OER, which requires 4 electrons. In addition, it is an important challenge to develop catalysts in which both oxidation reactions (UOR and OER) are active since the active sites of OER and UOR are opposite to each other. We prove that among the NiFe2O4 nanoparticles synthesized by the hydrothermal method at various synthesis temperatures, NiFe2O4 nanoparticle with properly controlled particle size and crystallinity can actively operate OER and UOR at the same time.

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      참고문헌 (Reference)

      1 L. Wang, "Regulating the local charge distribution of Ni active sites for the urea oxidation reaction" 60 : 10577-10582, 2021

      2 K. Ye, "Recent advances in the electro-oxidation of urea for of urea for direct urea fuel cell and urea electrolysis" 376 : 42-, 2018

      3 X. Ji, "Oxygen vacancy-rich Ni/NiO@NC nanosheets with schottky heterointerface for efficient urea oxidation reaction" 13 : 5004-5014, 2020

      4 S. J. Geng, "Nickel ferrocyanide as a high-performance urea oxidation electrocatalyst" 6 : 904-912, 2021

      5 Y. Xu, "Ir-Doped Ni-based metal-organic framework ultrathin nanosheets on Ni foam for enhanced urea electro-oxidation" 56 : 2151-2154, 2020

      6 W. Simka, "Influence of anode material on electrochemical decomposition of urea" 52 : 5696-5703, 2007

      7 R. Lin, "Identification and manipulation of dynamic active site deficiencyinduced competing reactions in electrocatalytic oxidation processes" 15 : 2386-, 2022

      8 X. Huang, "High-valent Ni species induced by inactive MoO2 for efficient urea oxidation reaction" 61 : 18318-18324, 2022

      9 H. Zhang, "Hierarchical NiFe hydroxide/Ni 3N nanosheet-on-nanosheet heterostructures for bifunctional oxygen evolution and urea oxidation reactions" 9 : 12584-12590, 2021

      10 T. Mushiana, "Facile sol-gel preparation of high-entropy multielemental electrocatalysts for efficient oxidation of methanol and urea" 15 : 5014-5023, 2022

      1 L. Wang, "Regulating the local charge distribution of Ni active sites for the urea oxidation reaction" 60 : 10577-10582, 2021

      2 K. Ye, "Recent advances in the electro-oxidation of urea for of urea for direct urea fuel cell and urea electrolysis" 376 : 42-, 2018

      3 X. Ji, "Oxygen vacancy-rich Ni/NiO@NC nanosheets with schottky heterointerface for efficient urea oxidation reaction" 13 : 5004-5014, 2020

      4 S. J. Geng, "Nickel ferrocyanide as a high-performance urea oxidation electrocatalyst" 6 : 904-912, 2021

      5 Y. Xu, "Ir-Doped Ni-based metal-organic framework ultrathin nanosheets on Ni foam for enhanced urea electro-oxidation" 56 : 2151-2154, 2020

      6 W. Simka, "Influence of anode material on electrochemical decomposition of urea" 52 : 5696-5703, 2007

      7 R. Lin, "Identification and manipulation of dynamic active site deficiencyinduced competing reactions in electrocatalytic oxidation processes" 15 : 2386-, 2022

      8 X. Huang, "High-valent Ni species induced by inactive MoO2 for efficient urea oxidation reaction" 61 : 18318-18324, 2022

      9 H. Zhang, "Hierarchical NiFe hydroxide/Ni 3N nanosheet-on-nanosheet heterostructures for bifunctional oxygen evolution and urea oxidation reactions" 9 : 12584-12590, 2021

      10 T. Mushiana, "Facile sol-gel preparation of high-entropy multielemental electrocatalysts for efficient oxidation of methanol and urea" 15 : 5014-5023, 2022

      11 X. Liu, "Engineering mesoporous NiO with enriched electrophilic Ni3+ and O-toward efficient oxygen evolution" 8 : 310-, 2018

      12 Y. C. Zhang, "Co3-xO4/NiO with abundant Ni3+ active sites for boosting oxygen evolution reaction" 446 : 137036-, 2022

      13 T. V. M. Sreekanth, "Binder free Ni/NiO electrocatalysts for urea oxidation reaction" 327 : 133038-, 2022

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