스테인레스 강의 수전해 전극 응용기술 동향

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참고문헌 (53)

1. X. Zou, "Noble metal-free hydrogen evolution catalysts for water splitting", Chemical Society Review, 44, pp.5148~5180 (2015)
2. N. Armaroli, "The Future of Energy Supply : Challenges and Opportunities", Angewante Chemie International Edition, 46, pp.52~66 (2007)
3. 권용근, "수전해 기술 동향 및 전망", 재료마당, 28, pp.4~12 (2015), 대한금속재료학회
4. H. Schäfer, "Steel : The Resurrection of a Forgotten Water-Splitting Catalyst", ACS Energy Letter, 3, pp.574~591 (2018)
5. D. Chen, "Ru-doped 3D flower-like bimetallic phosphide with a climbing effect on overall water splitting", Applied Catalysis B –Environmental, 279, pp.119396~ (2020)
6. S. Anantharaj, "Recent Trends and Perspectives in Electrochemical Water Splitting with an Emphasis on Sulfide, Selenide, and Phosphide Catalysts of Fe, Co, and Ni: A Review", ACS Catalysts, 6, pp.4660~4672 (2016)
7. K. Honda, "Electrochemical Photolysis of Water at a Semiconductor Electrode", Nature, 238, pp.37~38 (1972)
8. W. Han, "FreeSustaining Three-Dimensional S235 Steel-Based Porous Electrocatalyst for Highly Efficient and Durable Oxygen Evolution", Chem. Sus. Chem, 11, pp.3661~3671 (2018)
9. T. Shinagawa, "Insight on Tafel slopes from a microkinetic analysis of aqueous electrocatalysis for energy conversion", Scientific Report, 5, pp.13801~ (2015)
10. X. Rong, "A Fundamental Relationship between Reaction Mechanism and Stability in Metal Oxide Catalysts for Oxygen Evolution", ACS Catalysts, 6, pp.1153~1158 (2016)
11. Y. -F. Li, "Mechanism and Activity of Water Oxidation on Selected Surfaces of Pure and FeDoped NiOx", ACS Catalysts, 4, pp.1148~1153 (2014)
12. W. Zhou, "Ag2O", TiO2 Nanobelts Heterostructure with Enhanced Ultraviolet and Visible Photocatalytic Activity, 2010, pp.2, 2385~2392
13. L. Jiang, "Fabrication of visible-light-driven one-dimensional anatase TiO2", Ag heterojunction plasmonic photocatalyst, 2012, pp.24, 48~51
14. J. Creus, "Ruthenium Nanoparticles for Catalytic Water Splitting", Chem. Sus. Chem, 12, pp.2493~2514 (2019)
15. A. Singh, "Highly active nickel oxide water oxidation catalysts deposited from molecular complexes", Energy and Environmental Science, 2, pp.579~586 (2013)
16. R. D. Smith, "Water Oxidation Catalysis : Electrocatalytic Response to Metal Stoichiometry in Amorphous Metal Oxide Films Containing Iron, Cobalt, and Nickel", Journal of American Chemical Society, 135, pp.11580~11586 (2013)
17. J. J. Fillol, "Efficient water oxidation catalysts based on readily available iron coordination complexes", Nature Chemistry, 3, pp.807~813 (2011)
18. Q. –Q. Chen, "Ir4+-Doped NiFe LDH to expedite hydrogen evolution kinetics as a Pt-like electrocatalyst for water splitting", Chemical Communication, 54, pp.6400~6403 (2018)
19. X. Gao, "NiFe Oxalate Nanomesh Array with Homogenous Doping of Fe for Electrocatalytic Water Oxidation", Small, 15, pp.1904579~ (2019)
20. G. Chen, "Accelerated Hydrogen Evolution Kinetics on NiFe-Layered Double Hydroxide Electrocatalysts by Tailoring Water Dissociation Active Sites", Advanced Materials, 30, pp.1706279~1706279 (2018)
21. Y. Li, "Promoted synergy in core-branch CoP@NiFe–OH nanohybrids for efficient electrochemical-", photovoltagedriven overall water splitting, 2019, pp.63, 103821~
22. M. Qu, "Regulating electron density of NiFe-P nanosheets electrocatalysts by a trifle of Ru for highefficient overall water splitting", Applied Catalysis B –Environmental, 263, pp.118324~ (2020)
23. J. Li, "Co9S8–Ni3S2 heterointerfaced nanotubes on Ni foam as highly efficient and flexible bifunctional electrodes for water splitting", Electrochimica Acta, 299, pp.152~162 (2019)
24. M. Lee, "Sloughing a Precursor Layer to Expose Active Stainless Steel Catalyst for Water Oxidation", ACS Applied Materials and Interfaces, 10, pp.24499~24507 (2018)
25. M. –S. Balogun, "Cost-effective alkaline water electrolysis based on nitrogen- and phosphorus-doped self-supportive electrocatalysts", Advanced Materials, 29, pp.1702095~ (2017)
26. B. C. M. Martindale, "Bi-Functional irononly electrodes for efficient water splitting with enhanced stability through in situ electrochemical regeneration", Advanced Energy Materials, 6, pp.1502095~ (2016)
27. X. Liu, "Facile Surface Modification of Ubiquitous Stainless Steel Led to Competent Electrocatalysts for Overall Water Splitting", ACS Sustainable Chemistry and Engineering, 5, pp.4778~4784 (2017)
28. J. Park, "3D ant-nest network of αFe2O3 on stainless steel for all-in-one anode for Li-ion battery", Journal of Power Sources, 431, pp.25~30 (2019)
29. S. K. Tiwari, "Studies on the electrocatalytic properties of some austenitic stainless steels for oxygen evolution in an alkaline medium", Journal of Electroanalytical Chemistry and Interfacial Electrochemistry, 319, pp.263~274 (1991)
30. L. P. Bicelli, "Hydrogen Evolution Reaction on Martensitic Stainless Steel", Journal de Chimie Physique et de Physico-Chimie Biologique, 73, pp.783~786 (1976)
31. L. P. Bicelli, "Hydrogen Evolution reaction on Ferritic Stainless Steel", Journal de Chimie Physique et de Physico-Chimie Biologique, 74, pp.529~532 (1977)
32. S. Anantharaj, "Stainless Steel Scrubber: A Cost Efficient Catalytic Electrode for Full Water Splitting in Alkaline Medium", ACS Sustainable Chemistry and Engineering, 6, pp.2498~2509 (2018)
33. S. Anantharaj, "Chemical Leaching of Inactive Cr and Subsequent Electrochemical Resurfacing of Catalytically Active Sites in Stainless Steel for High-Rate Alkaline Hydrogen Evolution Reaction", ACS Applied Energy Materials, 3, pp.12596~12606 (2020)
34. H. H. Farrag, "From Rusting to Solar Power Plants : A Successful Nano-Pattering of Stainless Steel 316L for Visible LightInduced Photoelectrocatalytic Water Splitting", ACS Sustainable Chemistry and Engineering, 6, pp.17352~17358 (2018)
35. J. S. Sagu, "Anodized Steel Electrodes for Supercapacitors", ACS Applied Materials and Interfaces, 8, pp.6277~6285 (2016)
36. H. Schäfer, "Stainless steel made to rust : a robust water-splitting catalyst with benchmark characteristics", Energy Environmental Science, 8, pp.2685~2697 (2015)
37. M. Kim, "Controlled contribution of Ni and Cr cations to stainless steel 304 electrode: Effect of electrochemical oxidation on electrocatalytic properties", Electrochemistry Communications, 117, pp.106770~ (2020)
38. M. Kim, "Selfactivated anodic nanoporous stainless steel electrocatalysts with high durability for the hydrogen evolution reaction", Electrochimica Acta, 364, pp.137315~ (2020)
39. B. Sarma, "Electrochemical capacitance of iron oxide nanotube(Fe-NT) : effect of annealing atmospheres", Nanotechnology, 26, pp.265401~ (2015)
40. K. Xie, "Fabrication of iron oxide nanotube arrays by electrochemical anodization", Corrosion Science, 88, pp.66~75 (2014)
41. 이기영, "양극산화를 이용한 산화 타이타늄 나노 튜브 구조 형성 원리", 공업화학, 28(6), pp.601~606 (2017), 한국공업화학회
42. K. Lee, "One-Dimensional Titanium Dioxide Nanomaterials: Nanotubes", Chemical Review, 114, pp.9385~9454 (2014)
43. M. Kim, "Electric field-driven one-step formation of vertical p–n junction TiO2 nanotubes exhibiting strong photocatalytic hydrogen production", Journal of Materials Chemistry A, 9, pp.2239~2247 (2021)
44. 김문수, "단일공정 양극산화를 이용한 WO3가 복합된 304 스테인레스 강 산화 피막 제조", 한국표면공학회지, 53(5), pp.257~264 (2020), 한국표면공학회
45. 최진섭, "양극산화 기술을 이용한 금속산화물 나노구조 제조 및 응용 동향", 공업화학, 19(3), pp.249~258 (2008), 한국공업화학회
46. K. Kure, "Formation of selforganized nanoporous anodic films on Type 304 stainless steel", Electrochemistry Communications, 21, pp.1~4 (2012)
47. H. Habazaki, "Formation of Self-Organized Porous Anodic Films on Iron and Stainless Steels", ECS Transactions, 69, pp.211~223 (2015)
48. Y. Wang, "Fabrication and formation mechanisms of ultra-thick porous anodic oxides film with controllable morphology on type-304stainless steel", Applied Surface Science, 505, pp.144497~ (2020)
49. H. Asoh, "Fabrication of thick nanoporous oxide films on stainless steel via DC anodization and subsequent biofunctionalization", Surface and Coatings Technology, 307, pp.441~451 (2016)
50. V. Klimas, "Fabrication and Characterization of Anodic Films onto the Type-304 Stainless Steel in Glycerol Electrolyte", Journal of Physical Chemistry C, 117, pp.20730~20737 (2013)
51. 이재원, "고온 글리세롤 전해질에서 양극산화를 이용한 나노구조 스테인리스 스틸 산화막의 형성", 공업화학, 31(2), pp.215~219 (2020), 한국공업화학회
52. H. Yoo, "TiO2 nanotubes with a doping of ruthenium oxide by single-step anodization for water oxidation applications", ChemCatChem, 7, pp.643~647 (2015)
53. H. Yoo, "Simultaneous co-doping of RuO2 and IrO2 into anodic TiO2 nanotubes: A binary catalyst for electrochemical water splitting", International Journal of Hydrogen Energy, 42, pp.6657~6664 (2017)

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