1. Li C, Tan H, Lin J, et al. Emerging Pt-based electrocatalysts with highly open nanoarchitectures for boosting oxygen reduction reaction. Nano Today 2018;21:91-105.
2. Chalgin A, Song C, Tao P, Shang W, Deng T, Wu J. Effect of supporting materials on the electrocatalytic activity, stability and selectivity of noble metal-based catalysts for oxygen reduction and hydrogen evolution reactions. Prog Nat Sci Mater 2020;30:289-97.
3. Wu G, More KL, Johnston CM, Zelenay P. High-performance electrocatalysts for oxygen reduction derived from polyaniline, iron, and cobalt. Science 2011;332:443-7.
4. Kodama K, Nagai T, Kuwaki A, Jinnouchi R, Morimoto Y. Challenges in applying highly active Pt-based nanostructured catalysts for oxygen reduction reactions to fuel cell vehicles. Nat Nanotechnol 2021;16:140-7.
5. Liu M, Zhao Z, Duan X, Huang Y. Nanoscale structure design for high-performance Pt-based ORR catalysts. Adv Mater 2019;31:e1802234.
6. Miao Z, Wang X, Zhao Z, et al. Improving the stability of non-noble-metal M-N-C catalysts for proton-exchange-membrane fuel cells through M-N bond length and coordination regulation. Adv Mater 2021;33:e2006613.
7. Li S, Hao X, Abudula A, Guan G. Nanostructured Co-based bifunctional electrocatalysts for energy conversion and storage: current status and perspectives. J Mater Chem A 2019;7:18674-707.
8. He Y, Liu S, Priest C, Shi Q, Wu G. Atomically dispersed metal-nitrogen-carbon catalysts for fuel cells: advances in catalyst design, electrode performance, and durability improvement. Chem Soc Rev 2020;49:3484-524.
9. Wu Z, Zhang H, Chen C, Li G, Han Y. Applications of in situ electron microscopy in oxygen electrocatalysis. Microstructures 2022;2:2022002.
10. Frey H, Beck A, Huang X, van Bokhoven JA, Willinger MG. Dynamic interplay between metal nanoparticles and oxide support under redox conditions. Science 2022;376:982-7.
11. Zhang W, Chang J, Wang G, et al. Surface oxygenation induced strong interaction between Pd catalyst and functional support for zinc-air batteries. Energy Environ Sci 2022;15:1573-84.
12. Miao Z, Li S, Priest C, Wang T, Wu G, Li Q. Effective approaches for designing stable M-Nx/C oxygen-reduction catalysts for proton-exchange-membrane fuel cells. Adv Mater 2022;34:e2200595.
13. Cheng N, Norouzi Banis M, Liu J, et al. Atomic scale enhancement of metal-support interactions between Pt and ZrC for highly stable electrocatalysts. Energy Environ Sci 2015;8:1450-5.
14. Yang Y, Wu D, Li R, et al. Engineering the strong metal support interaction of titanium nitride and ruthenium nanorods for effective hydrogen evolution reaction. Appl Catal B Environ 2022;317:121796.
15. Yan D, Chen J, Jia H. Temperature-induced structure reconstruction to prepare a thermally stable single-atom platinum catalyst. Angew Chem Int Ed 2020;59:13562-7.
16. Yang H, Lu N, Zhang J, et al. Ultra-low single-atom Pt on g-C3N4 for electrochemical hydrogen peroxide production. Carbon Energy 2023;2:1-12.
17. Ling L, Liu W, Chen S, Hu X, Jiang H. MOF templated nitrogen doped carbon stabilized Pt-Co bimetallic nanoparticles: low Pt content and robust activity toward electrocatalytic oxygen reduction reaction. ACS Appl Nano Mater 2018;1:3331-8.
18. Zhou M, Liu M, Miao Q, Shui H, Xu Q. Synergetic Pt atoms and nanoparticles anchored in standing carbon-derived from covalent organic frameworks for catalyzing ORR. Adv Mater Interfaces 2022;9:2201263.
19. Zhai L, Yang S, Yang X, et al. Conjugated covalent organic frameworks as platinum nanoparticle supports for catalyzing the oxygen reduction reaction. Chem Mater 2020;32:9747-52.
20. Yu X, Guo J, Li B, et al. Sub-nanometer Pt clusters on defective NiFe LDH nanosheets as trifunctional electrocatalysts for water splitting and rechargeable hybrid sodium-air batteries. ACS Appl Mater Interfaces 2021;13:26891-903.
21. Rao P, Deng Y, Fan W, et al. Movable type printing method to synthesize high-entropy single-atom catalysts. Nat Commun 2022;13:5071.
22. Chang F, Xiao M, Miao R, et al. Copper-Based catalysts for electrochemical carbon dioxide reduction to multicarbon products. Electrochem Energy Rev 2022;5:139-74.
23. Wu D, Baaziz W, Gu B, et al. Surface molecular imprinting over supported metal catalysts for size-dependent selective hydrogenation reactions. Nat Catal 2021;4:595-606.
24. Deelen TW, Hernández Mejía C, de Jong KP. Control of metal-support interactions in heterogeneous catalysts to enhance activity and selectivity. Nat Catal 2019;2:955-70.
25. Wang H, Wang L, Xiao F. New routes for the construction of strong metal-support interactions. Sci China Chem 2022;65:2051-7.
26. Luo Z, Zhao G, Pan H, Sun W. Strong metal-support interaction in heterogeneous catalysts. Adv Energy Mater 2022;12:2201395.
27. Pu T, Zhang W, Zhu M. Engineering heterogeneous catalysis with strong metal-support interactions: characterization, theory and manipulation. Angew Chem Int Ed 2023;62:e202212278.
28. Li Y, Zhang Y, Qian K, Huang W. Metal-support interactions in metal/oxide catalysts and oxide-metal interactions in oxide/metal inverse catalysts. ACS Catal 2022;12:1268-87.
29. Wu B, Meng H, Morales DM, et al. Nitrogen-rich carbonaceous materials for advanced oxygen electrocatalysis: synthesis, characterization, and activity of nitrogen sites. Adv Funct Mater 2022;32:2204137.
30. Bai J, Yang L, Jin Z, Ge J, Xing W. Advanced Pt-based intermetallic nanocrystals for the oxygen reduction reaction. Chinese J Catal 2022;43:1444-58.
31. Wang J, Kong H, Zhang J, Hao Y, Shao Z, Ciucci F. Carbon-based electrocatalysts for sustainable energy applications. Prog Mater Sci 2021;116:100717.
32. Yang X, Priest C, Hou Y, Wu G. Atomically dispersed dual-metal-site PGM-free electrocatalysts for oxygen reduction reaction: opportunities and challenges. SusMat 2022;2:569-90.
33. Tian X, Lu XF, Xia BY, Lou XW. Advanced electrocatalysts for the oxygen reduction reaction in energy conversion technologies. Joule 2020;4:45-68.
34. Nørskov JK, Rossmeisl J, Logadottir A, et al. Origin of the overpotential for oxygen reduction at a fuel-cell cathode. J Phys Chem B 2004;108:17886-92.
35. Tian X, Zhao X, Su YQ, et al. Engineering bunched Pt-Ni alloy nanocages for efficient oxygen reduction in practical fuel cells. Science 2019;366:850-6.
36. Ando F, Gunji T, Tanabe T, et al. Enhancement of the oxygen reduction reaction activity of Pt by tuning its d-band center via transition metal oxide support interactions. ACS Catal 2021;11:9317-32.
37. Tauster SJ, Fung SC, Garten RL. ChemInform abstract: strong metal-support interactions. group 8 noble metals supported on Titanium dioxide. Chemischer Informationsdienst 1978;9:170-5.
38. Tauster S. Strong metal-support interactions: occurrence among the binary oxides of groups IIA-VB. J Catal 1978;55:29-35.
39. Beck A, Huang X, Artiglia L, et al. The dynamics of overlayer formation on catalyst nanoparticles and strong metal-support interaction. Nat Commun 2020;11:3220.
40. Wang X, Beck A, van Bokhoven JA, Palagin D. Thermodynamic insights into strong metal-support interaction of transition metal nanoparticles on titania: simple descriptors for complex chemistry. J Mater Chem A 2021;9:4044-54.
41. Zhao W, Zhou D, Han S, et al. Metal-support interaction in Pt/TiO2: formation of surface Pt-Ti alloy. J Phys Chem C 2021;125:10386-96.
42. Du X, Tang H, Qiao B. Oxidative strong metal-support interactions. Catalysts 2021;11:896.
43. Macino M, Barnes AJ, Althahban SM, et al. Tuning of catalytic sites in Pt/TiO2 catalysts for the chemoselective hydrogenation of 3-nitrostyrene. Nat Catal 2019;2:873-81.
44. Kennedy RM, Crosby LA, Ding K, et al. Replication of SMSI via ALD: TiO2 overcoats increase Pt-catalyzed acrolein hydrogenation selectivity. Catal Lett 2018;148:2223-32.
45. Komanoya T, Kinemura T, Kita Y, Kamata K, Hara M. Electronic effect of ruthenium nanoparticles on efficient reductive amination of carbonyl compounds. J Am Chem Soc 2017;139:11493-9.
46. Zhang L, Persaud R, Theodore EM. Ultrathin metal films on a metal oxide surface: growth of Au on TiO2 (110). Phys Rev B 1997;56:10549-57.
47. Gubó R, Yim CM, Allan M, Pang CL, Berkó A, Thornton G. Variation of SMSI with the Au:Pd ratio of bimetallic nanoparticles on TiO2 (110). Top Catal 2018;61:308-17.
48. Fu Q, Wagner T, Olliges S, Carstanjen HD. Metal-oxide interfacial reactions: encapsulation of Pd on TiO2 (110). J Phys Chem B 2005;109:944-51.
49. Liu X, Liu MH, Luo YC, et al. Strong metal-support interactions between gold nanoparticles and ZnO nanorods in CO oxidation. J Am Chem Soc 2012;134:10251-8.
50. Tang H, Wei J, Liu F, et al. Strong metal-support interactions between gold nanoparticles and nonoxides. J Am Chem Soc 2016;138:56-9.
51. Tang H, Su Y, Guo Y, et al. Oxidative strong metal-support interactions (OMSI) of supported platinum-group metal catalysts. Chem Sci 2018;9:6679-84.
52. Liu S, Xu W, Niu Y, et al. Ultrastable Au nanoparticles on titania through an encapsulation strategy under oxidative atmosphere. Nat Commun 2019;10:5790.
53. Liu S, Qi H, Zhou J, et al. Encapsulation of platinum by titania under an oxidative atmosphere: contrary to classical strong metal-support interactions. ACS Catal 2021;11:6081-90.
54. Matsubu JC, Zhang S, DeRita L, et al. Adsorbate-mediated strong metal-support interactions in oxide-supported Rh catalysts. Nat Chem 2017;9:120-7.
55. Wang X, Liu Y, Peng X, Lin B, Cao Y, Jiang L. Sacrificial adsorbate strategy achieved strong metal-support interaction of stable Cu nanocatalysts. ACS Appl Energy Mater 2018;1:1408-14.
56. Xin H, Lin L, Li R, et al. Overturning CO2 hydrogenation selectivity with high activity via reaction-induced strong metal-support interactions. J Am Chem Soc 2022;144:4874-82.
57. Li D, Xu F, Tang X, et al. Induced activation of the commercial Cu/ZnO/Al2O3 catalyst for the steam reforming of methanol. Nat Catal 2022;5:99-108.
58. Zhang J, Wang H, Wang L, et al. Wet-chemistry strong metal-support interactions in Titania-supported Au catalysts. J Am Chem Soc 2019;141:2975-83.
59. Hao H, Jin B, Liu W, Wu X, Yin F, Liu S. Robust Pt@TiOx/TiO2 catalysts for hydrocarbon combustion: effects of Pt-TiOx interaction and sulfates. ACS Catal 2020;10:13543-8.
60. Wang L, Zhang J, Zhu Y, et al. Strong metal-support interactions achieved by hydroxide-to-oxide support transformation for preparation of sinter-resistant gold nanoparticle catalysts. ACS Catal 2017;7:7461-5.
61. Dong J, Fu Q, Jiang Z, Mei B, Bao X. Carbide-supported Au catalysts for water-gas shift reactions: a new territory for the strong metal-support interaction effect. J Am Chem Soc 2018;140:13808-16.
62. Dong J, Fu Q, Li H, et al. Reaction-induced strong metal-support interactions between metals and inert boron nitride nanosheets. J Am Chem Soc 2020;142:17167-74.
63. Sato K, Miyahara S, Tsujimaru K, et al. Barium oxide encapsulating cobalt nanoparticles supported on magnesium oxide: active non-noble metal catalysts for ammonia synthesis under mild reaction conditions. ACS Catal 2021;11:13050-61.
64. Wang H, Wang L, Lin D, et al. Strong metal-support interactions on gold nanoparticle catalysts achieved through Le Chatelier’s principle. Nat Catal 2021;4:418-24.
65. Chen H, Yang Z, Wang X, et al. Photoinduced strong metal-support interaction for enhanced catalysis. J Am Chem Soc 2021;143:8521-6.
66. Zhang J, Zhu D, Yan J, Wang CA. Strong metal-support interactions induced by an ultrafast laser. Nat Commun 2021;12:6665.
67. Ma Z, Li S, Wu L, et al. NbOx nano-nail with a Pt head embedded in carbon as a highly active and durable oxygen reduction catalyst. Nano Energy 2020;69:104455.
68. Mirshekari G, Rice C. Effects of support particle size and Pt content on catalytic activity and durability of Pt/TiO2 catalyst for oxygen reduction reaction in proton exchange membrane fuel cells environment. J Power Sources 2018;396:606-14.
69. Shi W, Park A, Xu S, Yoo PJ, Kwon Y. Continuous and conformal thin TiO2-coating on carbon support makes Pd nanoparticles highly efficient and durable electrocatalyst. Appl Catal B Environ 2021;284:119715.
70. Deng X, Yin S, Wu X, Sun M, Xie Z, Huang Q. Synthesis of PtAu/TiO2 nanowires with carbon skin as highly active and highly stable electrocatalyst for oxygen reduction reaction. Electrochim Acta 2018;283:987-96.
71. Mirshekari G, Shirvanian A. A comparative study on catalytic activity and stability of TiO2, TiN, and TiC supported Pt electrocatalysts for oxygen reduction reaction in proton exchange membrane fuel cells environment. J Electroanal Chem 2019;840:391-9.
72. Wang J, Xu M, Zhao J, et al. Anchoring ultrafine Pt electrocatalysts on TiO2-C via photochemical strategy to enhance the stability and efficiency for oxygen reduction reaction. Appl Catal B Environ 2018;237:228-36.
73. Shi W, Park A, Li Z, et al. Sub-nanometer thin TiO2-coating on carbon support for boosting oxygen reduction activity and durability of Pt nanoparticles. Electrochim Acta 2021;394:139127.
74. Li J, Zhou H, Zhuo H, et al. Oxygen vacancies on TiO2 promoted the activity and stability of supported Pd nanoparticles for the oxygen reduction reaction. J Mater Chem A 2018;6:2264-72.
75. Chen Y, Chen J, Zhang J, Xue Y, Wang G, Wang R. Anchoring highly dispersed Pt electrocatalysts on TiOx with strong metal-support interactions via an oxygen vacancy-assisted strategy as durable catalysts for the oxygen reduction reaction. Inorg Chem 2022;61:5148-56.
76. Huynh TT, Pham HQ, Nguyen AV, Nguyen ST, Bach LG, Ho VTT. High conductivity and surface area of mesoporous Ti0.7W0.3O2 materials as promising catalyst support for Pt in proton-exchange membrane fuel cells. J Nanosci Nanotechnol 2019;19:877-81.
77. Subban CV, Zhou Q, Hu A, Moylan TE, Wagner FT, DiSalvo FJ. Sol-Gel synthesis, electrochemical characterization, and stability testing of Ti0.7W0.3O2 nanoparticles for catalyst support applications in proton-exchange membrane fuel cells. J Am Chem Soc 2010;132:17531-6.
78. Hsieh B, Tsai M, Pan C, et al. Platinum loaded on dual-doped TiO2 as an active and durable oxygen reduction reaction catalyst. NPG Asia Mater 2017;9:e403-e403.
79. Shahgaldi S, Hamelin J. The effect of low platinum loading on the efficiency of PEMFC’s electrocatalysts supported on TiO2-Nb, and SnO2-Nb: an experimental comparison between active and stable conditions. Energy Convers Manag 2015;103:681-90.
80. Wang Y, Wilkinson DP, Guest A, et al. Synthesis of Pd and Nb-doped TiO2 composite supports and their corresponding Pt-Pd alloy catalysts by a two-step procedure for the oxygen reduction reaction. J Power Sources 2013;221:232-41.
81. Senevirathne K, Neburchilov V, Alzate V, et al. Nb-doped TiO2/carbon composite supports synthesized by ultrasonic spray pyrolysis for proton exchange membrane (PEM) fuel cell catalysts. J Power Sources 2012;220:1-9.
82. Bing Y, Neburchilov V, Song C, et al. Effects of synthesis condition on formation of desired crystal structures of doped-TiO2/carbon composite supports for ORR electrocatalysts. Electrochim Acta 2012;77:225-31.
83. Huang S, Ganesan P, Popov BN. Electrocatalytic activity and stability of niobium-doped titanium oxide supported platinum catalyst for polymer electrolyte membrane fuel cells. Appl Catal B Environ 2010;96:224-31.
84. Noh K, Nam I, Han JW. Nb-TiO2 nanotubes as catalyst supports with high activity and durability for oxygen reduction. Appl Surf Sci 2020;521:146330.
85. Kim J, Kwon G, Lim H, Zhu C, You H, Kim Y. Effects of transition metal doping in Pt/M-TiO2 (M = V, Cr, and Nb) on oxygen reduction reaction activity. J Power Sources 2016;320:188-95.
86. Kim J, Chang S, Kim Y. Compressive strain as the main origin of enhanced oxygen reduction reaction activity for Pt electrocatalysts on chromium-doped titania support. Appl Catal B Environ 2014;158-159:112-8.
87. Ho VT, Pan CJ, Rick J, Su WN, Hwang BJ. Nanostructured Ti0.7Mo0.3O2 support enhances electron transfer to Pt: high-performance catalyst for oxygen reduction reaction. J Am Chem Soc 2011;133:11716-24.
88. Tsai M, Nguyen T, Akalework NG, et al. Interplay between molybdenum dopant and oxygen vacancies in a TiO2 support enhances the oxygen reduction reaction. ACS Catal 2016;6:6551-9.
89. Kumar A, Ramani V. Strong metal-support interactions enhance the activity and durability of platinum supported on tantalum-modified titanium dioxide electrocatalysts. ACS Catal 2014;4:1516-25.
90. Stassi A, Gatto I, Baglio V, Passalacqua E, Aricò AS. Oxide-supported PtCo alloy catalyst for intermediate temperature polymer electrolyte fuel cells. Appl Catal B Environ 2013;142-143:15-24.
91. Noh K, Im H, Lim C, Jang MG, Nam I, Han JW. Tunable nano-distribution of Pt on TiO2 nanotubes by atomic compression control for high-efficient oxygen reduction reaction. Chem Eng J 2022;427:131568.
92. Tsai M, Rick J, Su W, Hwang B. Design of transition-metal-doped TiO2 as a multipurpose support for fuel cell applications: using a computational high-throughput material screening approach. Mol Syst Des Eng 2017;2:449-56.
93. Murphin Kumar PS, Ponnusamy VK, Deepthi KR, et al. Controlled synthesis of Pt nanoparticle supported TiO2 nanorods as efficient and stable electrocatalysts for the oxygen reduction reaction. J Mater Chem A 2018;6:23435-44.
94. Masuda T, Fukumitsu H, Fugane K, et al. Role of cerium oxide in the enhancement of activity for the oxygen reduction reaction at Pt-CeOx nanocomposite electrocatalyst - an in situ electrochemical X-ray absorption fine structure study. J Phys Chem C 2012;116:10098-102.
95. Chen J, Li Z, Chen Y, et al. An enhanced activity of Pt/CeO2/CNT triple junction interface catalyst prepared by atomic layer deposition for oxygen reduction reaction. Chem Phys Lett 2020;755:137793.
96. Du C, Gao X, Cheng C, Zhuang Z, Li X, Chen W. Metal organic framework for the fabrication of mutually interacted Pt CeO2C ternary nanostructure: advanced electrocatalyst for oxygen reduction reaction. Electrochim Acta 2018;266:348-56.
97. Xu F, Wang D, Sa B, Yu Y, Mu S. One-pot synthesis of Pt/CeO2/C catalyst for improving the ORR activity and durability of PEMFC. Int J Hydrog Energy 2017;42:13011-9.
98. Tan N, Lei Y, Huo D, et al. Fabricating Pt/CeO2/N-C ternary ORR electrocatalysts with extremely low platinum content and excellent performance. J Mater Sci 2022;57:538-52.
99. Lu Q, Wang Z, Tang Y, et al. Well-controlled Pt-CeO2-nitrogen doped carbon triple-junction catalysts with enhanced activity and durability for the oxygen reduction reaction. Sustain Energy Fuels 2022;6:2989-95.
100. Kim GY, Yoon KR, Shin K, Jung JW, Henkelman G, Ryu WH. Black tungsten oxide nanofiber as a robust support for metal catalysts: high catalyst loading for electrochemical oxygen reduction. Small 2021;17:e2103755.
101. Kumar S, Bhange SN, Soni R, Kurungot S. WO3 nanorods bearing interconnected Pt nanoparticle units as an activity-modulated and corrosion-resistant carbon-free system for polymer electrolyte membrane fuel cells. ACS Appl Energy Mater 2020;3:1908-21.
102. Jin Y. WO3 modified graphene supported Pt electrocatalysts with enhanced performance for oxygen reduction reaction. Int J Electrochem Sci 2017;12:6535-44.
103. Mo Y, Feng S, Yu T, et al. Surface unsaturated WOx activating PtNi alloy nanowires for oxygen reduction reaction. J Colloid Interface Sci 2022;607:1928-35.
104. Lee J, Yim D, Park JH, et al. Tuning d-band centers by coupling PdO nanoclusters to WO3 nanosheets to promote the oxygen reduction reaction. J Mater Chem A 2020;8:13490-500.
105. Song Z, Banis MN, Zhang L, et al. Origin of achieving the enhanced activity and stability of Pt electrocatalysts with strong metal-support interactions via atomic layer deposition. Nano Energy 2018;53:716-25.
106. Gao W, Zhang Z, Dou M, Wang F. Highly dispersed and crystalline Ta2O5 anchored Pt electrocatalyst with improved activity and durability toward oxygen reduction: promotion by atomic-scale Pt-Ta2O5 interactions. ACS Catal 2019;9:3278-88.
107. Hung Y, Liu W, Chen Y, Wang K, Perng T. On the mesoporous TiN catalyst support for proton exchange membrane fuel cell. Int J Hydrog Energy 2020;45:14083-92.
108. Tian X, Luo J, Nan H, Fu Z, Zeng J, Liao S. Binary transition metal nitrides with enhanced activity and durability for the oxygen reduction reaction. J Mater Chem A 2015;3:16801-9.
109. Tian X, Luo J, Nan H, et al. Transition metal nitride coated with atomic layers of Pt as a low-cost, highly stable electrocatalyst for the oxygen reduction reaction. J Am Chem Soc 2016;138:1575-83.
110. Shin H, Kim H, Chung DY, et al. Scaffold-like titanium nitride nanotubes with a highly conductive porous architecture as a nanoparticle catalyst support for oxygen reduction. ACS Catal 2016;6:3914-20.
111. Pan Z, Xiao Y, Fu Z, et al. Hollow and porous titanium nitride nanotubes as high-performance catalyst supports for oxygen reduction reaction. J Mater Chem A 2014;2:13966.
112. Xiao Y, Zhan G, Fu Z, et al. Robust non-carbon titanium nitride nanotubes supported Pt catalyst with enhanced catalytic activity and durability for methanol oxidation reaction. Electrochim Acta 2014;141:279-85.
113. Chen X, Li W, Pan Z, et al. Non-carbon titanium cobalt nitride nanotubes supported platinum catalyst with high activity and durability for methanol oxidation reaction. Appl Surf Sci 2018;440:193-201.
114. Chen X, Pan Z, Zhou Q, et al. Pt nanoparticles supported on non-carbon titanium chromium nitride nanotubes with high activity and durability for methanol oxidation reaction. J Solid State Electrochem 2019;23:315-24.
115. Wu Z, Dang D, Tian X. Designing robust support for Pt alloy nanoframes with durable oxygen reduction reaction activity. ACS Appl Mater Interfaces 2019;11:9117-24.
116. Yu F, Xie Y, Tang H, et al. Platinum decorated hierarchical porous structures composed of ultrathin titanium nitride nanoflakes for efficient methanol oxidation reaction. Electrochim Acta 2018;264:216-24.
117. Zheng Y, Zhang J, Zhan H, Sun D, Dang D, Tian XL. Porous and three dimensional titanium nitride supported platinum as an electrocatalyst for oxygen reduction reaction. Electrochem Commun 2018;91:31-5.
118. Feng G, Pan Z, Xu Y, et al. Platinum decorated mesoporous titanium cobalt nitride nanorods catalyst with promising activity and CO-tolerance for methanol oxidation reaction. Int J Hydrog Energy 2018;43:17064-8.
119. Yuan Z, Cao Y, Zhang Z, et al. Dandelion-like titanium nitride supported platinum as an efficient oxygen reduction catalyst in acidic media. Int J Hydrog Energy 2022;47:15035-43.
120. Yang M, Van Wassen AR, Guarecuco R, Abruña HD, DiSalvo FJ. Nano-structured ternary niobium titanium nitrides as durable non-carbon supports for oxygen reduction reaction. Chem Commun 2013;49:10853-5.
121. Xiao Y, Fu Z, Zhan G, et al. Increasing Pt methanol oxidation reaction activity and durability with a titanium molybdenum nitride catalyst support. J Power Sources 2015;273:33-40.
122. Tian X, Tang H, Luo J, Nan H, Shu T. High-performance core-shell catalyst with nitride nanoparticles as a core: well-defined titanium copper nitride coated with an atomic Pt layer for the oxygen reduction reaction. ACS Catal 2017;7:3810-7.
123. Liu Q, Du L, Fu G, et al. Structurally ordered Fe3Pt nanoparticles on robust nitride support as a high performance catalyst for the oxygen reduction reaction. Adv Energy Mater 2019;9:1803040.
124. Nan H, Dang D, Tian XL. Structural engineering of robust titanium nitride as effective platinum support for the oxygen reduction reaction. J Mater Chem A 2018;6:6065-73.
125. Yin J, Wang L, Tian C, et al. Low-Pt loaded on a vanadium nitride/graphitic carbon composite as an efficient electrocatalyst for the oxygen reduction reaction. Chemistry 2013;19:13979-86.
126. Kim NY, Lee JH, Kwon JA, et al. Vanadium nitride nanofiber membrane as a highly stable support for Pt-catalyzed oxygen reduction reaction. J Ind Eng Chem 2017;46:298-303.
127. Zheng J, Zhang W, Zhang J, et al. Recent advances in nanostructured transition metal nitrides for fuel cells. J Mater Chem A 2020;8:20803-18.
128. Yang M, Cui Z, DiSalvo FJ. Mesoporous chromium nitride as a high performance non-carbon support for the oxygen reduction reaction. Phys Chem Chem Phys 2013;15:7041-4.
129. Yang M, Guarecuco R, Disalvo FJ. Mesoporous chromium nitride as high performance catalyst support for methanol electrooxidation. Chem Mater 2013;25:1783-7.
130. Liu B, Huo L, Si R, Liu J, Zhang J. A general method for constructing two-dimensional layered mesoporous mono- and binary-transition-metal nitride/graphene as an ultra-efficient support to enhance its catalytic activity and durability for electrocatalytic application. ACS Appl Mater Interfaces 2016;8:18770-87.
131. Chemler SR, Bovino MT. Catalytic aminohalogenation of alkenes and alkynes. ACS Catal 2013;3:1076-91.
132. He C, Tao J. Transition metal carbides coupled with nitrogen-doped carbon as efficient and stable Bi-functional catalysts for oxygen reduction reaction and hydrogen evolution reaction. Int J Hydrog Energy 2022;47:13240-50.
133. Hunt ST, Milina M, Alba-Rubio AC, et al. Self-assembly of noble metal monolayers on transition metal carbide nanoparticle catalysts. Science 2016;352:974-8.
134. Yue R, Xia M, Wang M, et al. TiN and TiC as stable and promising supports for oxygen reduction reaction: theoretical and experimental study. Appl Surf Sci 2019;495:143620.
135. Lee Y, Ahn JH, Park H, et al. Support structure-catalyst electroactivity relation for oxygen reduction reaction on platinum supported by two-dimensional titanium carbide. Nano Energy 2021;79:105363.
136. Xie X, Chen S, Ding W, Nie Y, Wei Z. An extraordinarily stable catalyst: Pt NPs supported on two-dimensional Ti3C2X2 (X = OH, F) nanosheets for oxygen reduction reaction. Chem Commun 2013;49:10112-4.
137. Ignaszak A, Song C, Zhu W, et al. Titanium carbide and its core-shelled derivative TiC@TiO2 as catalyst supports for proton exchange membrane fuel cells. Electrochim Acta 2012;69:397-405.
138. Xie X, Xue Y, Li L, et al. Surface Al leached Ti3AlC2 as a substitute for carbon for use as a catalyst support in a harsh corrosive electrochemical system. Nanoscale 2014;6:11035-40.
139. Min P, Li C, Ding L, Jian Z, Liang C. Microwave-assisted preparation of Mo2C/CNTs nanocomposites as efficient electrocatalyst supports for oxygen reduction reaction. Ind Eng Chem Res 2010;175:275-8.
140. Cheng C, Zhang X, Fu Z, Yang Z. Strong metal-support interactions impart activity in the oxygen reduction reaction: Au monolayer on Mo2C (MXene). J Phys Condens Matter 2018;30:475201.
141. Saha S, Cabrera Rodas JA, Tan S, Li D. Performance evaluation of platinum-molybdenum carbide nanocatalysts with ultralow platinum loading on anode and cathode catalyst layers of proton exchange membrane fuel cells. J Power Sources 2018;378:742-9.
142. Hamo ER, Rosen BA. Improved durability and activity in Pt/Mo2C fuel cell cathodes by magnetron sputtering of tantalum. ChemElectroChem 2021;8:3123-34.
143. Elbaz L, Phillips J, Artyushkova K, More K, Brosha EL. Evidence of high electrocatalytic activity of molybdenum carbide supported platinum nanorafts. J Electrochem Soc 2015;162:H681-5.
144. Krishnamurthy CB, Lori O, Elbaz L, Grinberg I. First-principles investigation of the formation of Pt nanorafts on a Mo2C support and their catalytic activity for oxygen reduction reaction. J Phys Chem Lett 2018;9:2229-34.
145. Schweitzer NM, Schaidle JA, Ezekoye OK, Pan X, Linic S, Thompson LT. High activity carbide supported catalysts for water gas shift. J Am Chem Soc 2011;133:2378-81.
146. Zhang K, Yang W, Ma C, et al. A highly active, stable and synergistic Pt nanoparticles/Mo2C nanotube catalyst for methanol electro-oxidation. NPG Asia Mater 2015;7:e153-e153.
147. Li Q, Ma Z, Sa R, et al. Computation-predicted, stable, and inexpensive single-atom nanocatalyst Pt@Mo2C-an important advanced material for H2 production. J Mater Chem A 2017;5:14658-72.
148. Huang X, Wang J, Gao J, Zhang Z, Gan LY, Xu H. Structural evolution and underlying mechanism of single-atom centers on Mo2C (100) support during oxygen reduction reaction. ACS Appl Mater Interfaces 2021;13:17075-84.
149. Zhang L, Yang T, Zang W, et al. Quasi-paired Pt atomic sites on Mo2C promoting selective four-electron oxygen reduction. Adv Sci 2021;8:e2101344.
150. Gao W, Liu T, Zhang Z, Dou M, Wang F. Stabilization of Pt nanoparticles at the Ta2O5-TaC binary junction: an effective strategy to achieve high durability for oxygen reduction. J Mater Chem A 2020;8:5525-34.
151. Begum M, Yurukcu M, Yurtsever F, et al. Pt-Ni/WC alloy nanorods arrays as ORR catalyst for PEM fuel cells. ECS Trans 2017;80:919-25.
152. Yurtsever FM, Yurukcu M, Begum M, Watanabe F, Karabacak T. Stacked and core-shell Pt:Ni/WC nanorod array electrocatalyst for enhanced oxygen reduction reaction in polymer electrolyte membrane fuel cells. ACS Appl Energy Mater 2018;1:6115-22.
153. Nabil Y, Cavaliere S, Harkness I, Sharman J, Jones D, Rozière J. Novel niobium carbide/carbon porous nanotube electrocatalyst supports for proton exchange membrane fuel cell cathodes. J Power Sources 2017;363:20-6.
154. Stamatin SN, Skou EM. Pt/NbC-N electrocatalyst for use in proton exchange membrane fuel cells. ECS Trans 2013;58:1267-76.
155. Justin P, Charan PHK, Rao GR. Activated zirconium carbide promoted Pt/C electrocatalyst for oxygen reduction. Appl Catal B Environ 2014;144:767-74.
156. Hamo ER, Rosen BA. Transition metal carbides as cathode supports for PEM fuel cells. Nano Res 2022;15:10218-33.
157. Wang Y, Wang M, Lu Z, Ma D, Jia Y. Enabling multifunctional electrocatalysts by modifying the basal plane of unifunctional 1T’-MoS2 with anchored transition metal single atoms. Nanoscale 2021;13:13390-400.
158. Logeshwaran N, Panneerselvam IR, Ramakrishnan S, et al. Quasihexagonal platinum nanodendrites decorated over CoS2-N-doped reduced graphene oxide for electro-oxidation of C1-, C2-, and C3-type alcohols. Adv Sci 2022;9:e2105344.
159. Bothra P, Pandey M, Pati SK. Size-selective electrocatalytic activity of (Pt)n/MoS2 for oxygen reduction reaction. Catal Sci Technol 2016;6:6389-95.
160. Anwar MT, Yan X, Asghar MR, et al. MoS2-rGO hybrid architecture as durable support for cathode catalyst in proton exchange membrane fuel cells. Chinese J Catal 2019;40:1160-7.
161. Wei L, Ang EH, Yang Y, et al. Recent advances of transition metal based bifunctional electrocatalysts for rechargeable zinc-air batteries. J Power Sources 2020;477:228696.
162. Wang D, Song Y, Zhang H, Yan X, Guo J. Recent advances in transition metal borides for electrocatalytic oxygen evolution reaction. J Electroanal Chem 2020;861:113953.
163. Cao S, Sun T, Li J, Li Q, Hou C, Sun Q. The cathode catalysts of hydrogen fuel cell: from laboratory toward practical application. Nano Res 2023;16:4365-80.
164. Kumar S, Yoyakki A, Pandikassala A, Soni R, Kurungot S. Pt-anchored-zirconium phosphate nanoplates as high-durable carbon-free oxygen reduction reaction electrocatalyst for PEM fuel cell applications. Adv Sustain Syst 2023;7:2200330.
165. Yin S, Mu S, Lv H, Cheng N, Pan M, Fu Z. A highly stable catalyst for PEM fuel cell based on durable titanium diboride support and polymer stabilization. Appl Catal B Environ 2010;93:233-40.
166. Yin S, Mu S, Pan M, Fu Z. A highly stable TiB2-supported Pt catalyst for polymer electrolyte membrane fuel cells. J Power Sources 2011;196:7931-6.
167. Huang Z, Lin R, Fan R, Fan Q, Ma J. Effect of TiB2 pretreatment on Pt/TiB2 catalyst performance. Electrochim Acta 2014;139:48-53.
168. Zhang C, Ma B, Zhou Y, Wang C. Highly active and durable Pt/MXene nanocatalysts for ORR in both alkaline and acidic conditions. J Electroanal Chem 2020;865:114142.
169. Ponnada S, Kiai MS, Gorle DB, et al. Recent status and challenges in multifunctional electrocatalysis based on 2D MXenes. Catal Sci Technol 2022;12:4413-41.
170. Peera SG, Liu C, Sahu AK, et al. Recent advances on MXene-based electrocatalysts toward oxygen reduction reaction: a focused review. Adv Mater Interfaces 2021;8:2100975.
171. Huang X, Song M, Zhang J, et al. Investigation of MXenes as oxygen reduction electrocatalyst for selective H2O2 generation. Nano Res 2022;15:3927-32.
172. Xu C, Fan C, Zhang X, et al. MXene (Ti3C2Tx) and carbon nanotube hybrid-supported platinum catalysts for the high-performance oxygen reduction reaction in PEMFC. ACS Appl Mater Interfaces 2020;12:19539-46.
173. Yang X, Zhang Y, Fu Z, et al. Tailoring the electronic structure of transition metals by the V2C MXene support: excellent oxygen reduction performance triggered by metal-support interactions. ACS Appl Mater Interfaces 2020;12:28206-16.
174. Wei B, Fu Z, Legut D, et al. Rational design of highly stable and active MXene-based bifunctional ORR/OER double-atom catalysts. Adv Mater 2021;33:e2102595.
175. Li Z, Cui Y, Wu Z, et al. Reactive metal-support interactions at moderate temperature in two-dimensional niobium-carbide-supported platinum catalysts. Nat Catal 2018;1:349-55.
176. Du L, Shao Y, Sun J, Yin G, Liu J, Wang Y. Advanced catalyst supports for PEM fuel cell cathodes. Nano Energy 2016;29:314-22.
177. Samad S, Loh KS, Wong WY, et al. Carbon and non-carbon support materials for platinum-based catalysts in fuel cells. Int J Hydrog Energy 2018;43:7823-54.
178. Gao Y, Kong D, Liang J, et al. Inside-out dual-doping effects on tubular catalysts: structural and chemical variation for advanced oxygen reduction performance. Nano Res 2022;15:361-7.
179. Liu X, Zhao Z, Liang J, et al. Inducing covalent atomic interaction in intermetallic Pt alloy nanocatalysts for high-performance fuel cells. Angew Chem Int Ed 2023;62:e202302134.
180. Xiao F, Wang Y, Xu GL, et al. Fe-N-C boosts the stability of supported platinum nanoparticles for fuel cells. J Am Chem Soc 2022;144:20372-84.
Comments
Comments must be written in English. Spam, offensive content, impersonation, and private information will not be permitted. If any comment is reported and identified as inappropriate content by OAE staff, the comment will be removed without notice. If you have any queries or need any help, please contact us at support@oaepublish.com.