Electrochemical Characteristics of Electrode by Various Preparation Methods for Alkaline Membrane Fuel Cell
![]() |
Yuk, Eunsung
(Fuel Cell Laboratory, Korea Institute of Energy Research (KIER))
Lee, Hyejin (Fuel Cell Laboratory, Korea Institute of Energy Research (KIER)) Jung, Namgee (Graduate School of Energy Science and Technology (GEST), Chungnam National Unuversity) Shin, Dongwon (Fuel Cell Laboratory, Korea Institute of Energy Research (KIER)) Bae, Byungchan (Fuel Cell Laboratory, Korea Institute of Energy Research (KIER)) |
1 | 배병찬, 김은영, 이소정, 이혜진, 알칼리연료전지용 음이온교환전해질막의 연구 동향 및 전망. 신재생에너지 11, 52-61 (2015). |
2 | D. Li, H. T. Chung, S. Maurya, I. Matanovic, Y. S. Kim, Impact of ionomer adsorption on alkaline hydrogen oxidation activity and fuel cell performance. Current Opinion in Electrochemistry 12, 189-195 (2018). DOI |
3 | Z. Xie et al., Nafion Ionomer Aggregation and its Influence on Proton Conduction and Mass Transport in Fuel Cell Catalyst Layers. ECS Transactions 16, 1811-1816 (2008). DOI |
4 | B. Bae, K. Miyatake, M. Watanabe, Sulfonated Poly (arylene ether sulfone ketone) Multiblock Copolymers with Highly Sulfonated Block. Synthesis and Properties. Macromolecules 43, 2684-2691 (2010). DOI |
5 | H. J. Park et al., Effect of N-cyclic cationic groups in poly(phenylene oxide)-based catalyst ionomer membranes for anion exchange membrane fuel cells. Journal of Membrane Science 608, 118183 (2020). DOI |
6 | T. Yoda et al., Gas diffusion electrodes containing sulfonated poly (arylene ether) ionomer for PEFCs. Electrochimica Acta 54, 4328-4333 (2009). DOI |
7 | X. Shi et al., Maximization of quadruple phase boundary for alkaline membrane fuel cell using non-stoichiometric α-MnO2 as cathode catalyst. International Journal of Hydrogen Energy 44, 1166-1173 (2019). DOI |
8 | D. Sebastian et al., Optimization of the Catalytic Layer for Alkaline Fuel Cells Based on Fumatech Membranes and Ionomer. Catalysts 10, 1353 (2020). DOI |
9 | M. S. Cha et al., Poly(carbazole)-based anion-conducting materials with high performance and durability for energy conversion devices. Energy & Environmental Science 13, 3633-3645 (2020). DOI |
10 | J. Zhang et al., Self-adjusting anode catalyst layer for smart water management in anion exchange membrane fuel cells. Cell Reports Physical Science 2, 100377 (2021). DOI |
11 | T. Reshetenko, M. Odgaard, D. Schlueter, A. Serov, Analysis of alkaline exchange membrane fuel cells performance at different operating conditions using DC and ACmethods. Journal of Power Sources 375, 185-190 (2018). DOI |
12 | J. H. Lee et al., Dispersion-Solvent Control of Ionomer Aggregation in a Polymer Electrolyte Membrane Fuel Cell. Scientific Reports 8, 10739 (2018). DOI |
13 | Q. He, E. Cairns, Review-Recent Progress in Electrocatalysts for Oxygen Reduction Suitable for Alkaline Anion Exchange Membrane Fuel Cells. Journal of The Electrochemical Society 162, F1504-F1539 (2015). DOI |
14 | T. J. Omasta, X. Peng, C. A. Lewis, J. R. Varcoe, W. E. Mustain, Improving Performance in Alkaline Membrane Fuel Cells through Enhanced Water Management. ECS Transactions 75, 949-957 (2016). DOI |
15 | T. J. Omasta et al., Beyond catalysis and membranes: Visualizing and solving the challenge of electrode water accumulation and flooding in AEMFCs. Energy and Environmental Science 11, 551-558 (2018). DOI |
16 | Y. Zheng et al., Quantifying and elucidating the effect of CO2 on the thermodynamics, kinetics and charge transport of AEMFCs. Energy & Environmental Science 12, 2806-2819 (2019). DOI |
17 | I. Matanovic, H. T. Chung, Y. S. Kim, Benzene Adsorption: A Significant Inhibitor for the Hydrogen Oxidation Reaction in Alkaline Conditions. The Journal of Physical Chemistry Letters 8, 4918-4924 (2017). DOI |
18 | H. T. Chung, U. Martinez, I. Matanovic, Y. S. Kim, Cation-Hydroxide-Water Coadsorption Inhibits the Alkaline Hydrogen Oxidation Reaction. The Journal of Physical Chemistry Letters 7, 4464-4469 (2016). DOI |
19 | M. P. Soriaga, A. T. Hubbard, Determination of the orientation of adsorbed molecules at solid-liquid interfaces by thin-layer electrochemistry: aromatic compounds at platinum electrodes. Journal of the American Chemical Society 104, 2735-2742 (1982). DOI |
20 | W. Heiland, E. Gileadi, J. O. M. Bockris, Kinetic and Thermodynamic Aspects of the Electrosorption of Benzene on Platinum Electrodes. The Journal of Physical Chemistry 70, 1207-1216 (1966) DOI |
21 | D. Strmcnik et al., The role of non-covalent interactions in electrocatalytic fuel-cell reactions on platinum. Nature Chemistry 1, 466-472 (2009). DOI |
22 | D. Li et al., Phenyl Oxidation Impacts the Durability of Alkaline Membrane Water Electrolyzer. ACS Applied Materials & Interfaces 11, 9696-9701 (2019). DOI |
23 | T. J. Omasta et al., Importance of balancing membrane and electrode water in anion exchange membrane fuel cells. Journal of Power Sources 375, 205-213 (2018). DOI |
24 | H. Yanagi, K. Fukuta, Anion Exchange Membrane and Ionomer for Alkaline Membrane Fuel Cells (AMFCs). ECS Transactions 16, 257-262 (2019). |
25 | I. Matanovic et al., Adsorption of Polyaromatic Backbone Impacts the Performance of Anion Exchange Membrane Fuel Cells. Chemistry of Materials 31, 4195-4204 (2019). DOI |
26 | E. S. Davydova, S. Mukerjee, F. Jaouen, D. R. Dekel, Electrocatalysts for Hydrogen Oxidation Reaction in Alkaline Electrolytes. ACS Catalysis 8, 6665-6690 (2018). DOI |
27 | T. Reshetenko, J. St-Pierre, Study of the aromatic hydrocarbons poisoning of platinum cathodes on proton exchange membrane fuel cell spatial performance using a segmented cell system. Journal of Power Sources 333, (2016). |
28 | B. Britton, S. Holdcroft, The Control and Effect of Pore Size Distribution in AEMFC Catalyst Layers. Journal of The Electrochemical Society 163, F353-F358 (2016). DOI |
![]() |