Green hydrogen from anion exchange membrane water electrolysis: a review of recent developments in critical materials and operating conditions

被引:489
作者
Miller, Hamish Andrew [1 ]
Bouzek, Karel [2 ]
Hnat, Jaromir [2 ]
Loos, Stefan [3 ]
Bernaecker, Christian Immanuel [3 ]
Weissgaerber, Thomas [3 ]
Roentzsch, Lars [3 ]
Meier-Haack, Jochen [4 ]
机构
[1] CNR, ICCOM, Ist Chim Composti Organometallici, Via Madonna Piano 10, I-50019 Florence, Italy
[2] Univ Chem & Technol, Dept Inorgan Technol, Tech 5, Prague 16628 6, Czech Republic
[3] Fraunhofer Inst Mfg Technol & Adv Mat IFAM, Branch Lab Dresden, Winterbergstr 28, D-01277 Dresden, Germany
[4] Leibniz Inst Polymerforsch Dresden eV, Hohe Str 6, D-01069 Dresden, Germany
关键词
QUATERNARY AMMONIUM CATIONS; SOLVATING POLYMER ELECTROLYTE; ALKALINE FUEL-CELLS; EVOLUTION REACTION; OXYGEN-EVOLUTION; POLY(2,6-DIMETHYL-1,4-PHENYLENE OXIDE); ENERGY-STORAGE; NICKEL; PERFORMANCE; OXIDATION;
D O I
10.1039/c9se01240k
中图分类号
O64 [物理化学(理论化学)、化学物理学];
学科分类号
070304 ; 081704 ;
摘要
Hydrogen production using water electrolysers equipped with an anion exchange membrane (AEM), a pure water feed and cheap components such as platinum group metal-free catalysts and stainless steel bipolar plates (BPP) can challenge proton exchange membrane (PEM) electrolysis systems as the state of the art. For this to happen the performance of the AEM electrolyzer must match the compact design, stability, H-2 purity and high current densities of PEM systems. Current research aims at bringing AEM water electrolysis technology to an advanced level in terms of electrolysis cell performance. Such technological advances must be accompanied by demonstration of the cost advantages of AEM systems. The current state of the art in AEM water electrolysis is defined by sporadic reports in the academic literature mostly dealing with catalyst or membrane development. The development of this technology requires a future roadmap for systematic development and commercialization of AEM systems and components. This will include basic and applied research, technology development & integration, and testing at a laboratory scale of small demonstration units (AEM electrolyzer shortstacks) that can be used to validate the technology (from TRL 2-3 currently to TRL 4-5). This review paper gathers together recent important research in critical materials development (catalysts, membranes and MEAs) and operating conditions (electrolyte composition, cell temperature, performance achievements). The aim of this review is to identify the current level of materials development and where improvements are required in order to demonstrate the feasibility of the technology. Once the challenges of materials development are overcome, AEM water electrolysis can drive the future use of hydrogen as an energy storage vector on a large scale (GW) especially in developing countries.
引用
收藏
页码:2114 / 2133
页数:20
相关论文
共 154 条
  • [1] Anion exchange membrane water electrolyzer with an ultra-low loading of Pt-decorated Ni electrocatalyst
    Ahn, Sang Hyun
    Yoo, Sung Jong
    Kim, Hyoung-Juhn
    Henkensmeier, Dirk
    Nam, Suk Woo
    Kim, Soo-Kil
    Jang, Jong Hyun
    [J]. APPLIED CATALYSIS B-ENVIRONMENTAL, 2016, 180 : 674 - 679
  • [2] Development of a membrane electrode assembly for alkaline water electrolysis by direct electrodeposition of nickel on carbon papers
    Ahn, Sang Hyun
    Lee, Byung-Seok
    Choi, Insoo
    Yoo, Sung Jong
    Kim, Hyoung-Juhn
    Cho, Eunae
    Henkensmeier, Dirk
    Nam, Suk Woo
    Kim, Soo-Kil
    Jang, Jong Hyun
    [J]. APPLIED CATALYSIS B-ENVIRONMENTAL, 2014, 154 : 197 - 205
  • [3] Towards a stable ion-solvating polymer electrolyte for advanced alkaline water electrolysis
    Aili, David
    Wright, Andrew G.
    Kraglund, Mikkel Rykaer
    Jankova, Katja
    Holdcroft, Steven
    Jensen, Jens Oluf
    [J]. JOURNAL OF MATERIALS CHEMISTRY A, 2017, 5 (10) : 5055 - 5066
  • [4] Porous poly(perfluorosulfonic acid) membranes for alkaline water electrolysis
    Aili, David
    Hansen, Martin Kalmar
    Andreasen, Jens Wenzel
    Zhang, Jingdong
    Jensen, Jens Oluf
    Bjerrum, Niels J.
    Li, Qingfeng
    [J]. JOURNAL OF MEMBRANE SCIENCE, 2015, 493 : 589 - 598
  • [5] [Anonymous], 2000, ULLMANNS ENCY IND CH
  • [6] Revised Pourbaix diagrams for nickel at 25-300 degrees C
    Beverskog, B
    Puigdomenech, I
    [J]. CORROSION SCIENCE, 1997, 39 (05) : 969 - 980
  • [7] The hydrogen economy: Its history
    Bockris, John O'. M.
    [J]. INTERNATIONAL JOURNAL OF HYDROGEN ENERGY, 2013, 38 (06) : 2579 - 2588
  • [8] H2 generation from alkaline electrolyzer
    Bodner, Merit
    Hofer, Astrid
    Hacker, Viktor
    [J]. WILEY INTERDISCIPLINARY REVIEWS-ENERGY AND ENVIRONMENT, 2015, 4 (04) : 365 - 381
  • [9] Alkaline water electrolysis facilitated via non-precious monometallic catalysts combined with highly KOH doped polybenzimidazole membrane
    Borisov, Galin
    Penchev, Hristo
    Maksimova-Dimitrov, Katerina
    Ublekov, Filip
    Lefterova, Elefteria
    Sinigersky, Vesselin
    Slavcheva, Evelina
    [J]. MATERIALS LETTERS, 2019, 240 : 144 - 146
  • [10] Current status of water electrolysis for energy storage, grid balancing and sector coupling via power-to-gas and power-to-liquids: A review
    Buttler, Alexander
    Spliethoff, Hartmut
    [J]. RENEWABLE & SUSTAINABLE ENERGY REVIEWS, 2018, 82 : 2440 - 2454