Advancements in water electrolysis technologies and enhanced storage solutions for green hydrogen using renewable energy sources

被引:6
作者
Selvam, D. Christopher [1 ]
Devarajan, Yuvarajan [1 ]
Raja, T. [2 ]
Vickram, Sundaram [3 ]
机构
[1] Saveetha Univ, Saveetha Sch Engn, Dept Mech Engn, SIMATS, Chennai, Tamil Nadu, India
[2] Saveetha Univ, Saveetha Dent Coll & Hosp, Dept Prosthodont, Mat Sci Lab,SIMATS, Chennai, India
[3] Saveetha Univ, Saveetha Sch Engn, Dept Biosci, SIMATS, Chennai, Tamil Nadu, India
关键词
Green hydrogen; Renewable Energy; Sustainable practices; Alternative fuels; CHALLENGES; CATALYSTS; FUTURE; DESIGN;
D O I
10.1016/j.apenergy.2025.125849
中图分类号
TE [石油、天然气工业]; TK [能源与动力工程];
学科分类号
0807 ; 0820 ;
摘要
Hydrogen plays a vital role in the low-carbon energy transition due to its versatility as a clean energy carrier. However, scaling green hydrogen production using renewable energy presents challenges. This review examines recent advancements in water electrolysis technologies powered by renewable sources such as wind, solar, geothermal, hydropower, and biomass, focusing on Proton Exchange Membranes (PEMs), Solid Oxide Electrolyzers (SOEs), and emerging Anion Exchange Membrane (AEM) technologies. Key findings show that combining offshore wind and Concentrated Solar Power (CSP) with electrolyzers boosts hydrogen yields while lowering costs. Geothermal and hydropower provide stable power for continuous production, while biomass gasification and pyrolysis, integrated with carbon capture, offer sustainable hydrogen pathways. To meet the International Energy Agency's goal of reducing hydrogen costs to under $2/kg, scaling up electrolysis, improving energy storage, and expanding infrastructure are crucial. The review also highlights the role of digital technologies, such as smart grids and AI-driven systems, in improving efficiency and enabling decentralized hydrogen production. Strong policy support, infrastructure investments, and ongoing innovation are essential for advancing the hydrogen economy and achieving global decarbonization targets.
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页数:22
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共 207 条
[1]   Land conversions not climate effects are the dominant indirect consequence of sun-driven CO2 capture, conversion, and sequestration [J].
Adam, Moritz ;
Kleinen, Thomas ;
May, Matthias M. ;
Rehfeld, Kira .
ENVIRONMENTAL RESEARCH LETTERS, 2025, 20 (03)
[2]  
Afolabi N. M. A., 2024, Global Journal of Advanced Research and Reviews., V2, P058, DOI [10.58175/gjarr.2024.2.2.0059, DOI 10.58175/GJARR.2024.2.2.0059]
[3]  
Agho MO, 2025, International journal of research and innovation in applied. Science, VIX, P564, DOI [10.51584/ijrias.2024.912049, DOI 10.51584/IJRIAS.2024.912049]
[4]  
Ahlen J, 2023, SPRINGER P ENERGY, DOI [10.1007/978-981-99-0357-3125, DOI 10.1007/978-981-99-0357-3125]
[5]  
Aia X, 2022, Springer eBooks, P1, DOI [10.1007/978-3-030-38948-219-1, DOI 10.1007/978-3-030-38948-219-1]
[6]  
Aissani N., 2024, Revue Des Energies Renouvelables, DOI [10.54966/jreen.v1i3.1292, DOI 10.54966/JREEN.V1I3.1292]
[7]   The operation and applicability to hydrogen fuel technology of green hydrogen production by water electrolysis using offshore wind power [J].
Akdag, Ozan .
JOURNAL OF CLEANER PRODUCTION, 2023, 425
[8]   Hydrogen as a clean energy carrier: advancements, challenges, and its role in a sustainable energy future [J].
Akpasi, Stephen Okiemute ;
Smarte Anekwe, Ifeanyi Michael ;
Tetteh, Emmanuel Kweinor ;
Amune, Ubani Oluwaseun ;
Mustapha, Sherif Ishola ;
Kiambi, Sammy Lewis .
CLEAN ENERGY, 2025, 9 (01) :52-88
[9]  
Al-Daffaie AGM, 2024, IEEE C P, P1, DOI [10.1109/isas64331.2024.10845294, DOI 10.1109/ISAS64331.2024.10845294]
[10]   Hydrogen refueling stations powered by hybrid PV/wind renewable energy systems: Techno-socio-economic assessment [J].
Al-Sharafi, Abdullah ;
Al-Buraiki, Abdulrahman S. ;
Al-Sulaiman, Fahad ;
Antar, Mohamed A. .
ENERGY CONVERSION AND MANAGEMENT-X, 2024, 22