Projecting technological advancement of electrolyzers and the impact on the competitiveness of hydrogen

被引:0
|
作者
Buehler, Lauritz [1 ,2 ]
Moest, Dominik [2 ]
机构
[1] Boysen TU Dresden Res Training Grp, Chemnitzer Str 48b, D-01187 Dresden, Germany
[2] Tech Univ Dresden, Chair Business Adm, Esp Energy Econ, Munchner Pl 3, D-01069 Dresden, Germany
关键词
Alkaline electrolysis; Proton exchange membrane electrolysis; Solid oxide electrolysis; Learning curve; Experience curve; Technological learning; CAPEX; Electrical consumption; Hydrogen production costs; Levelized cost of hydrogen; Monte Carlo simulation; POWER-TO-GAS; WATER ELECTROLYSIS; FUTURE; COST;
D O I
10.1016/j.ijhydene.2024.12.078
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
Green hydrogen has the potential to decarbonize hard-to-abate sectors and processes and should, therefore, play an important role in the energy system in achieving climate goals. However, the main hydrogen supply is still based on fossil fuels, and only limited amounts of electrolyzers have been installed. Switching from fossil-based fuel sources to green hydrogen is highly dependent on when and at what price green hydrogen will become available, which in turn is dependent on the technological development of electrolyzers. In this paper, we apply the experience curve methodology to project the capital expenditure and electrical consumption developments of the three main electrolysis technologies: alkaline, proton exchange membrane and solid oxide electrolysis. Based on our calculations, we expect that both AEL and PEM will reach similar costs by 2030 of around 300 <euro> per kW and SOEC will remain the most expensive technology, with a considerable cost reduction down to 828 <euro> per kW. The electrical consumptions will fall to 4.23 kWh per Nm3 for AEL, 3.86 kWh per Nm3 for PEM and 3.05 kWh per Nm3 for SOEC. Based on this technological progress, we calculate that the levelized cost of hydrogen will be reduced to 2.43-3.07 <euro> per kg. To reach lower levelized cost of hydrogen, notable reductions in electricity (purchase) cost are required.
引用
收藏
页码:1174 / 1184
页数:11
相关论文
共 50 条
  • [11] Anion-Exchange Membrane Water Electrolyzers for Green Hydrogen Generation: Advancement and Challenges for Industrial Application
    Ghorui, Uday Kumar
    Sivaguru, Gokul
    Teja, Ummadisetti Bhanu
    Aswathi, M.
    Ramakrishna, Seeram
    Ghosh, Siddhartha
    Dalapati, Goutam Kumar
    Chakrabortty, Sabyasachi
    ACS APPLIED ENERGY MATERIALS, 2024, 7 (18): : 7649 - 7676
  • [12] Impact of Technological Advancement on Adoption and Use of Residential Heat Pumps
    Szekeres, Alex
    Jeswiet, Jack
    23RD CIRP CONFERENCE ON LIFE CYCLE ENGINEERING, 2016, 48 : 394 - 400
  • [13] The impact of policy consistency on technological competitiveness: A study on OECD countries
    Yoon, Jungsub
    Oh, Yoonhwan
    Lee, Jeong-Dong
    ENERGY POLICY, 2017, 108 : 425 - 434
  • [14] SCIENTISTS AND TECHNOLOGICAL ADVANCEMENT
    DULCIC, A
    PERIODICUM BIOLOGORUM, 1981, 83 (03) : 321 - 323
  • [15] RESTORING TECHNOLOGICAL COMPETITIVENESS
    不详
    NATURE, 1987, 326 (6112) : 437 - 438
  • [17] IMPACT OF TECHNOLOGICAL ADVANCEMENT ON VIOLENT BEHAVIOUR AMONG SECONDARY SCHOOL ADOLESCENTS
    Ehindero, Serifat Adefunke
    10TH INTERNATIONAL CONFERENCE OF EDUCATION, RESEARCH AND INNOVATION (ICERI2017), 2017, : 7043 - 7048
  • [18] Investigating Technological Advancement Strategies for the Innovation Impact of Alternative Energy Patents
    Kim, Jong-Hyun
    Lee, Yong-Gil
    SUSTAINABILITY, 2024, 16 (02)
  • [19] Assessment of the Impact of Renewable Energy Expansion on the Technological Competitiveness of the Cogeneration Model
    Im, Yonghoon
    ENERGIES, 2022, 15 (18)
  • [20] Impact of hydrogen electrolyzers on flexibility and network voltage profiles of a virtual power plant
    De Corato, Antonella Maria
    Riaz, Shariq
    Mancarella, Pierluigi
    2020 AUSTRALASIAN UNIVERSITIES POWER ENGINEERING CONFERENCE (AUPEC), 2020,