FUEL FOR LIFE: ALUMINUM ENERGY TECHNOLOGIES FOR ELECTRICITY GENERATION BY HYDROGEN

被引:0
|
作者
Rozenak, P. [1 ]
Shani, E. [2 ]
机构
[1] Hydrogen Energy Batteries LTD, IL-84965 Omer, Israel
[2] Ben Gurion Univ Negev, Fac Hlth Sci, Beer Sheva, Israel
关键词
Aluminum; Hydrogen; Energy; Chemical reaction; Fuel cell; Social health;
D O I
暂无
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
The novel energy generation, by means of a unique hydrogen production method, creates an opportunity to tackle some important social and environmental factors that determine our sustainable development and personal health. Hydrogen can be produced from a spontaneous chemical reaction in an Al-water system, at a relatively low cost, by bringing aluminum and water into contact, with sodium hydroxide as the catalyst and using an energy source derived from aluminum waste. In our experiments, hydrogen of extremely high-purity was obtained and was used in commercial fuel cell facilities to produce electricity. The hydrogen was produced from recyclable material without supplementary energy and with almost no air pollution. We propose that aluminum technologies for fuel cells could become an integral part of the solution for an economical, clean, low-polluting source of energy. The process is lightweight and largely recyclable and offers opportunities for the commercialization of multiple technologies.
引用
收藏
页码:919 / 924
页数:6
相关论文
共 50 条
  • [21] Fuel cells and energy networks of electricity, heat, and hydrogen in residential areas
    Aki, Hirohisa
    Yamamoto, Shigeo
    Kondoh, Junji
    Maeda, Tetsuhiko
    Yamaguchi, Hiroshi
    Murata, Akinobu
    Ishii, Itaru
    INTERNATIONAL JOURNAL OF HYDROGEN ENERGY, 2006, 31 (08) : 967 - 980
  • [22] Efficiency-improving fossil fuel technologies for electricity generation: Data selection and trends
    Lanzi, Elisa
    Verdolini, Elena
    Hascic, Ivan
    ENERGY POLICY, 2011, 39 (11) : 7000 - 7014
  • [23] Integration of fermentative hydrogen process and fuel cell for on-line electricity generation
    Lin, Chi-Neng
    Wu, Shu-Yii
    Lee, Kuo-Shing
    Lin, Ping-Jei
    Lin, Chiu-Yue
    Chang, Jo-Shu
    INTERNATIONAL JOURNAL OF HYDROGEN ENERGY, 2007, 32 (07) : 802 - 808
  • [24] Advanced exergy analysis of a PEM fuel cell with hydrogen energy storage integrated with organic Rankine cycle for electricity generation
    Montazerinejad, H.
    Fakhimi, E.
    Ghandehariun, S.
    Ahmadi, P.
    SUSTAINABLE ENERGY TECHNOLOGIES AND ASSESSMENTS, 2022, 51
  • [25] Life Cycle Assessment of renewable energy generation technologies
    Uchiyarna, Yohji
    IEEJ TRANSACTIONS ON ELECTRICAL AND ELECTRONIC ENGINEERING, 2007, 2 (01) : 44 - 48
  • [26] Life cycle assessment (LCA) of electricity generation technologies: Overview, comparability and limitations
    Turconi, Roberto
    Boldrin, Alessio
    Astrup, Thomas
    RENEWABLE & SUSTAINABLE ENERGY REVIEWS, 2013, 28 : 555 - 565
  • [27] Life cycle assessment of waste-to-energy (WtE) technologies for electricity generation using municipal solid waste in Nigeria
    Ayodele, T. R.
    Ogunjuyigbe, A. S. O.
    Alao, M. A.
    APPLIED ENERGY, 2017, 201 : 200 - 218
  • [28] Comparison of Life Cycle Carbon Dioxide Emissions and Embodied Energy in Four Renewable Electricity Generation Technologies in New Zealand
    Rule, Bridget M.
    Worth, Zeb J.
    Boyle, Carol A.
    ENVIRONMENTAL SCIENCE & TECHNOLOGY, 2009, 43 (16) : 6406 - 6413
  • [29] Energy transformation technologies for electricity
    Kondou, Yasuhiko
    Someya, Satoshi
    IEEJ TRANSACTIONS ON ELECTRICAL AND ELECTRONIC ENGINEERING, 2007, 2 (01) : 22 - 26
  • [30] Numerical assessment of a hybrid energy system based on solid oxide electrolyzer, solar energy and molten carbonate fuel cell for the generation of electrical energy and hydrogen fuel with electricity storage option
    Wang, Shuaibing
    Wu, Xianhua
    Jafarmadar, Samad
    Singh, Pradeep Kumar
    Khorasani, Saleh
    Marefati, Mohamad
    Alizadeh, As'ad
    JOURNAL OF ENERGY STORAGE, 2022, 54