A felszín alatti hidrogéntárolás rezervoármérnöki megközelítése
Reservoir engineering approach of underground hydrogen storage
Keywords:
felszín alatti hidrogén tárolás, zöld-hidrogén, dekarbonizáció, párnagáz, ki- és betárolásAbstract
The burning of fossil fuels is a major contributor to global warming. Therefore, the energy sector is looking for alternative renewable energy sources for electricity generation, such as wind, solar and hydropower. Electricity generated from this type of source is highly weather dependent, highly unbalanced, and therefore requires a complex energy storage system. This system stores the excess energy as a buffer, following the needs of the differences between supply and demand between the seasons. Subsurface storage of hydrogen produced by the electrolysis of water using renewable energy can be one of the possible forms of energy storage. To facilitate hydrogen supply in a future with zero carbon emissions, it is necessary to examine the technical aspects and feasibility of underground storage of hydrogen. The correct choice of hydrogen storage cycle processes and processes requires the study of a number of mechanisms, such as hydrodynamic, geochemical, biochemical, or microbial reactions.
References
Seo S-K, Yun D-Y, Lee C-J. Design and optimization of a hydrogen supply chain using a centralized storage model. Appl Energy 2020
Zuttel A. Hydrogen storage methods. Naturwissenschaften Apr 2004
Reuß M, Grube T, Robinius M, Preuster P, Wasserscheid P, Stolten D. Seasonal storage and alternative carriers: a flexible hydrogen supply chain model. Appl Energy 2017
Lemieux A, Sharp K, Shkarupin A. Preliminary assessment of underground hydrogen storage sites in Ontario, Can-ada. Int J Hydrogen Energy Jun 7 2019
Tarkowski R, Czapowski G. Salt domes in Poland e potential sites for hydrogen storage in caverns. 2018/11/15/ Int J Hydrogen Energy 2018.
Stone HBJ, Veldhuis I, Richardson RN. Underground hydrogen storage in the UK. Geological Society, London, Spe-cial Publications 2009
Davison J, Arienti S, Cotone P, Mancuso L. Co-production of hydrogen and electricity with CO2 capture. in English International Journal of Greenhouse Gas Control, 2010
Taylor J, Alderson J, Kalyanam K, Lyle A, Phillips L. Technical and economic assessment of methods for the stor-age of large quantities of hydrogen. Int J Hydrogen Energy 1986.
Jianwei Ren, Nicholas M., Musyoka, Henrietta W., Langmi, Mkhulu Mathe, ShijunLiao: Current research trends and perspectives on materials-based hydrogen storage solutions: A critical review, International Journal of Hydro-gen Energy, Vol. 42, Issue 1, 5 January 2017, 289-311
Shen L, Chen ZX. Critical review of the impact of tortuosity on diffusion. in English Chem Eng Sci Jul 2007;62(14):3748e55.
Katarzyna L, Radosław T. Numerical simulation of hydrogen injection and withdrawal to and from a deep aquifer in NW Poland. Int J Hydrogen Energy 2020;45:2068e83.
Panfilov M. Underground and pipeline hydrogen storage. In: Gupta RB, Basile A, Veziroglu TN, editors. Compendi-um of hydrogen energy. Woodhead Publishing; 2016. p. 91e115
Bódi T, Tóth J.: Földgázok és szén-dioxid földalatti tárolása, ISBN 978-963-358-008-0, 2012
Srinivasan BS. The impact of reservoir properties on mixing of inert cushion and natural gas in storage reservoirs. In:Master, petroleum and natural gas engineering. West Virginia University; 2006
Carden P, Paterson L. Physical, chemical and energy aspects of underground hydrogen storage. 1979/01/01/ Int J Hydrogen Energy 1979;4(6):559e69.
Torres R, de Hemptinne JC, Machin I. Improving the modeling of hydrogen solubility in heavy oil cuts using an augmented grayson streed (AGS) approach. 2. Oil & gas science and technology-revue D ifp energies nouvelles, 68; 2013. p. 217e33. Mar-Apr.
Coats KH, Richardson JG. Calculation of water displacement by gas in development of aquifer storage. 1967/6/1/ Soc Petrol Eng J 1967;7(2):105e12.