Storage system for electricity obtained from wind power plants using underground hydrogen reservoir

Sebastian Lepszy, Tadeusz Chmielniak, Paweł Mońka

Abstract


Wind power is characterized by high variability and unpredictability. Due to limited opportunities for electricity storage and
the power grid’s limited carrying capacity, an increase in the use of renewable sources may bring about unfavorable technical
and economic consequences. Energy storage systems may mitigate the negative effects of electricity generation in wind
power plants. Energy storage systems can also aid the cause of clean coal technologies, by increasing working time and
efficiency and reducing CO2 emissions in coal power plants. This paper presents a simplified model of a system of energy
storage in the form of hydrogen. Hydrogen is produced through electrolysis and is stored in underground storage sites. A
hydrogen-fired gas turbine is used in the process of chemical energy-to-electricity conversion. Calculations are performed to
determine hydrogen mass and volume flow needed for storage to make up for the insufficient amounts of electricity produced
over time. A preliminary economic analysis for various power storage systems is also presented.

Keywords


Hydrogen; energy storage; economic analysis

Full Text:

PDF

References


URL www.ure.gov.pl.

URL www.pse.pl.

Krzysztof Badyda and Jarosław Milewski. Thermodynamic analysis of

compressed air energy storage working conditions. Archiwum Energetyki,

(1):53–68, 2012.

Marc Beaudin, Hamidreza Zareipour, Anthony Schellenberglabe, and

William Rosehart. Energy storage for mitigating the variability of renewable

electricity sources: An updated review. Energy for Sustainable

Development, 14(4):302–314, 2010.

T. Chmielniak, Lepszy S., and Czaja D. Instalacje turbiny gazowej w

energetyce i przemys´le. Wydawnictwo Politechniki S´ la˛skiej, 2015.

Tadeusz Chmielniak and Sebastian Lepszy. Dobór struktur układów

gazowo-parowych z uwzgle˛dnieniem wybranych aspektów technologicznych

i rynkowych. Polityka Energetyczna, 16, 2013.

Johanna Ivy. Summary of electrolytic hydrogen production: milestone

completion report. Technical report, National Renewable Energy Lab.,

Golden, CO (US), 2004.

Janusz Kotowicz, Włodzimierz Ogulewicz, D Wecel, and Michał Jurczyk.

Analysis of hydrogen electrolyzer work. In The19th Annual International

Conference Energy and Environment, pages 44–47, 2015.

Myer Kutz. Environmentally conscious alternative energy production,

volume 4. John Wiley & Sons, 2007.

Sebastian Lepszy, Tadeusz Tadeusz Chmielniak, and Daniel Czaja.

Economic assessment of gas-steam systems taking account of variable

loads. Journal of Power Technologies, 95(5):54, 2015.

Anna S Lord, Peter H Kobos, and David J Borns. Geologic storage

of hydrogen: Scaling up to meet city transportation demands. international

journal of hydrogen energy, 39(28):15570–15582, 2014.

Ahmet Ozarslan. Large-scale hydrogen energy storage in salt caverns.

International Journal of Hydrogen Energy, 37(19):14265–14277, 2012.

Jean-Claude Sabonnadière. Low emission power generation technologies

and energy management. John Wiley & Sons, 2013.

Genevieve Saur. Wind-to-hydrogen project: electrolyzer capital cost

study. Citeseer, 2008.


Refbacks

  • There are currently no refbacks.