Long-term hydrogen storage approach for 5MW micro-power generator using wind turbines

Shuang Yu, Tim J. Mays, Roderick W. Dunn

Research output: Chapter in Book/Report/Conference proceedingConference contribution

Abstract

Wind energy is difficult to use due to its stochastic variability, whereas energy storage can reduce the variability to allow it to match energy demand. In this procedure, energy storage can play an important role in balancing the difference between wind generation and energy demand to maximize the utilization of wind power. This paper tries to shift energy from windier times to less windy times throughout an entire year to make wind generation completely match the load in the whole year with the assistance of energy storage. In order to achieve this target, this research did the following major tasks: i) Develop a time dependant model of energy losses considering the initial efficiency of three energy storage approaches, i.e. Flywheels, sodium-sulfur (NaS) batteries, and Hydrogen storage; ii) Chose an appropriate storage approach for this study in terms of energy loss; iii) Investigate the dynamics and cycle time of the chosen energy storage and recovery mechanism; iv) Improve the efficiency and reduce the costs of the chosen storage method by introducing hydrogen-fuelled combined-cycle gas turbine (H2-CCGT). The proposed approach was demonstrated and tested on a small local distribution system taken from the UK's distribution system. The results illustrate that in the long-term Hydrogen storage is the most efficient method for balancing the wind energy and demand.
Original languageEnglish
Title of host publicationProceedings of the tenth IASTED European conference on power and energy systems
EditorsP Bourkas
Place of PublicationAnaheim, CA
PublisherACTA Press
Pages267-273
Number of pages7
ISBN (Print)9780889868922
DOIs
Publication statusPublished - 2011
EventIASTED International Conference on Power and Energy Systems, EuroPES 2011 - Crete, Greece
Duration: 22 Jun 201124 Jun 2011

Conference

ConferenceIASTED International Conference on Power and Energy Systems, EuroPES 2011
CountryGreece
CityCrete
Period22/06/1124/06/11

Fingerprint

Hydrogen storage
Wind turbines
Energy storage
Wind power
Energy dissipation
Flywheels
Gas turbines
Sulfur
Sodium
Recovery
Hydrogen
Costs

Cite this

Yu, S., Mays, T. J., & Dunn, R. W. (2011). Long-term hydrogen storage approach for 5MW micro-power generator using wind turbines. In P. Bourkas (Ed.), Proceedings of the tenth IASTED European conference on power and energy systems (pp. 267-273). Anaheim, CA: ACTA Press. https://doi.org/10.2316/P.2011.714-128

Long-term hydrogen storage approach for 5MW micro-power generator using wind turbines. / Yu, Shuang; Mays, Tim J.; Dunn, Roderick W.

Proceedings of the tenth IASTED European conference on power and energy systems . ed. / P Bourkas. Anaheim, CA : ACTA Press, 2011. p. 267-273.

Research output: Chapter in Book/Report/Conference proceedingConference contribution

Yu, S, Mays, TJ & Dunn, RW 2011, Long-term hydrogen storage approach for 5MW micro-power generator using wind turbines. in P Bourkas (ed.), Proceedings of the tenth IASTED European conference on power and energy systems . ACTA Press, Anaheim, CA, pp. 267-273, IASTED International Conference on Power and Energy Systems, EuroPES 2011, Crete, Greece, 22/06/11. https://doi.org/10.2316/P.2011.714-128
Yu S, Mays TJ, Dunn RW. Long-term hydrogen storage approach for 5MW micro-power generator using wind turbines. In Bourkas P, editor, Proceedings of the tenth IASTED European conference on power and energy systems . Anaheim, CA: ACTA Press. 2011. p. 267-273 https://doi.org/10.2316/P.2011.714-128
Yu, Shuang ; Mays, Tim J. ; Dunn, Roderick W. / Long-term hydrogen storage approach for 5MW micro-power generator using wind turbines. Proceedings of the tenth IASTED European conference on power and energy systems . editor / P Bourkas. Anaheim, CA : ACTA Press, 2011. pp. 267-273
@inproceedings{f987f2798c4244daac0994b13aa73642,
title = "Long-term hydrogen storage approach for 5MW micro-power generator using wind turbines",
abstract = "Wind energy is difficult to use due to its stochastic variability, whereas energy storage can reduce the variability to allow it to match energy demand. In this procedure, energy storage can play an important role in balancing the difference between wind generation and energy demand to maximize the utilization of wind power. This paper tries to shift energy from windier times to less windy times throughout an entire year to make wind generation completely match the load in the whole year with the assistance of energy storage. In order to achieve this target, this research did the following major tasks: i) Develop a time dependant model of energy losses considering the initial efficiency of three energy storage approaches, i.e. Flywheels, sodium-sulfur (NaS) batteries, and Hydrogen storage; ii) Chose an appropriate storage approach for this study in terms of energy loss; iii) Investigate the dynamics and cycle time of the chosen energy storage and recovery mechanism; iv) Improve the efficiency and reduce the costs of the chosen storage method by introducing hydrogen-fuelled combined-cycle gas turbine (H2-CCGT). The proposed approach was demonstrated and tested on a small local distribution system taken from the UK's distribution system. The results illustrate that in the long-term Hydrogen storage is the most efficient method for balancing the wind energy and demand.",
author = "Shuang Yu and Mays, {Tim J.} and Dunn, {Roderick W.}",
year = "2011",
doi = "10.2316/P.2011.714-128",
language = "English",
isbn = "9780889868922",
pages = "267--273",
editor = "P Bourkas",
booktitle = "Proceedings of the tenth IASTED European conference on power and energy systems",
publisher = "ACTA Press",
address = "Canada",

}

TY - GEN

T1 - Long-term hydrogen storage approach for 5MW micro-power generator using wind turbines

AU - Yu, Shuang

AU - Mays, Tim J.

AU - Dunn, Roderick W.

PY - 2011

Y1 - 2011

N2 - Wind energy is difficult to use due to its stochastic variability, whereas energy storage can reduce the variability to allow it to match energy demand. In this procedure, energy storage can play an important role in balancing the difference between wind generation and energy demand to maximize the utilization of wind power. This paper tries to shift energy from windier times to less windy times throughout an entire year to make wind generation completely match the load in the whole year with the assistance of energy storage. In order to achieve this target, this research did the following major tasks: i) Develop a time dependant model of energy losses considering the initial efficiency of three energy storage approaches, i.e. Flywheels, sodium-sulfur (NaS) batteries, and Hydrogen storage; ii) Chose an appropriate storage approach for this study in terms of energy loss; iii) Investigate the dynamics and cycle time of the chosen energy storage and recovery mechanism; iv) Improve the efficiency and reduce the costs of the chosen storage method by introducing hydrogen-fuelled combined-cycle gas turbine (H2-CCGT). The proposed approach was demonstrated and tested on a small local distribution system taken from the UK's distribution system. The results illustrate that in the long-term Hydrogen storage is the most efficient method for balancing the wind energy and demand.

AB - Wind energy is difficult to use due to its stochastic variability, whereas energy storage can reduce the variability to allow it to match energy demand. In this procedure, energy storage can play an important role in balancing the difference between wind generation and energy demand to maximize the utilization of wind power. This paper tries to shift energy from windier times to less windy times throughout an entire year to make wind generation completely match the load in the whole year with the assistance of energy storage. In order to achieve this target, this research did the following major tasks: i) Develop a time dependant model of energy losses considering the initial efficiency of three energy storage approaches, i.e. Flywheels, sodium-sulfur (NaS) batteries, and Hydrogen storage; ii) Chose an appropriate storage approach for this study in terms of energy loss; iii) Investigate the dynamics and cycle time of the chosen energy storage and recovery mechanism; iv) Improve the efficiency and reduce the costs of the chosen storage method by introducing hydrogen-fuelled combined-cycle gas turbine (H2-CCGT). The proposed approach was demonstrated and tested on a small local distribution system taken from the UK's distribution system. The results illustrate that in the long-term Hydrogen storage is the most efficient method for balancing the wind energy and demand.

UR - http://dx.doi.org/10.2316/P.2011.714-128

U2 - 10.2316/P.2011.714-128

DO - 10.2316/P.2011.714-128

M3 - Conference contribution

SN - 9780889868922

SP - 267

EP - 273

BT - Proceedings of the tenth IASTED European conference on power and energy systems

A2 - Bourkas, P

PB - ACTA Press

CY - Anaheim, CA

ER -