Comparative analyses of seven technologies to facilitate the integration of fluctuating renewable energy sources
Comparative analyses of seven technologies to facilitate the integration of fluctuating renewable energy sources
- Author(s): B.V. Mathiesen and H. Lund
- DOI: 10.1049/iet-rpg:20080049
For access to this article, please select a purchase option:
Buy article PDF
Buy Knowledge Pack
IET members benefit from discounts to all IET publications and free access to E&T Magazine. If you are an IET member, log in to your account and the discounts will automatically be applied.
Thank you
Your recommendation has been sent to your librarian.
- Author(s): B.V. Mathiesen 1 and H. Lund 1
-
-
View affiliations
-
Affiliations:
1: Department of Development and Planning, Aalborg University, Aalborg, Denmark
-
Affiliations:
1: Department of Development and Planning, Aalborg University, Aalborg, Denmark
- Source:
Volume 3, Issue 2,
June 2009,
p.
190 – 204
DOI: 10.1049/iet-rpg:20080049 , Print ISSN 1752-1416, Online ISSN 1752-1424
An analysis of seven different technologies is presented. The technologies integrate fluctuating renewable energy sources (RES) such as wind power production into the electricity supply, and the Danish energy system is used as a case. Comprehensive hour-by-hour energy system analyses are conducted of a complete system meeting electricity, heat and transport demands, and including RES, power plants, and combined heat and power production (CHP) for district heating and transport technologies. In conclusion, the most fuel-efficient and least-cost technologies are identified through energy system and feasibility analyses. Large-scale heat pumps prove to be especially promising as they efficiently reduce the production of excess electricity. Flexible electricity demand and electric boilers are low-cost solutions, but their improvement of fuel efficiency is rather limited. Battery electric vehicles constitute the most promising transport integration technology compared with hydrogen fuel cell vehicles (HFCVs). The costs of integrating RES with electrolysers for HFCVs, CHP and micro fuel cell CHP are reduced significantly with more than 50% of RES.
Inspec keywords: fuel cell vehicles; boilers; renewable energy sources; cogeneration; battery powered vehicles
Other keywords:
Subjects: Fuel cells; Thermal power stations and plants; Transportation; Energy resources
References
-
-
1)
- T.F. El Shatter , M.N. Eskandar , M.T. El Hagry . Hybrid PV/fuel cell system design and simulation. Renew. Energy , 3 , 479 - 485
-
2)
- H. Lund , E. Münster . Modelling of energy systems with a high percentage of CHP and wind power. Renew. Energy , 2179 - 2193
-
3)
- P.A. Østergaard . Ancillary services and the integration of substantial quantities of wind power. Appl. Energy , 5 , 451 - 463
-
4)
- H. Lund . Choice awareness: the development of technological and institutional choice in the public debate of Danish energy planning. J. Environ. Policy Plan. , 3 , 249 - 259
-
5)
- H. Lund . Excess electricity diagrams and the integration of renewable energy. Int. J. Sustain. Energy , 4 , 149 - 156
-
6)
- M.B. Blarke , H. Lund . Large-scale heat pumps in sustainable energy systems: system and project perspectives. Thermal Sci. , 3 , 143 - 152
-
7)
- K. Karlsson , P. Meibom . Optimal investment paths for future renewable based energy systems-using the optimisation model Balmorel. Int. J. Hydrogen Energy , 7 , 1777 - 1787
-
8)
- B.C. Ummels , E. Pelgrum , W. Kling . Integration of large-scale wind power and use of energy storage in the Netherlands. IET Renew. Power Gener. , 1 , 34 - 46
-
9)
- H. Lund . Large-scale integration of wind power into different energy systems. Energy , 2402 - 2412
-
10)
- V. Akhmatov , C. Rasmussen , P.B. Eriksen , J. Pedersen . Technical aspects of status and expected future trends for wind power in Denmark. Wind Energy , 1 , 31 - 49
-
11)
- R. Barth , H. Brand , D.J. Swider , C. Weber , P. Meibom . Regional electricity price differences due to intermittent wind power in Germany: impact of extended transmission and storage capacities. Int. J. Glob. Energy Issues , 276 - 297
-
12)
- H. Lund , W. Kempton . Integration of renewable energy into the transport and electricity sectors through V2G. Energy Policy , 9 , 3578 - 3587
-
13)
- Mathiesen, B.V., Lund, H.: ‘Fuel-efficiency of hydrogen and heat storage technologies for integration of fluctuating renewable energy sources’. St. Petersburg, Energy Systems Institute, St. Petersburg Polytechnical University, IEEE St. Petersburg PowerTech 2005, 2005.
-
14)
- G. Salgi , H. Lund . System behaviour of compressed-air energy-storage in Denmark with a high penetration of renewable energy sources. Appl. Energy , 4 , 182 - 189
-
15)
- P. Meibom , J. Kiviluoma , R. Barth . Value of electric heat boilers and heat pumps for wind power integration. Wind Energy , 321 - 337
-
16)
- H. Lund , E. Munster . Integrated energy systems and local energy markets. Energy Policy , 10 , 1152 - 1160
-
17)
- P.A. Østergaard . Modelling grid losses and the geographic distribution of electricity generation. Renew. Energy , 7 , 977 - 987
-
18)
- Edwards, R., Larivé, J.-F., Mahieu, V., Rouveirolles, P.: `Well-to-wheels analysis of future automotive fuels and powertrains in the european context', CONCAWE, European Council for Automotive R&D, JRC Joint Research Centre of the European Commission, Version 2c, March 2007.
-
19)
- Lund, H.: ‘EnergyPLAN – advanced energy systems analysis computer model – Documentation Version 7.0 – http://www.energyPLAN.eu’, Aalborg University, Aalborg, Denmark, March 2007.
-
20)
- M.T. Iqbal . Simulation of a small wind fuel cell hybrid energy system. Renew. Energy , 4 , 511 - 522
-
21)
- F. Hvelplund , H. Lund . Rebuilding without restructuring the energy system in east Germany. Energy Policy , 7 , 535 - 546
-
22)
- R.K. Ahluwalia , X. Wang , A. Rousseau , R. Kumar . Fuel economy of hydrogen fuel cell vehicles. J. Power Sources , 192 - 201
-
23)
- B.V. Mathiesen , H. Lund , P. Norgaard . Integrated transport and renewable energy systems. Util. Policy , 2 , 107 - 116
-
24)
- Lund, H., Mathiesen, B.V.: ‘Ingeniørforeningens Energiplan 2030 – opdaterede samfundsøkonomiske beregninger (Danish Society of Engineers’ Energy Plan 2030 – updated socio-economic calculations)', Danish Society of Engineers (Ingeniørforeningen Danmark), Copenhagen, May 2008.
-
25)
- Danish Energy Authority: ‘Prisfølsomt elforbrug i det danske elsystem (Price sensitive electricity consumptions in Denmark)’, Energistyrelsen (Danish Energy Authority), Copenhagen, Denmark, November 2006.
-
26)
- B. Sørensen , A.H. Petersen , C. Juhl . Hydrogen as an energy carrier: scenarios for future use of hydrogen in the Danish energy system. Int. J. Hydrogen Energy , 1 , 23 - 32
-
27)
- Ea Energy Analyses: ‘50 pct. vindkraft i Danmark i 2025 – en teknisk-økonomisk analyse (50% wind power in Denmark in 2025 – a techno-economic analysis), ‘Ea Energy Analyses, Copenhagen, May 2007.
-
28)
- G. Salgi , B. Donslund , P.A. Østergaard . Energy system analysis of utilizing hydrogen as an energy carrier for wind power in the transportation sector in Western Denmark. Util. Policy , 2 , 99 - 106
-
29)
- D. Sukkumnoed . Distributed generation and centralized power system in Thailand: conflicts and solutions. Int. J. Sustain. Energy , 4 , 199 - 206
-
30)
- Lund, H., Mathiesen B.V.: ‘Ingeniørforeningens Energiplan 2030 – Tekniske energisystemanalyser, samfundsøkonomisk konsekvensvurdering og kvantificering af erhvervspotentialer. Baggrundsrapport (Danish Society of Engineers’ Energy Plan 2030)', Danish Society of Engineers (Ingeniørforeningen Danmark), Copenhagen, December 2006.
-
31)
- R. Hammerschlag , P. Mazza . Questioning hydrogen. Energy Policy , 16 , 2039 - 2043
-
32)
- F. Barbir . PEM electrolysis for production of hydrogen from renewable energy sources. Solar Energy , 5 , 661 - 669
-
33)
- M. Little , M. Thomson , D. Infield . Electrical integration of renewable energy into stand-alone power supplies incorporating hydrogen storage. Int. J. Hydrog. Energy , 1582 - 1588
-
34)
- W. Kempton , J. Tomic . Vehicle-to-grid power implementation: from stabilizing the grid to supporting large-scale renewable energy. J. Power Sources , 1 , 280 - 294
-
35)
- M. Münster . Use of waste for heat, electricity and transport – challenges when performing energy system analysis. Energy
-
36)
- Danish Energy Authority, Elkraft System, and eltra, ‘Technology Data for Electricity and Heat Generation Plants’, Energistyrelsen (Danish Energy Authority), Copenhagen, Denmark, March 2005.
-
37)
- T. Kato , M. Kubota , N. Kobayashi , Y. Suzuoki . Effective utilization of by-product oxygen from electrolysis hydrogen production. Energy , 14 , 2580 - 2595
-
38)
- H. Lund , B.V. Mathiesen . Energy system analysis of 100% renewable energy systems – the case of Denmark in years 2030 and 2050. Energy
-
39)
- A.D. Hawkes , P. Aguiar , C.A. Hernandez-Aramburo . Techno-economic modelling of a solid oxide fuel cell stack for micro combined heat and power. J. Power Sources , 2 , 321 - 333
-
40)
- A.N. Celik . A simplified model for estimating the monthly performance of autonomous wind energy systems with battery storage. Renew. Energy , 4 , 561 - 572
-
41)
- Ministry of Transport and Energy: ‘Energy Strategy 2025 – Perspectives to 2025 and Draft action plan for the future electricity infrastructure’, Ministry of Transport and Energy, Copenhagen, November 2005.
-
42)
- Weiss, M.A., Heywood, J.B., Schafer, A., Natarajan, V.K.: `Comparative assessment of fuel cell cars', MIT LFEE 2003-001 RP, February 2003.
-
43)
- W. Clark , W. Isherwood . Distributed generation: remote power systems with advanced storage technologies. Energy Policy , 14 , 1573 - 1589
-
44)
- (2002) Directive COM/2002/0415 of the European Parliament and of the Council on the promotion of cogeneration based on a useful heat demand in the internal energy market.
-
45)
- H. Lund , E. Munster . Integrated transportation and energy sector CO2 emission control strategies. Transp. Policy , 5 , 426 - 433
-
46)
- E.P. Da Silva , A.J. Marin Neto , P.F.P. Ferreira , J.C. Camargo , F.R. Apolinario , C.S. Pinto . Analysis of hydrogen production from combined photovoltaics, wind energy and secondary hydroelectricity supply in Brazil. Solar Energy , 5 , 670 - 677
-
1)