Dispatch modeling of a regional power generation system - Integrating wind power

Renewable Energy

Volumn 34, Issue 4, 2009, Pages 1040-1049

  Göransson, Lisa ^a   Johnsson, Filip ^a  

^a CHALMERS UNIVERSITY OF TECHNOLOGY   (Sweden)

Author keywords

Dispatch; Generation; Integration; Modeling; Wind power

Indexed keywords

COSTS; ELECTRIC POWER GENERATION; ELECTRIC POWER PLANTS; ELECTRIC POWER SYSTEMS; INTEGER PROGRAMMING; INTEGRATION; PLASMA WAVES; RENEWABLE ENERGY RESOURCES; THERMOELECTRIC POWER PLANTS; WIND EFFECTS; WIND POWER;

BASE LOADS; CAPACITY FACTORS; CASE STUDIES; DENMARK; DISPATCH; DISPATCH STRATEGIES; ELECTRICITY GRID SYSTEMS; GENERATING UNITS; GENERATION; GENERATION SYSTEMS; LOAD LEVELS; MIXED INTEGER PROGRAMMINGS; MODELING; MODELING TOOLS; POWER INTEGRATIONS; POWER SYSTEMS; POWER VARIATIONS; PRODUCTION PATTERNS; RUNNING COSTS; SIGNIFICANT IMPACTS; START-UP; SYSTEM COSTS; THERMAL POWER PLANTS; TOTAL COSTS; TOTAL EMISSIONS; WIND POWER GENERATIONS; WIND POWER PRODUCTIONS;

POWER PLANTS;

ELECTRICITY GENERATION; POWER GENERATION; THERMAL POWER; WIND POWER;

EID: 56049126611     PISSN: 09601481     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.renene.2008.08.002     Document Type: Article

References (17)

1. Eriksen P.B., Ackermann T., Abildgaard H., Smith P., Winter W., and Rodriquez Garcia J.M. System operation with high wind penetration. IEEE Power and Energy Magazine 3 6 (2005) 65-74
2. Eltra. PUDDEL projektet slutrapport; 2005.
3. Lund H., and Munster E. Modelling of energy systems with a high percentage of CHP and wind power. Renewable Energy 28 14 (2003) 2179-2193
4. Jaramillo O.A., Borja M.A., and Huacuz J.M. Using hydropower to complement wind energy: A hybrid system to provide firm power. Renewable Energy 29 11 (2004) 1887-1909
5. Castronuovoa E., and Lopes J.P. Optimal operation and hydro storage sizing of a wind-hydro power plant. Electrical Power and Energy Systems 26 (2004) 771-778
6. Greenblatt J.B., Succar S., Denkenberger D.C., Williams R.H., and Socolow R.H. Base load wind energy: modeling the competition between gas turbines and compressed air energy storage for supplemental generation. Energy Policy 35 (2007) 1474-1492
7. Cavallo A. Controllable and affordable utility-scale electricity from intermittent wind resources and compressed air energy storage (CAES). Energy 32 2 (2007) 120-127
8. Eriksen P.B. Economic and environmental dispatch of power/CHP production systems. Electric Power Systems Research 57 1 (2001) 33-39
9. Meibom P., Weber C., Barth R., and Brand H. Operational costs induced by fluctuating wind power production in Germany and Scandinavia (2007), Riso
10. Denny E., and O'Malley M. Quantifying the total net benefits of grid integrated wind. IEEE Transactions on Power Systems 22 2 (2007) 605-615
11. Gross R., Heptonstall P., Andersson D., Green T., Leach M., and Skea J. The costs and impacts of intermittency (2006), UKERC, London Imperial College
12. Schaeffer P., and Cherene L. The inclusion of "spinning reserves" in investment and simulation models for electricity generation. European Journal of Operational Research 42 (1989) 178-189
13. Nordel. Operation performance specifications for thermal power units larger than 100 MW (1995), Nordel
14. EA Energy Analyses 50% Wind power in western Denmark in 2025; 2007.
15. Holttinen H, Pedersen J. The effect of large-scale wind power on a thermal system operation. In: Proceedings of the fourth international workshop on large-scale integration of wind power and transmission networks for offshore wind farms, Billund, Denmark; 2003.
16. Energinet (2006). www.energinet.dk
17. Nordpool (2007). www.nordpool.com