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17 - The ADDRESS European Project: a large-scale R&D initiative for the development of active demand

from Part IV - Policy and regulation

Published online by Cambridge University Press:  05 March 2014

Tooraj Jamasb
Affiliation:
Heriot-Watt University, Edinburgh
Michael G. Pollitt
Affiliation:
University of Cambridge
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Summary

Introduction

In less than twenty years, we have seen tremendous changes in the demand mix worldwide spurred primarily by the dawn of the digital age with its ever more energy-hungry computers, server farms, telecommunication equipment, etc. The expected evolution in the electricity demand for the next 10–20 years is even more radical. While efficiencies in current electricity-using devices are expected to improve (e.g. lighting being the most prominent example), electricity demand has the potential to increase significantly because of the electrification of road transportation, combined with the demise of fossil fuels for space heating and the ever growing need for space cooling. Electricity is the energy carrier par excellence in a low-carbon world; therefore, demand for it will increase, if not significantly in the UK (see Ault et al., this volume), then certainly globally.

Electric power systems have been designed and built to allow for the supply side to follow demand quite well (aside from the rare blackout in most advanced countries). Currently, most low-carbon generation technologies (like wind power and even nuclear power stations) are not well suited to follow the constant fluctuations of demand. Hence, in a power system dominated by generally uncontrollable low-carbon generation, keeping the same operating paradigm may be increasingly unreliable and overly costly.

Type
Chapter
Information
The Future of Electricity Demand
Customers, Citizens and Loads
, pp. 423 - 444
Publisher: Cambridge University Press
Print publication year: 2011

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References

Belhomme, R.Cerero Real de Asua, R.Valtorta, G.Paice, A.Bouffard, F.Rooth, R.Losi, A. 2008 ADDRESS – Active demand for the smart grids of the futureProc. CIRED Seminar 2008: Smart Grids for DistributionPragueCzech Republic
Belhomme, R.Sebastian, M.Diop, A.Entem, M.Bouffard, F.Valtorta, G. 2009 ADDRESS technical and commercial architecture – core documentBrussels, BelgiumEuropean Commissionwww.addressfp7.org/config/files/ADD-WP1_Technical_and-Commercial_Architectures.pdf
Bouffard, F.Galiana, F.D. 2005 Generalized uplifts in pool-based electricity markets: coordinating time-dynamic marketsBoukas, E.KMalhamé, R.PAnalysis, Control and Optimization of Complex Dynamic Systems193New YorkSpringer
Bouffard, F.Gonzalez-Longatt, F.Su, C.-L.Jimeno, J.Laresgoiti, I.Noce, C.Russo, M. 2010 Application of the ADDRESS conceptual architecture in four specific scenariosBrussels, BelgiumEuropean Commissionwww.addressfp7.org/config/files/ADD-WP1_ADDRESS_scenarios-v1.0.pdf
Devine-Wright, H.Bouffard, F. 2010 Interview study of stakeholder beliefs about consumer benefits of active demandBrussels, BelgiumEuropean Commission
Kurucz, C.N.Brandt, D.Sim, S. 1996 A linear programming model for reducing system peak through customer load control programsIEEE Trans. Power Syst 11 1817Google Scholar
Lee, S.H.Wilkins, C.L. 1983 A practical approach to appliance load control analysis: a water heater case studyIEEE Trans. Power App. System 102 1007Google Scholar
Linares, P.Conchado, A. 2010 The economic impact of demand response programs on power systems. A survey of the state of the artPardalos, P.MPereira, M.V.FIliadis, N.ARebennack, S.Sorokin, A.Handbook of Networks in Power Systems: Optimization, Modeling, Simulation and Economic AspectsNew YorkSpringer
Ruiz, N.Cobelo, I.Oyarzabal, 2009 A direct load control model for virtual power plant managementIEEE Trans. Power Syst. 24 959Google Scholar
United States Department of Energy 2006 Benefits of Demand Response in Electricity Markets and Recommendations for Achieving ThemWashington, DC

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