DocumentCode :
1759575
Title :
Demand Response Mismatch (DRM): Concept, Impact Analysis, and Solution
Author :
Rahiman, Fazil Abdul ; Zeineldin, H.H. ; Khadkikar, Vinod ; Kennedy, Scott W. ; Pandi, V. Ravikumar
Author_Institution :
Inst. center of Energy, Masdar Inst. of Sci. & Technol., Abu Dhabi, United Arab Emirates
Volume :
5
Issue :
4
fYear :
2014
fDate :
41821
Firstpage :
1734
Lastpage :
1743
Abstract :
Demand response (DR) is emerging as one of the key smart grid components that plays a major role in achieving adequate supply-demand balance. DR is often considered as a market resource and thus there is more focus in the literature on economic aspects, thereby neglecting the DR´s interaction and impact on the power system operation. This paper identifies a potential gap while employing DR in distribution systems. Usually, the load reactive power and the load´s voltage dependency are ignored in the DR studies. It is shown in this paper that the inclusion of these two elements results in an active power mismatch between the scheduled and the actually achieved DR. A new term that is capable of quantifying this mismatch is introduced and is termed as “demand response mismatch (DRM).” To overcome such problem, this paper proposes a mixed integer non linear program (MINLP) to find the optimal size and location of STATCOM and/or optimal transformer tap setting that can minimize the DRM. The phenomenon of DRM is illustrated using a standard 16-bus U.K. generic distribution system (UKGDS) while considering different load power factors, load reduction amounts, load models, as well as DR locations.
Keywords :
demand side management; distribution networks; integer programming; nonlinear programming; smart power grids; static VAr compensators; DRM; MINLP; STATCOM; UK generic distribution system; UKGDS; active power mismatch; demand response mismatch; distribution systems; load models; load power factors; load reactive power; load reduction amounts; market resource; mixed integer nonlinear program; power system operation; smart grid components; supply-demand balance; transformer tap setting; Automatic voltage control; Load management; Load modeling; Reactive power; Smart grids; Demand response (DR); load flow; reactive power control; voltage control;
fLanguage :
English
Journal_Title :
Smart Grid, IEEE Transactions on
Publisher :
ieee
ISSN :
1949-3053
Type :
jour
DOI :
10.1109/TSG.2014.2309995
Filename :
6805666
Link To Document :
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