DocumentCode :
725560
Title :
Computational methods for technical validation of demand response products
Author :
Paoletti, Simone ; Vicino, Antonio ; Zarrilli, Donato
Author_Institution :
Dipt. di Ing. dell´Inf. e Sci. Matematiche, Univ. di Siena, Siena, Italy
fYear :
2015
fDate :
10-13 June 2015
Firstpage :
117
Lastpage :
122
Abstract :
Active demand (AD) represents a demand response scenario in which households and small commercial consumers participate in the grid management through appropriate modifications of their consumption patterns during certain time periods in return of a monetary reward. The participation is mediated by a new player, called aggregator, who gathers the flexibilities provided by its pool of subscribers to build up AD products. These are offered to energy system participants through various markets. After market closure, the role of the distribution system operator is to perform technical validation of AD products by checking their compatibility with network constraints and operation. Computational methods for accomplishing this task are described in this paper. First, technical validation is formulated as an optimal power flow (OPF) problem with the objective to minimize the curtailment of the AD products. Then, specific cases allowing for an exact solution of the OPF problem through bisection are described. Recently proposed convex relaxations can be exploited to tackle the OPF problem in general cases.
Keywords :
demand side management; distribution networks; load flow; power grids; AD products; OPF problem; active demand; aggregator; computational methods; consumption patterns; convex relaxations; demand response products; distribution system operator; energy system participants; grid management; household consumers; monetary reward; network constraints; network operation; optimal power flow problem; small commercial consumers; technical validation; Distributed power generation; Forecasting; Load management; Optimization; Reactive power; Smart grids; Solids; Demand response; distribution system operator; optimal power flow;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Environment and Electrical Engineering (EEEIC), 2015 IEEE 15th International Conference on
Conference_Location :
Rome
Print_ISBN :
978-1-4799-7992-9
Type :
conf
DOI :
10.1109/EEEIC.2015.7165485
Filename :
7165485
Link To Document :
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