Title :
Residential energy resource models for distribution feeder simulation
Author :
Guttromson, R.T. ; Chassin, D.P. ; Widergren, S.E.
Author_Institution :
Pacific Northwest Nat. Lab., Richland, WA, USA
Abstract :
Advances in information technology, ubiquitous communications, and distributed generation and storage reveal new opportunities for the participation of demand-side resources in balancing the physical and economic operation of electric power systems. To better understand the potential impact of this participation, accurate, detailed energy resource models are necessary at the distribution feeder level. This presentation describes a detailed approach to residential energy resource modeling that preserves the individual characteristics of major residential appliances and human behavior patterns so that their contribution to energy efficiency schemes and intelligent demand curtailment algorithms is properly portrayed. These models are derived from previous analyses of residential and commercial building systems supported by data collected from the end-use load and consumer assessment program (ELCAP) undertaken by the Bonneville power administration from 1983 to 1990. Preliminary results of using these models in distribution system simulations indicate that non-obvious, complex behavior patterns can emerge when consumers are confronted with varying price signals.
Keywords :
adaptive systems; domestic appliances; power distribution economics; power system simulation; power utilisation; Bonneville power administration; adaptive systems; commercial building systems; complexity theory; demand-side resources; distributed generation; distribution feeder simulation; electric power systems economic operation; end-use load and consumer assessment program; home appliances; human behavior patterns; information technology; intelligent demand curtailment algorithms; power distribution; power system simulation; residential energy resource modeling; residential energy resource models; ubiquitous communications; Distributed control; Energy efficiency; Energy resources; Home appliances; Humans; Information technology; Power generation economics; Power system economics; Power system modeling; Power system simulation;
Conference_Titel :
Power Engineering Society General Meeting, 2003, IEEE
Print_ISBN :
0-7803-7989-6
DOI :
10.1109/PES.2003.1267145