DocumentCode :
1418488
Title :
Including a DC network approximation in a multiarea probabilistic production costing model
Author :
Ji, Yuandong ; Hobbs, Benjamin F.
Author_Institution :
Operations Simulation Associates, Ringgold, GA, USA
Volume :
13
Issue :
3
fYear :
1998
fDate :
8/1/1998 12:00:00 AM
Firstpage :
1121
Lastpage :
1127
Abstract :
A multiarea power system consists of several areas (subsystems) interconnected by a transmission network. In estimating expected generation costs for such systems, transmission capacity limits of the network should be recognized. Transportation network models have generally been used because of their simplicity, but they only enforce Kirchhoff´s current law. AC power flow modeling of the transmission network, which recognizes thermal, voltage and stability constraints, is theoretically best, but is too unwieldy for assessing expected costs. The so-called “DC” linearized network model is adopted here as a compromise, as it enforces both Kirchhoff´s current and voltage laws while its linearity facilitates incorporation in probabilistic production costing models. In this paper, the authors generalize a bounding-based multiarea probabilistic production costing model to include loop flow and resistance losses based on the DC network model. This is the first multiarea model based on efficient convolution methods for production costing that also includes loop flows and resistance losses. Computational examples are presented to highlight the modeling and solution procedures
Keywords :
approximation theory; costing; economics; load flow; power system interconnection; probability; transmission network calculations; DC linearized network model; DC network approximation; Kirchhoff´s laws; efficient convolution methods; expected generation costs; loop flow; multi-area power systems; probabilistic production costing; resistance losses; transmission capacity limits; transmission network; Costing; Costs; Kirchhoff´s Law; Load flow; Power system interconnection; Power system modeling; Production; Thermal stability; Transportation; Voltage;
fLanguage :
English
Journal_Title :
Power Systems, IEEE Transactions on
Publisher :
ieee
ISSN :
0885-8950
Type :
jour
DOI :
10.1109/59.709109
Filename :
709109
Link To Document :
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