A Hierarchical Price-Based Demand Response Framework in Distribution Network

In the evolving local retail electricity market hierarchy, demand response providers (DRPs) are becoming viable interlink for the interaction between distribution system operator (DSO) and customers in demand response (DR) assessment in distribution network. This hierarchical structure is rendered i...

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Veröffentlicht in:IEEE transactions on smart grid 2022-03, Vol.13 (2), p.1151-1164
Hauptverfasser: Pandey, Vipin Chandra, Gupta, Nikhil, Niazi, Khaleequr Rehman, Swarnkar, Anil, Thokar, Rayees Ahmad
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container_issue 2
container_start_page 1151
container_title IEEE transactions on smart grid
container_volume 13
creator Pandey, Vipin Chandra
Gupta, Nikhil
Niazi, Khaleequr Rehman
Swarnkar, Anil
Thokar, Rayees Ahmad
description In the evolving local retail electricity market hierarchy, demand response providers (DRPs) are becoming viable interlink for the interaction between distribution system operator (DSO) and customers in demand response (DR) assessment in distribution network. This hierarchical structure is rendered in price based DR and is suggested as the proposed study. It is formulated as a tri-level two-stage DR in a theoretic game framework using two-loop Stackelberg game. In first stage, DSO (leader) and DRPs (followers) interact to determine optimal dynamic retail price, while optimizing their interests independently and in second stage, DRP as leader sets its optimal dynamic price to the customers (followers) for inducing DR. The existence and uniqueness of Stackelberg equilibrium is confirmed using backward induction and validated the optimality theoretically. It is formulated as nonlinear program with the consideration of ac network operating constraints. A nested reformulation and decomposition algorithm as a solution method is designed and is implemented to solve the problem. It is illustrated on IEEE 33-bus and a real 108-bus Indian distribution system. The detailed numerical results demonstrate the effectiveness of the proposed model and, scalability and tractability of the algorithm to solve the large scale problem reasonably.
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subjects Algorithms
Customers
Demand response
Electric power demand
Game theory
Games
Indexes
Load flow
Load modeling
Mathematical models
nested reformulation & decomposition
Optimization
Pricing
Stackelberg game
Structural hierarchy
tri-level optimization
title A Hierarchical Price-Based Demand Response Framework in Distribution Network
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