A Market Mechanism for Trading Flexibility Between Interconnected Electricity Markets
Hossein Khazaei, Ceyhun Eksin, Roohallah Khatami, Alfredo Garcia

TL;DR
This paper introduces a decentralized market mechanism for trading flexibility between interconnected electricity markets, enabling efficient and reliable power flow management through iterative information exchange and local optimization.
Contribution
It proposes a novel decentralized market mechanism that converges to a Nash equilibrium, ensuring efficient flexibility trading across interconnected markets.
Findings
Mechanism converges to a Nash equilibrium.
Equilibrium corresponds to an efficient market clearing solution.
Demonstrated on IEEE Reliability Test System.
Abstract
Electricity markets differ in their ability to meet power imbalances in short notice in a controlled fashion. Relatively flexible markets have the ability to ramp up (or down) power flows across interties without compromising their ability to reliably meet internal demand. In this paper, a market mechanism to enable flexibility trading amongst market operators is introduced. In the proposed market mechanism, market operators exchange information regarding optimal terms of trade (nodal prices and flows) along interconnection lines at every trading round. Equipped with this information, each market operator then independently solves its own internal chance-constrained economic dispatch problem and broadcasts the updated optimal terms of trade for flows across markets. We show the proposed decentralized market mechanism for flexibility trading converges to a Nash equilibrium of the…
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Taxonomy
TopicsElectric Power System Optimization · Optimal Power Flow Distribution · Smart Grid Energy Management
