A Decision-Focused Predict-then-Bid Framework for Strategic Energy Storage
Ming Yi, Yiqian Wu, Saud Alghumayjan, James Anderson, Bolun Xu

TL;DR
This paper presents a decision-focused predict-then-bid framework for energy storage arbitrage that integrates market prediction and optimization, significantly improving profit outcomes in electricity markets.
Contribution
It introduces a novel tri-layer end-to-end framework combining prediction and optimization for energy storage bidding, utilizing implicit function theorem and perturbation-based loss for differentiability.
Findings
Outperforms existing methods in profit maximization.
Effective integration of prediction and optimization layers.
Demonstrates success on New York electricity market data.
Abstract
This paper introduces a novel decision-focused framework for energy storage arbitrage bidding. Inspired by the bidding process for energy storage in electricity markets, we propose a predict-then-bid end-to-end method incorporating the storage arbitrage optimization and market clearing models. This is achieved through a tri-layer framework that combines a price prediction layer with a two-stage optimization problem: an energy storage optimization layer and a market-clearing optimization layer. We leverage the implicit function theorem for gradient computation in the first optimization layer and incorporate a perturbation-based approach into the decision-focused loss function to ensure differentiability in the market-clearing layer. Numerical experiments using electricity market data from New York demonstrate that our bidding design substantially outperforms existing methods, achieving…
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Taxonomy
TopicsSmart Grid Energy Management · Energy Load and Power Forecasting · Electric Power System Optimization
