Deep Learning-Based Electricity Price Forecast for Virtual Bidding in Wholesale Electricity Market
Xuesong Wang, Sharaf K. Magableh, Oraib Dawaghreh, Caisheng Wang,, Jiaxuan Gong, Zhongyang Zhao, Michael H. Liao

TL;DR
This paper introduces a Transformer-based deep learning model to accurately forecast electricity price spreads in wholesale markets, aiding virtual bidders in maximizing profits amidst increasing renewable energy volatility.
Contribution
It presents a novel Transformer-based forecasting approach incorporating multiple time-series features and evaluates trading strategies from a virtual bidder's perspective.
Findings
Peak-hour trading strategy yields over 50% precision.
The model maintains nearly consistent profits in backtests.
Accurate price forecasting enhances virtual bidding profitability.
Abstract
Virtual bidding plays an important role in two-settlement electric power markets, as it can reduce discrepancies between day-ahead and real-time markets. Renewable energy penetration increases volatility in electricity prices, making accurate forecasting critical for virtual bidders, reducing uncertainty and maximizing profits. This study presents a Transformer-based deep learning model to forecast the price spread between real-time and day-ahead electricity prices in the ERCOT (Electric Reliability Council of Texas) market. The proposed model leverages various time-series features, including load forecasts, solar and wind generation forecasts, and temporal attributes. The model is trained under realistic constraints and validated using a walk-forward approach by updating the model every week. Based on the price spread prediction results, several trading strategies are proposed and the…
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Taxonomy
TopicsEnergy Load and Power Forecasting
