For energy communities with under six months of data, persistence forecasting beats deep learning, and KNN achieves nearly the same battery cost savings as the best neural network.
Improve Load Forecasting in Energy Communities through Transfer Learning using Open-Access Synthetic Profiles
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abstract
According to a conservative estimate, a 1% reduction in forecast error for a 10 GW energy utility can save up to $ 1.6 million annually. In our context, achieving precise forecasts of future power consumption is crucial for operating flexible energy assets using model predictive control approaches. Specifically, this work focuses on the load profile forecast of a first-year energy community with the common practical challenge of limited historical data availability. We propose to pre-train the load prediction models with open-access synthetic load profiles using transfer learning techniques to tackle this challenge. Results show that this approach improves both, the training stability and prediction error. In a test case with 74 households, the prediction mean squared error (MSE) decreased from 0.34 to 0.13, showing transfer learning based on synthetic load profiles to be a viable approach to compensate for a lack of historic data.
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cs.LG 1years
2025 1verdicts
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Load Forecasting for Households and Energy Communities: Are Deep Learning Models Worth the Effort?
For energy communities with under six months of data, persistence forecasting beats deep learning, and KNN achieves nearly the same battery cost savings as the best neural network.