Concepts for Automated Machine Learning in Smart Grid Applications
Stefan Meisenbacher, Janik Pinter, Tim Martin, Veit Hagenmeyer, Ralf, Mikut

TL;DR
This paper discusses the development of automated machine learning concepts tailored for smart grid applications, aiming to reduce human effort in designing and deploying energy system models amidst increasing data availability.
Contribution
It introduces a framework defining five levels of automation for machine learning in energy forecasting, aligned with SAE standards, to streamline model development and application.
Findings
Proposes a structured automation framework for energy forecasting models.
Identifies five levels of automation to guide implementation.
Highlights potential for reducing manual effort in energy system modeling.
Abstract
Undoubtedly, the increase of available data and competitive machine learning algorithms has boosted the popularity of data-driven modeling in energy systems. Applications are forecasts for renewable energy generation and energy consumption. Forecasts are elementary for sector coupling, where energy-consuming sectors are interconnected with the power-generating sector to address electricity storage challenges by adding flexibility to the power system. However, the large-scale application of machine learning methods in energy systems is impaired by the need for expert knowledge, which covers machine learning expertise and a profound understanding of the application's process. The process knowledge is required for the problem formalization, as well as the model validation and application. The machine learning skills include the processing steps of i) data pre-processing, ii) feature…
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Taxonomy
TopicsEnergy Load and Power Forecasting · Traffic Prediction and Management Techniques · Computational Physics and Python Applications
