Artificial Neural Networks Proven to Speed Up Power Flow Calculations by up to 45x

Researchers at Universitat Politecnica de Catalunya have successfully utilized artificial neural networks (ANNs) and XGBoost techniques to simulate power flows in a medium-voltage grid in Norway with significant speed-up factors. This groundbreaking study, supported by the European Union, demonstrates the potential of machine learning (ML) models in managing power systems and ensuring reliability and efficiency.

Key Takeaways:

  • The research utilized a case study where ANNs and XGBoost were trained to simulate power flows in a medium-voltage grid in Norway, estimating the impact of battery energy storage systems (BESSs) on grid performance.
  • The proposed methodology can be used to assess the impact of other grid-connected assets, such as small-scale solar plants and electric vehicle chargers, on distribution networks.
  • The study proved that while ML models require considerable data and training time, they offer speed-up factors of up to 45x, depending on the predicted parameter.
  • The research highlighted the potential of machine learning (ML) models in managing power systems and ensuring reliability and efficiency.
  • The study presented a simulation of power flows in a medium-voltage grid in Norway, using thousands of configurations to demonstrate the speed-up factors of up to 45x.
  • The research suggested that the proposed methodology can be used to evaluate the effects of distributed energy resources on grid performance.

Statistics:

  • The speed-up factors of up to 45x were achieved by using ANNs and XGBoost techniques in simulating power flows in a medium-voltage grid in Norway.
  • The study used a case study with thousands of configurations to demonstrate the speed-up factors of the proposed methodology.
  • The research highlighted the potential of machine learning (ML) models in managing power systems, ensuring reliability, and increasing efficiency.

Sources:

  • Energies, "Evaluation of XGBoost and ANN as Surrogates for Power Flow Predictions with Dynamic Energy Storage Scenarios," 2025,18(16):4416. (Energies - http://www.mdpi.com/journal/energies).
  • DOI: https://doi.org/10.3390/en18164416.