A competition retrospective shows that hybrid AI/physics solvers can speed up power flow computation several-fold while remaining physically plausible, though the top speed-up of 7.87x missed the stated 10x target.
LEAP nets for power grid perturbations
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abstract
We propose a novel neural network embedding approach to model power transmission grids, in which high voltage lines are disconnected and reconnected with one-another from time to time, either accidentally or willfully. We call our architeture LEAP net, for Latent Encoding of Atypical Perturbation. Our method implements a form of transfer learning, permitting to train on a few source domains, then generalize to new target domains, without learning on any example of that domain. We evaluate the viability of this technique to rapidly assess cu-rative actions that human operators take in emergency situations, using real historical data, from the French high voltage power grid.
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Machine Learning for Physical Simulation Challenge Results and Retrospective Analysis: Power Grid Use Case
A competition retrospective shows that hybrid AI/physics solvers can speed up power flow computation several-fold while remaining physically plausible, though the top speed-up of 7.87x missed the stated 10x target.