3260 papers • 126 benchmarks • 313 datasets
energy management is to schedule energy units inside the systems, enabling an reliable, safe and cost-effective operation
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This paper proposes to present to the power systems forecasting practitioners a recent deep learning technique, the normalizing flows, to produce accurate scenario-based probabilistic forecasts that are crucial to face the new challenges in power systems applications.
A neural network capable of large-scale precipitation forecasting up to twelve hours ahead and, starting from the same atmospheric state, the model achieves greater skill than the state-of-the-art physics-based models HRRR and HREF that currently operate in the Continental United States.
An extremely fast online optimization method consisting of a feedforward neural network evaluation and a linear system solution where the matrix has already been factorized that allows us to significantly improve the computation time and resources needed to solve online mixed-integer optimization problems.
Since the voltages can only be enforced at the generator nodes, this work provides a novel condition to guarantee the uniqueness of the solution for load voltages and power injection of the generation units.
A methodology that enhances the existing Energy Star calculation method by increasing accuracy and providing additional model output processing to help explain why a building is achieving a particular score is proposed.
A novel approach that makes use of independent learners Deep Q-learning algorithm to solve the problem of energy management in microgrid networks in the framework of stochastic games is proposed.
This study models a representative building with a modulating air-sourced heat pump, a photovoltaic system, a battery, and thermal storage systems for floor heating and hot-water supply, and finds that the battery, naturally, is the essential building block for improving self-sufficiency.
A method for probabilistic load forecasting based on the adaptive online learning of hidden Markov models that can significantly improve the performance of existing techniques for a wide range of scenarios is presented.
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