IEEE Transactions on Power Systems · 2020 · 39 citations · 40 references
Mathematical ProgrammingEngineeringEnergy EfficiencyClass Allocation ComponentClass-driven ApproachUncertainty ModelingPower MarketData ScienceUncertainty QuantificationSystems EngineeringScenario ReductionStatisticsQuantitative ManagementEnergy Demand ManagementPredictive AnalyticsEnergy ForecastingComputer EngineeringUncertainty CharacterizationComputer ScienceForecastingEnergy PredictionElectricity MarketSmart GridEnergy ManagementBusinessAutomated Reduction MethodDemand Response
Uncertainty characterization is an essential component of decision-making problems in electricity markets. In this work, a class-driven approach is proposed to describe stochasticity. The methodology consists of a three-step process that includes a class allocation component, a generative element based on a long short-term memory neural network and an automated reduction method with a variance-based continuation criterion. The system is employed and evaluated on Dutch imbalance market prices. Test results are presented, expressing the proficiency of the approach, both in generating realistic scenario sets that reflect the erratic dynamics in the data and adequately reducing generated sets without the need to explicitly and manually predetermine the cardinality of the reduced set.
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