We got the power: Predicting available capacity for vehicle-to-grid services using a deep recurrent neural network

Vehicle-to-grid (V2G) services utilise a population of electric vehicle batteries to provide the aggregated capacity required to participate in power and energy markets. Such participation relies on the prediction of available capacity to support the reliable delivery of agreed reserves at a future...

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Veröffentlicht in:Energy (Oxford) 2021-04, Vol.221, p.119813, Article 119813
Hauptverfasser: Shipman, Rob, Roberts, Rebecca, Waldron, Julie, Naylor, Sophie, Pinchin, James, Rodrigues, Lucelia, Gillott, Mark
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container_start_page 119813
container_title Energy (Oxford)
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creator Shipman, Rob
Roberts, Rebecca
Waldron, Julie
Naylor, Sophie
Pinchin, James
Rodrigues, Lucelia
Gillott, Mark
description Vehicle-to-grid (V2G) services utilise a population of electric vehicle batteries to provide the aggregated capacity required to participate in power and energy markets. Such participation relies on the prediction of available capacity to support the reliable delivery of agreed reserves at a future time. In this work real historical trip data from a fleet of vehicles belonging to the University of Nottingham was used and a simulation developed to show how battery state-of-charge and available capacity would vary if these trips were taken in electric vehicles that were charged at simulated charging station locations. A time series forecasting neural network was developed to predict aggregated available capacity for the next 24-h period given input data from the previous 24 h and its increased predictive capability over a regression model trained using automated machine learning was demonstrated. The simulations were then extended to include delivery of reserves to satisfy the needs of simulated market events and the ability of the model to successfully adapt its predictions to such events was demonstrated. The authors conclude that this ability is of critical importance to the viability and success of future V2G services by supporting trading and vehicle utilisation decisions for multiple market events. •CNN-LSTM neural network accurately predicts available capacity from a vehicle fleet.•Deviations in typical patterns of available capacity are predicted over a short horizon.•Model predicts the impact of exporting energy as part of a simulated V2G service.•Prediction accuracy reduces as prediction horizon increases.•Multivariate input improves accuracy for longer-term prediction horizons.
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source Elsevier ScienceDirect Journals
subjects automation
Batteries
CNN-LSTM network
Deep learning
Electric vehicle charging
Electric vehicles
energy
Learning algorithms
Machine learning
markets
Neural networks
prediction
Recurrent neural networks
regression analysis
Regression models
Reserves
Simulation
time series analysis
V2G
Vehicle-to-grid
viability
title We got the power: Predicting available capacity for vehicle-to-grid services using a deep recurrent neural network
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