Sustainability · 2020 · 77 citations · 31 references
ComputingComputer ScienceData ScienceArtificial IntelligenceInternet Of ThingsMachine LearningEnergy Demand ForecastingEnergy UseForecasting For Renewable GenerationIot AnalyticsRenewable EnergySensor NetworksAgenda 2030Energy PredictionMachine Learning For IotOpen Data AdoptionPower OutputRenewable Energy ForecastingRenewable ForecastingSolar Power Forecasting
With climate change driving an increasingly stronger influence over governments and municipalities, sustainable development, and renewable energy are gaining traction across the globe. This is reflected within the EU 2030 agenda, that envisions a future where there is universal access to affordable, reliable and sustainable energy. One of the challenges to achieve this vision lies on the low reliability of certain renewable sources. While both particulars and public entities try to reach self-sufficiency through sustainable energy generation, it is unclear how much investment is needed to mitigate the unreliability introduced by natural factors such as varying wind speed and daylight across the year. In this sense, a tool that aids predicting the energy output of sustainable sources across the year for a particular location can aid greatly in making sustainable energy investments more efficient. In this paper, we make use of Open Data sources, Internet of Things (IoT) sensors and installations distributed across Europe to create such tool through the application of Artificial Neural Networks. We analyze how the different factors affect the prediction of energy production and how Open Data can be used to predict the expected output of sustainable sources. As a result, we facilitate users the necessary information to decide how much they wish to invest according to the desired energy output for their particular location. Compared to state-of-the-art proposals, our solution provides an abstraction layer focused on energy production, rather that radiation data, and can be trained and tailored for different locations using Open Data. Finally, our tests show that our proposal improves the accuracy of the forecasting, obtaining a lower mean squared error (MSE) of 0.040 compared to an MSE 0.055 from other proposals in the literature.
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Another look at measures of forecast accuracy
Rob J. Hyndman, Anne B. Koehler · International Journal of Forecasting · 2006 · 5.3K citations
Computing, Mathematics, Meteorology +16
Photovoltaic and solar power forecasting for smart grid energy management
Can Wan, Jian Zhao, Yonghua Song et al. · CSEE Journal of Power and Energy Systems · 2015 · 632 citations · Full text