Abstract

Accurate prediction from electricity demand models is helpful in controlling and optimizing building energy performance. The application of machine learning techniques to adjust the electrical consumption of buildings has been a growing trend in recent years. Battery management systems through the machine learning models allow a control of the supply, adapting the building demand to the possible changes that take place during the day, increasing the users’ comfort, and ensuring greenhouse gas emission reduction and an economic benefit. Thus, an intelligent system that defines whether the storage system should be charged according to the electrical needs of that moment and the prediction of the subsequent periods of time is defined. Favoring consumption in the building in periods when energy prices are cheaper or the renewable origin is preferable. The aim of this study was to obtain a building electrical energy demand model in order to be combined with storage devices with the purpose of reducing electricity expenses. Specifically, multilayer perceptron neural network models were applied, and the battery usage optimization is obtained through mathematical modelling. This approach was applied to a public office building located in Bangkok, Thailand.

Highlights

  • Compliance with the objectives set in the Paris agreement requires a change in the direction of greenhouse gas reduction on each economic sector, with most of the emissions linked to energy consumption, directly or not, as discussed in Regulation 2018/842 [1] and in Directive 2018/844 [2]

  • The validation of the methods proposed in the previous section is implemented in an office building divided into seven floors and located in Bangkok, Thailand

  • Based on the data of an office building located in Bangkok, the control in buildings

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Summary

Introduction

Publisher’s Note: MDPI stays neutral with regard to jurisdictional claims in published maps and institutional affiliations. Compliance with the objectives set in the Paris agreement requires a change in the direction of greenhouse gas reduction on each economic sector, with most of the emissions linked to energy consumption, directly or not, as discussed in Regulation 2018/842 [1] and in Directive 2018/844 [2]. Regarding the residential and industrial sectors, buildings are responsible of 40% of final energy consumption and 36% of the emissions in Europe [3]. The key factor in achieving these goals is a dual strategy that encourages the creation and diffusion of renewable energy sources and other zero-emission technologies [4].

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