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Interpretable Deep Learning with Hybrid Autoencoders to Predict Electric Energy Consumption

机译:用混合动力自动化器预测电能消耗的可解释深度学习

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As energy demand continues to increase, smart grid systems that perform efficient energy management become increasingly important due to environmental and cost reasons. It requires faster prediction of electric energy consumption and valid explanation of the predicted results. Recently, several demand predictors based on deep learning that can deal with complex features of data are actively investigated, but most of them suffer from lack of explanation due to the black-box characteristics. In this paper, we propose a hybrid autoencoder-based deep learning model that predicts power demand in minutes and also provides the explanation for the predicted results. It consists of an information projector that uses auxiliary information to extract features for the current situation and a model that predicts future power demand. This model exploits the latent space composed of the two different modalities to account for the prediction. Experiments with household electric power demand data collected over five years show that the proposed model is the best with a mean squared error of 0.3764. In addition, by analyzing the latent variables extracted by the information projector, the correlation with various conditions including the power demand is confirmed to provide the reason of the coming power demand predicted.
机译:由于能源需求持续增加,由于环境和成本原因,执行高效能源管理的智能电网系统变得越来越重要。它需要更快地预测电能消耗和预测结果的有效解释。最近,基于深度学习的几个需求预测因子可以进行积极调查,可以处理数据复杂的数据特征,但大多数人因黑匣子特征而缺乏解释。在本文中,我们提出了一种混合的基于HySEncoder的深学习模型,可以在几分钟内预测电力需求,并为预测结果提供了解释。它包括一个信息投影仪,它使用辅助信息来提取当前情况的特征和预测未来电力需求的模型。该模型利用由两种不同模式组成的潜在空间来解释预测。五年内收集家用电力需求数据的实验表明,所提出的模型是最佳的,平均平方误差为0.3764。另外,通过分析由信息投影仪提取的潜在变量,确认了与包括电力需求的各种条件的相关性,以提供预测的即将到来的电力需求的原因。

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