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A Thermal Energy Usage Prediction Method for Electric Thermal Storage Heaters Based on Deep Learning

机译:基于深度学习的蓄热式加热器热能使用量预测方法

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The electric thermal storage heater is a new type of electronic equipment which can provide full day heating by making use of low-priced electricity provided by power plants during nighttime. However, the traditional electric thermal storage heater cannot make use of the relationship between the thermal storage time and the thermal demand of each user, which may cause energy waste when the thermal energy stored exceeds the user's demand or thermal energy shortage caused by insufficient reserve. Aiming to solve the problems, this paper presents a method for thermal energy usage prediction based on recurrent neural networks. Considering the continuous variability of environmental data, we use Bi-directional LSTM to achieve more accurate prediction results by combining the correlation between past information and future information. In addition, aiming at the problem of weight distribution, the attention mechanism is used the prediction algorithm and achieve the goal of rationally assigning weight parameters which can effectively reduce the error rate after the model is updated. Experiments show that the proposed algorithm with self-learning ability can reasonably predict the user's thermal storage time. It can effectively avoid the energy loss caused by storing too much thermal energy while satisfying the daily thermal energy needs of users.
机译:蓄热式电加热器是一种新型的电子设备,可以利用夜间发电厂提供的低价电来提供全天供暖。然而,传统的蓄热式加热器无法利用储热时间与每个用户的热需求之间的关系,当所存储的热能超过用户需求或由于储备不足而导致热能短缺时,可能会造成能量浪费。为了解决这些问题,本文提出了一种基于递归神经网络的热能使用量预测方法。考虑到环境数据的连续可变性,我们通过结合过去信息和未来信息之间的相关性,使用双向LSTM来获得更准确的预测结果。另外,针对权重分布问题,采用注意力机制预测算法,达到合理分配权重参数的目的,可以有效降低模型更新后的错误率。实验表明,该算法具有自学习能力,可以合理地预测用户的储热时间。在满足用户日常热能需求的同时,可以有效避免因存储过多的热能而造成的能量损失。

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