太阳辐照度预测的可解释递归神经网络

Bin Zhou, Shengnan Du, Lijuan Li, Huaizhi Wang, Yang He, Diehui Zhou
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引用次数: 2

摘要

影响太阳辐照度的因素通常是复杂多样的,给光伏发电的准确预测带来了困难。本文提出了一种基于深度递归神经网络(RNN)和可加指数模型的可解释递归神经网络(ExRNN)算法,用于太阳辐照度预测问题。本文提出的ExRNN是一种具有循环单元的预先可解释算法,通过线性组合单特征模型来学习太阳辐照度的可解释特征,并使用脊函数作为激活函数来提取和解释气象特征与太阳辐照度之间的映射相关性。在此基础上,利用RNN的记忆特性发现太阳辐照度数据序列中隐藏的时间相关性,并保持其可解释性。因此,利用所提出的ExRNN可以对影响太阳辐照度的因子进行量化,并对气象输入与太阳辐照度之间的关系提供一个清晰的解释。利用法国里昂的太阳辐照度样本来评估所提出的ExRNN的预测精度和可解释性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An Explainable Recurrent Neural Network for Solar Irradiance Forecasting
The factors affecting solar irradiance are usually complex and diverse, making it difficult to accurately predict the photovoltaic power generation. In this paper, an explainable recurrent neural network (ExRNN) algorithm is proposed based on deep recurrent neural network (RNN) and additive index model for solar irradiance forecasting problems. The proposed ExRNN is designed as an ante-hoc explainable algorithm with cyclic units by linearly combining single-feature models to learn explainable features of solar irradiances, and the ridge function is used as an activation function to extract and explain mapping correlations between meteorological features and solar irradiances. Furthermore, the RNN is used with memory characteristics to discover the time correlation hidden in the solar irradiance data sequence and retain the explainability. Therefore, the factors affecting solar irradiances can be quantified by the proposed ExRNN, and a legible explanation on the relationship between meteorological inputs and solar irradiances can be provided. Solar irradiance samples from Lyon France are used to evaluate the prediction accuracy and explainability of the proposed ExRNN.
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