Wind Speed Forecasting toward El Nino Factors Using Recurrent Neural Networks

Intan Vidia Saputri, E. C. Djamal, Fikri Nugraha, Ridwan Ilyas
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引用次数: 3

Abstract

Wind speed prediction is needed in various sectors, such as in industry. However, the weather conditions change all the time, so it is not easy to predict. The wind that blows is influenced by several climatic weather factors such as humidity and rainfall. Also, wind speed patterns change when there is a global climate change, El Nino. Therefore this research involved the element in predicting wind patterns one week ahead. Recurrent Neural Networks (RNN) and Long-short Term Memory (LSTM) methods are used for sequential data processing, such as climate data. Climate data for ten years used were wind speed, humidity, and rainfall provided by Meteorological, Climatological, and Geophysical Agency (BMKG) of a weather observation station, while Southern Oscillation Index (SOI), was obtained from the Australian Bureau of Meteorology (ABM). Data need to be pre-processed to solve missing data. Moreover, all variables were normalized and segmentation by overlapping to avoid data discontinuity. The results showed that the use of the amount of data, learning rate, epoch, and selection of the right optimization model could give good accuracy. The purpose of the proper configuration has a good performance, with accuracy reaching 88.34%. The results showed that the use of SOI factors improved correctness from 74.75% without SOI. The results also show that the model Adaptive Moment Estimation (Adam) provides better accuracy than the model Stochastic Gradient Descent (SGD), which gives an accuracy of only 71.84%. Meanwhile, the study also examined the effect of the learning rate and composition of training data and test data. The best accuracy is shown for the learning rate of 0.020 and 80:20% of training and test data comparison.
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利用递归神经网络预测厄尔尼诺因素的风速
风速预测在工业等各个领域都是需要的。然而,天气状况一直在变化,所以不容易预测。吹起的风受几个气候天气因素的影响,如湿度和降雨量。此外,当全球气候发生变化,即厄尔尼诺现象时,风速模式也会发生变化。因此,这项研究涉及到提前一周预测风向的因素。循环神经网络(RNN)和长短期记忆(LSTM)方法用于时序数据处理,如气候数据。10年的气候资料是由气象观测站的气象、气候和地球物理局(BMKG)提供的风速、湿度和降雨量,而南方涛动指数(SOI)是由澳大利亚气象局(ABM)提供的。需要对数据进行预处理以解决丢失的数据。对所有变量进行归一化和重叠分割,避免数据不连续。结果表明,利用数据量、学习率、历元和选择合适的优化模型可以获得较好的准确率。合理配置的目的具有良好的性能,准确率达到88.34%。结果表明,在没有SOI的情况下,使用SOI因子可以将正确率提高74.75%。结果还表明,自适应矩估计(Adam)模型比随机梯度下降(SGD)模型具有更好的精度,其精度仅为71.84%。同时,研究还考察了训练数据和测试数据的学习率和组成的影响。训练数据和测试数据比较,学习率为0.020%和80:20%时准确率最高。
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