Investigation Neural Network Models for Wind Speed Prediction Based on Meteorological Observations in Northern Dagestan

D. N. Kobzarenko, A. M. Kamilova
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Abstract

The paper presents the experiments' results on the study variants of neural network architectures for predicting wind speed based on meteorological time series for Northern Dagestan. When working with data and models, modern software tools of the Python programming language for Data Science are used, such as Keras — a library for modeling neural networks, Pandas — a library for processing tabular data, AutoKeras — a library for automatically generating a neural network by dataset, TabGan — a library for expansion a dataset with artificial data. As initial data, regular observations at the Kochubey (Northern Dagestan) meteorological station for the period 2011­2022 were taken with a frequency of generalization of measurements 8 times a day. The original semi-structured data is pre-processed and reduced to a structured CSV dataset format. The task of predicting wind speed is reduced to the task of classification, in which it is not the wind speed itself that is predicted, but the class number in accordance with the gradation. From the point of view of considering wind speed as a renewable energy resource, three classes with gradations are accepted: class 0: 0—3 m/s (quiet), class 1: 4—7 m/s (average wind sufficient for optimal wind turbine operating), class 2: 8 m/s and higher (strong wind). When performing experiments, the influence value on the prediction accuracy from several aspects were analyzed, such as: the time data block length, the neural network architecture, the transformation tabular features to normal form or to categorical form, expansion dataset by artificial data, the layout of the verification and test samples, the imbalance of classes, various meteorological parameters as features.
基于达吉斯坦北部气象观测数据的风速预测神经网络模型研究
本文介绍了基于达吉斯坦北部气象时间序列预测风速的神经网络架构变体的研究实验结果。在处理数据和模型时,使用了数据科学 Python 编程语言的现代软件工具,如 Keras(神经网络建模库)、Pandas(表格数据处理库)、AutoKeras(根据数据集自动生成神经网络库)、TabGan(用人工数据扩展数据集库)。作为初始数据,2011-2022 年期间在科丘贝(达吉斯坦北部)气象站进行了定期观测,测量频率为每天 8 次。原始的半结构化数据经过预处理后缩减为结构化的 CSV 数据集格式。预测风速的任务被简化为分类任务,其中预测的不是风速本身,而是按照等级划分的类号。从将风速视为一种可再生能源的角度出发,可将风速分为三个等级:0 级:0-3 米/秒(安静);1 级:4-7 米/秒(平均风速,足以使风力涡轮机达到最佳运行状态);2 级:8 米/秒及以上(强风)。在进行实验时,分析了时间数据块长度、神经网络结构、将表格特征转换为正常形式或分类形式、用人工数据扩展数据集、验证和测试样本的布局、类的不平衡、作为特征的各种气象参数等几个方面对预测精度的影响值。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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