Research on crop classification methods based on machine learning using wavelet transformations

A. Alzhanov, A. Nugumanova, M. Sutula
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Abstract

Due to the growing demand for precise and efficient agricultural monitoring and management systems, interest in crop classification using machine learning has significantly increased in recent years. Conventional machine learning algorithms, however, have limitations when dealing with high-dimensional data. Training time is a crucial factor in developing crop classification models, as it directly impacts the model's efficacy and efficiency. Large volumes of data are often needed to train crop classification models properly, making the training procedure laborious and computationally demanding. In this paper, crop classification model training time is reduced by utilizing wavelet decomposition in combination with traditional machine learning techniques such as SVM, Naive Bayes, RF, and others. The performance of different algorithms before and after utilizing wavelet decomposition was evaluated in order to find the way that is the most efficient while using this methodology. Additionally, the significance of quality loss when applying wavelet coefficients was determined. The results of this paper show that applying wavelet transformation coefficients in combination with classification techniques can achieve accuracy levels that are comparable to those achieved by training on the original images. For example, using the Random Forest model in combination with Daubechies transformation coefficients can achieve an accuracy of 0,89 while significantly reducing training time from 11,15 to 3,49 seconds with Haar transformation providing almost identical results. The paper demonstrates the value of using wavelet transforms for crop classification and highlights the significance of accounting for training time when developing accurate and practical crop classification models that may be useful in developing decision support tools for agricultural applications, where it is crucial to make prompt decisions based on current data.
基于小波变换的机器学习作物分类方法研究
由于对精确和高效的农业监测和管理系统的需求不断增长,近年来对使用机器学习进行作物分类的兴趣显著增加。然而,传统的机器学习算法在处理高维数据时存在局限性。训练时间是开发作物分类模型的关键因素,它直接影响模型的有效性和效率。为了正确地训练作物分类模型,通常需要大量的数据,这使得训练过程非常费力且计算量很高。本文将小波分解与SVM、朴素贝叶斯、RF等传统机器学习技术相结合,减少了作物分类模型的训练时间。为了找到使用小波分解方法时效率最高的方法,对不同算法在使用小波分解前后的性能进行了评价。此外,还确定了应用小波系数时质量损失的显著性。结果表明,将小波变换系数与分类技术相结合,可以达到与原始图像训练相媲美的精度水平。例如,使用随机森林模型与Daubechies变换系数相结合,可以实现0.89的精度,同时将训练时间从11.15秒显著减少到3.49秒,Haar变换提供几乎相同的结果。本文论证了使用小波变换进行作物分类的价值,并强调了在开发准确实用的作物分类模型时考虑训练时间的重要性,这些模型可能有助于开发农业应用的决策支持工具,在农业应用中,根据当前数据及时做出决策至关重要。
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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