基于高斯过程回归的智能农业土壤水分预测优化模型

Zoren P. Mabunga, J. D. dela Cruz
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引用次数: 3

摘要

准确的土壤湿度模型在智能农业系统的设计和实施中至关重要。准确的土壤水分预测可以实现有效的水资源配置。本文提出了以不同环境参数如湿度、温度、光照强度和降雨作为输入或预测变量的土壤湿度模型。采用非参数机器学习算法高斯过程回归算法建立模型。通过使用不同的核函数开发四种不同的GPR模型,确定了最有效的核函数。在RMSE方面,有理二次函数的RMSE最小。为了进一步提高探地雷达模型的精度,采用贝叶斯优化算法对模型进行了超参数自动调优。利用贝叶斯优化算法对三个超参数进行了调优,提高了探地雷达模型的性能。优化后的GPR模型RMSE和MAE最低,分别为3.596和1.176。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An Optimized Soil Moisture Prediction Model for Smart Agriculture Using Gaussian Process Regression
An accurate soil moisture model is critical in the design and implementation of a smart agriculture system. Accurate soil moisture prediction allows an efficient water resources allocation. This paper presented a soil moisture model using different environmental parameters such as humidity, temperature, light intensity, and rain occurrence as inputs or predictor variables. Gaussian process regression algorithm, a non-parametric machine learning algorithm, was used to develop the model. The most effective kernel function was also determined by developing four different GPR models using a different kernel function. In terms of RMSE, the rational quadratic function obtained the lowest value. To further improve the accuracy of the GPR model, an automated hyperparameter tuning was done using a Bayesian optimization algorithm. Three hyperparameters were tuned using the Bayesian optimization algorithm, which improved the GPR model's performance. The optimized GPR model achieved the lowest RMSE and MAE of 3.596 and 1.176, respectively.
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