提高封闭式农业温室的效率:数据驱动的能耗预测模型

Ikhlas Ghiat, T. Al-Ansari
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引用次数: 0

摘要

预测农业温室的能耗对于有效分配资源、促进植物生长以及最大限度地降低能源效率至关重要。影响温室能耗的因素有很多,包括外部气候条件和内部小气候。正确理解这些因素对于保持理想的生长环境和优化能源效率至关重要。因此,有必要研究这些因素与温室能耗之间的相互作用,包括降温所需的能量以及水和养分的供应。这项工作旨在开发一个动态模型,预测封闭式农业温室的总能耗,以改善微气候控制和提高能效。研究在一个没有自然通风的封闭式农业温室内进行。在温室内部,空气通过加热、通风和空调(HVAC)系统进行冷却和持续循环,而不与环境空气交换。数据驱动模型包括外部气候参数,如太阳辐射、环境温度和相对湿度;以及微气候参数,如内部温度、湿度和二氧化碳浓度,以预测总体能耗。研究考察了两种预测能源消耗的机器学习模型:深度神经网络(DNN)和极端梯度提升(XGBoost),并使用决定系数(R2)、均方根误差(RMSE)和平均绝对误差(MAE)评估了它们的性能。结果显示,DNN 模型超过了 XGBoost 模型,表现出更优越的预测性能,R2 为 80.9%,RMSE 为 171.1 千瓦时,MAE 为 130.3 千瓦时。这项研究证明了 DNN 在协助能耗分析和识别封闭式农业温室内低效能源使用模式方面的实用性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Enhancing efficiency in closed agricultural greenhouses: A data-driven predictive model for energy consumption
Predicting energy consumption in agricultural greenhouses is essential to effectively allocate resources, enhance plant growth, and minimize energy inefficiencies. Various factors affect the energy consumption inside the greenhouse including external climate conditions and internal microclimate. Proper understanding of these factors is crucial for maintaining an ideal growing environment and optimizing energy efficiency. This drives the need to investigate the interaction between these factors and greenhouse energy consumption, encompassing the energy needed for cooling and the supply of water and nutrients. This work aims at developing a dynamic model that predicts the total energy consumption of a closed agricultural greenhouse to improve microclimate control and energy efficiency. The study is conducted within a closed-loop agricultural greenhouse with no natural ventilation. Inside, the air is cooled and continuously circulated without being exchanged with ambient air through a heating, ventilation, and air conditioning (HVAC) system. The data-driven model encompasses external climate parameters such solar radiation, ambient temperature, and relative humidity; along with microclimate parameters such as internal temperature, humidity, and CO2 concentration to predict overall energy consumption. The study examines two machine learning models, deep neural networks (DNN) and extreme gradient boosting (XGBoost), for forecasting energy consumption, and assesses their performance using the coefficient of determination (R2), the root mean square error (RMSE), and the mean absolute error (MAE). Results reveal that the DNN model surpasses the XGBoost model, exhibiting a superior predictive performance with an R2 of 80.9%, RMSE of 171.1 kWh and MAE of 130.3 kWh. This study demonstrates its practicality in assisting with energy consumption analyses and identifying inefficient energy usage patterns within closed agricultural greenhouses.
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