Assessing greenhouse covering systems for energy efficiency and solar irradiance modulation: A technical review

IF 12.2
Green Technologies and Sustainability Pub Date : 2026-04-01 Epub Date: 2025-10-01 DOI:10.1016/j.grets.2025.100281
Enhe Zhang , Mohammad Elmi , Anwar Jahid , Qiuhua Duan , Julian Wang
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Abstract

The selection of sustainable and effective covering systems is essential in greenhouses to ensure optimal insulation, microclimate control, energy management, and proper solar irradiance filtration for plant growth. This study evaluated representative types of greenhouse coverings: uncoated clear glass, Low-Emissivity (Low-E) coated glass, Ultraviolet (UV)-blocking coated glass, polyethylene (PE), polycarbonate (PC), anti-condensation polyethylene (PEAC), and infrared reflective plus anti-condensation polyethylene (IRAC). In our examination and comparisons, we focused on assessing their thermal and optical properties and associated energy performance through simulations across various climate zones using WINDOW, OPTICS, and EnergyPlus. In particular, this study used a full-glazing greenhouse and concluded an estimating model with interior lighting, heating and cooling energy consumption, and total energy. Low-E coated covering systems had the best U-factor among all materials and achieved an average of 15.9% reduction in total energy consumption without much suffering on interior lighting. Meanwhile, both Low-E and UV-coated glass offered desirable lighting quality in the red wavelength range, enhancing metrics such as the red-to-blue (R:B) and red-to-far-red (R:RF) ratios. Additionally, the performance of Low-E deteriorated when condensation formed, highlighting the importance of selecting materials with anti-condensation properties in certain areas where nighttime temperature significantly drops. Additionally, the findings indicated that UV coatings were not optimal for cloudy areas due to their insufficient daylight transmittance. It necessitates increased use of interior lighting to compensate for the lack of natural light. Overall, this research underscores the critical balance between energy and light performance necessary for optimal plant growth. This work aimed to guide the choice of covering systems for greenhouses.
评估温室覆盖系统的能源效率和太阳辐照度调制:技术综述
选择可持续和有效的覆盖系统对温室至关重要,以确保最佳的隔热、小气候控制、能源管理和植物生长所需的适当的太阳辐照度过滤。本研究评估了具有代表性的温室覆盖物类型:无涂层透明玻璃、低发射率(Low-E)涂层玻璃、阻挡紫外线(UV)的涂层玻璃、聚乙烯(PE)、聚碳酸酯(PC)、防冷凝聚乙烯(PEAC)和红外反射加防冷凝聚乙烯(IRAC)。在我们的研究和比较中,我们着重于通过WINDOW、OPTICS和EnergyPlus在不同气候带的模拟来评估它们的热学和光学特性以及相关的能源性能。特别地,本研究采用全玻璃温室,并建立了室内照明、供暖和制冷能耗以及总能耗的估算模型。Low-E涂层覆盖系统在所有材料中具有最佳的u因子,在不影响室内照明的情况下,平均减少总能耗15.9%。同时,Low-E和uv涂层玻璃在红色波长范围内提供了理想的照明质量,提高了红蓝(R:B)和红远红(R:RF)比率等指标。此外,当结露形成时,Low-E的性能会下降,这就突出了在夜间温度明显下降的某些地区选择具有抗结露性能的材料的重要性。此外,研究结果表明,由于紫外线涂层的透光性不足,在多云地区并不是最佳的。这就需要增加室内照明来弥补自然光的不足。总的来说,这项研究强调了最佳植物生长所必需的能量和光性能之间的关键平衡。这项工作旨在指导温室覆盖系统的选择。
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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