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Next-Generation Greenhouses for Food Security最新文献

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Temperature and Humidity Control for the Next Generation Greenhouses: Overview of Desiccant and Evaporative Cooling Systems 新一代温室的温度和湿度控制:干燥剂和蒸发冷却系统概述
Pub Date : 2021-04-02 DOI: 10.5772/INTECHOPEN.97273
M. Sultan, Hadeed Ashraf, T. Miyazaki, R. Shamshiri, I. Hameed
Temperature and humidity control are crucial in next generation greenhouses. Plants require optimum temperature/humidity and vapor pressure deficit conditions inside the greenhouse for optimum yield. In this regard, an air-conditioning system could provide the required conditions in harsh climatic regions. In this study, the authors have summarized their published work on different desiccant and evaporative cooling options for greenhouse air-conditioning. The direct, indirect, and Maisotsenko cycle evaporative cooling systems, and multi-stage evaporative cooling systems have been summarized in this study. Different desiccant materials i.e., silica-gels, activated carbons (powder and fiber), polymer sorbents, and metal organic frameworks have also been summarized in this study along with different desiccant air-conditioning options. However, different high-performance zeolites and molecular sieves are extensively studied in literature. The authors conclude that solar operated desiccant based evaporative cooling systems could be an alternate option for next generation greenhouse air-conditioning.
温度和湿度的控制是下一代温室的关键。为了获得最佳产量,植物需要温室内的最佳温度/湿度和蒸汽压差条件。在这方面,空调系统可以在气候恶劣的地区提供所需的条件。在这项研究中,作者总结了他们发表的关于温室空调的不同干燥剂和蒸发冷却选择的工作。本文综述了直接蒸发冷却系统、间接蒸发冷却系统、Maisotsenko循环蒸发冷却系统和多级蒸发冷却系统。不同的干燥剂材料,如硅胶、活性炭(粉末和纤维)、聚合物吸附剂和金属有机框架,以及不同的干燥剂空调选择,也在本研究中进行了总结。然而,不同的高性能沸石和分子筛在文献中被广泛研究。作者得出结论,太阳能干燥剂蒸发冷却系统可能是下一代温室空调的替代选择。
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引用次数: 3
Greenhouse Requirements for Soilless Crop Production: Challenges and Prospects for Plant Factories 无土作物生产对温室的要求:植物工厂的挑战与前景
Pub Date : 2021-02-09 DOI: 10.5772/INTECHOPEN.95842
A. Muhammad, A. Shitu, Umar Abdulbaki Danhassan, M. Kabir, M. A. Tadda, A. Lawal
This chapter discussed the greenhouse requirement for soilless crop production. It further introduced soilless crop production and elucidated the equipment required for an efficient production system covering greenhouse environmental control and management of temperature, humidity, lighting, and nutrients using innovative strategies. Also, the energy required for the control of the greenhouse environmental conditions during the crop production cycle was explained. Identification and management of pests and diseases using wireless network sensors and the Internet of Things for efficient and safe food production were also highlighted. Finally, the challenges facing greenhouse crop production itemized, and the prospects of greenhouse technology for sustainable healthy food production were proposed.
本章讨论了无土作物生产对温室的要求。它进一步介绍了无土作物生产,并阐明了有效生产系统所需的设备,包括温室环境控制和使用创新策略对温度、湿度、照明和养分进行管理。此外,还解释了作物生产周期中温室环境条件控制所需的能源。会议还强调了利用无线网络传感器和物联网识别和管理病虫害,以实现高效和安全的食品生产。最后,列举了温室作物生产面临的挑战,并对温室技术在可持续健康食品生产中的应用前景进行了展望。
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引用次数: 0
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Next-Generation Greenhouses for Food Security
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