利用CO2平衡法预测光合速率的通气量要素

Q2 Agricultural and Biological Sciences
A. Tusi, T. Shimazu
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引用次数: 3

摘要

监测光合作用是提高温室植物产量和质量的一个基本过程。二氧化碳平衡法是预测植物光合速率的常用方法。本文综述了co2平衡法预测温室植物冠层光合速率的主要参数。即使在自然通风的温室中,通风量也是二氧化碳平衡法的重要参数,但必须实时测量,因为它随天气条件而波动。我们研究了三种通风率(示踪气体法、热平衡法和水蒸气平衡法)。通过对通风量测量方法的比较,了解了各种方法的优缺点。这些知识可以指导我们根据准确性,设备使用情况,实用性和安装预算选择最佳方法。大多数研究人员使用红外气体分析仪测量和控制温室中的二氧化碳浓度,并使用示踪气体方法预测通风量。本方法适用于低通风、密闭通风的测量。对于较大的通风口,建议采用热平衡法估算通风量。当植物蒸腾产生大量水蒸气时,水蒸气平衡法足以测量通风量。该方法的可靠性取决于短期蒸腾测量的准确性。由于与其他方法相比,改进的水蒸气平衡技术具有灵活性和易用性,因此可以通过不同的通风机配置使各种温室应用受益。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The Essential Factor of Ventilation Rate in Prediction of Photosynthetic Rate Using the CO2 Balance Method
Monitoring photosynthesis is a fundamental process to improve the yield and quality of plants in a greenhouse. The CO 2 balance method is often employed to predict the photosynthetic rate of plants. We reviewed the essential parameters for predicting photosynthetic rates of plants canopy in greenhouses using the CO 2 balance method. Even in a naturally ventilated greenhouse, ventilation rate is an essential parameter for the CO 2 balance method, but it must be measured in real time as it fluctuates with weather conditions. We studied three types of ventilation rates (the tracer gas, heat balance, and water vapor balance methods). Comparing the measuring techniques of ventilation rate provided us an understanding of the strengths and weaknesses of each method. This knowledge can guide us to choosing the best method based on accuracy, device usage, practicality, and the installation budget. Most researchers have measured and controlled CO 2 concentrations in a greenhouse using an infrared gas analyzer and predicted the ventilation rates using the tracer gas method. This method is suitable for the measurement of low and closed ventilation. The estimated ventilation rate by the heat balance method is recommended for large ventilation openings. The water vapor balance method is sufficient for measuring the ventilation rate when there is a large quantity of water vapor due to plant transpiration. The reliability of this method depends on the accuracy of short-term transpiration measurements. Improved water vapor balance techniques can benefit various greenhouse applications with different ventilator configurations, owing to the flexibility and ease of use compared to those of other methods.
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来源期刊
Reviews in Agricultural Science
Reviews in Agricultural Science Agricultural and Biological Sciences-Agricultural and Biological Sciences (all)
CiteScore
4.60
自引率
0.00%
发文量
13
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