评价钠石灰吸附及基于单片机的保鲜保鲜箱中不同温度下CO2动态控制系统

IF 4.8 Q1 AGRICULTURE, MULTIDISCIPLINARY
Yogesh B. Kalnar , Akshay D. Sonawane , Cornelia Weltzien , Pramod V. Mahajan
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引用次数: 0

摘要

新鲜农产品的有效储存需要精确控制温度、氧气、二氧化碳和相对湿度。带有空气交换器来控制氧气的存储系统已经开发出来。本研究将钠石灰反应器引入已开发的CO2控制储存系统中。首先,研究了不同温度(5℃、10℃和20℃)和相对湿度(85%)下钠石灰吸附CO2的动力学。然后,将新系统集成到含有16 kg西兰花的储存箱中,并在5至23°C的不同温度下进行120 h的储存期性能评估。利用Weibull函数分析钠石灰的吸附量为267 L kg−1。在相对湿度高于80%时,吸附作用被触发,突出了它在高湿条件下新鲜农产品储存的适用性。温度对钠石灰的吸附速率有影响,但对总容量没有影响。在整个储存期间,即使在不同的温度下,箱内的CO2和O2浓度也分别保持在4±2%和2±1%。这种方法强调了空气交换和钠-石灰基系统作为间接控制O2和CO2的替代解决方案的潜力,使用简单的温度传感器和数学模型。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Evaluating soda-lime adsorption and microcontroller-based system for the dynamic control of CO2 in a fresh produce storage box under varying temperature

Evaluating soda-lime adsorption and microcontroller-based system for the dynamic control of CO2 in a fresh produce storage box under varying temperature
Effective storage of fresh produce requires precise control of temperature, O2, CO2, and relative humidity. The storage system with an air exchange to control O2 has already been developed. In this study, a soda-lime reactor was introduced into the developed storage system for CO2 control. Initially, the kinetics of CO2 adsorption by soda-lime was studied at different temperatures (5, 10 and 20 °C) and relative humidity (>85 %). Then, the new system was integrated into a storage box containing 16 kg of broccoli and the performance evaluation was conducted under varying temperatures from 5 to 23 °C over a 120-h storage period. The analysis of soda-lime adsorption using the Weibull function showed an adsorption capacity of 267 L kg−1. Adsorption was triggered at relative humidity above 80 %, highlighting its suitability for high-humidity conditions in fresh produce storage. While temperature affected the adsorption rate of soda-lime, it did not impact the overall capacity. During the entire storage period, CO2 and O2 concentrations inside the box were successfully maintained at 4 ± 2 % and 2 ± 1 %, respectively, even under varying temperatures. This approach highlights the potential of air exchange and soda-lime-based system as an alternative solution for the indirect control of O2 as well as CO2, using a simple temperature sensor and mathematical model.
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来源期刊
CiteScore
5.40
自引率
2.60%
发文量
193
审稿时长
69 days
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