冷媒法小型常压水机的实验分析

Dani Abdo, H. Mitsudharmadi, Fawwaz Al Khatib, Mohamed Abdalla Alnaqbi, Rashed Saeed Almallahi, Sarah Abdullah Alblooshi
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引用次数: 0

摘要

目前的气候和环境状况,极端和长期天气事件的数量不断增加,已经对生活产生了负面影响。由于缺乏清洁和可持续的淡水供应,土地沙漠化的趋势日益加剧,这是这些环境变化的一个严重后果。根据文献,47亿人缺乏清洁水。这一事实足以鼓励研究人员和科学家寻找为人类和植物提供安全水的替代解决方案。大气集水(AWH)可能是一种经济有效的解决方案。本文介绍了利用太阳能作为能源来源,通过冷却来自环境的潮湿空气的AWH模型效率的实验评估。该型号的重量相对较轻,设计紧凑,非常适合在没有220V电流的荒凉地区收集大气水,因为所实施的制冷压缩机是12v的。评估结果表明,采用智能设计的蒸发器单元,无需使用任何昂贵的化学品或材料,可以显著提高系统的效率。初步结果显示出良好的潜力。事实证明,该系统能够独立工作,为荒凉地区的人类和农业生产清洁水。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Experimental Analysis of a Compact Atmospheric Water Generator by Refrigerant Method
The current climate and environmental situation with ascending numbers of extreme and prolonged weather events has already impacted life negatively. An increasing trend in desertification of lands due to scarcity of clean and sustainable supplies of freshwater is a critical consequence of these environmental changes. According to the literature, 4.7 billion people have shortage in access to clean water. This fact is a reason enough to encourage researchers and scientists to find alternative solutions for providing safe water for humans and plants. Atmospheric water harvesting (AWH) may present an economical and efficient solution. This paper presents an experimental evaluation of the efficiency of an AWH model through cooling humid air from the environment using solar power as a source of energy. The relatively light-weight and compact design of this model makes it ideal for atmospheric water collection in deserted areas with no access to 220V electric current, as the implemented refrigeration compressor is a 12 V one. The evaluation showed that with a smart design of the evaporator unit and without implementing any expensive chemicals or materials, the efficiency of the system can be enhanced significantly. Preliminary results showed promising potential. The system has proved to be able to work independently to produce clean water for human use and agriculture in deserted areas.
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