开发干热气候下直接蒸发冷却器的水能结合性能:走向绿色空间冷却

Salah Vaisi, Haleh Taheri
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引用次数: 0

摘要

直接蒸发冷却器(DECs)具有用户友好,经济高效,体积小,安装方便等优点,因此,它们经常用于炎热和干燥气候下的空间冷却。DEC是一种具有成本效益的系统,适用于住宅或中型建筑物,如私人办公室和商业大厦;然而,该系统的差距是较高的水和能源消耗,本文对此进行了解决。在干燥的气候中,水是至关重要的,意味着生命和温室气体威胁着地球上的生命。本研究是一项为期两年多的实验方法,旨在将传统的DEC发展成为绿色高效系统。该研究旨在发现并减少DECs在炎热干燥气候下的水和能源消耗。从化石能源到太阳能的能源转换是这项研究的另一个目标。与开发的样机中常规样品相比,用水量减少23.8升/天(约56%),系统运行时间也减少了55%。目前,在案例研究的城市中,大约有210万个DEC系统在运行,因此通过应用开发的系统,每个暖期可以节省高达620万立方米的水。工作时间的减少使每小时的电能消耗减少了67.5 W。此外,通过从化石能源到太阳能电力的能源转换,发达系统的运行中二氧化碳排放量为零。这种绿色制冷模式的实施将大大减少水和能源的消耗,并且开发的模式可以在类似的气候条件下重复和模仿。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Developing the water-energy nexus performance of direct evaporative coolers in a hot and dry climate: Toward a green space cooling

Direct Evaporative Coolers (DECs) have several advantages such as a user-friendly, cost-effective, small, and easy installation, therefore, they are frequently used for space cooling in hot and dry climates. DEC is a cost-effective system applied in residential or medium-sized buildings such as private offices and commercials; however, the gap of the system is higher water and energy consumption that are addressed in this paper. Water in a dry climate is vital and means life and greenhouse gases threaten lives on the earth. This research is an experimental method conducted for more than 2 years to develop a conventional DEC into a green-efficient system. The research aims to discover and reduce the water as well as energy consumption of DECs in a hot and dry climate. Energy transitions from fossil to solar is another aim of this research. Compared with the conventional sample in the developed prototype the water consumption was reduced by 23.8 liters/day (about 56%), and the operating hours of the system were also decreased by 55%. Currently, there are approximately 2.1 million DEC systems in operation in the case study city, so by applying the developed system, up to 6.2 million m3 of water can be saved in each warm period. The reduction of operating hours caused a reduction of 67.5 W in electrical energy consumption per hour. In addition, by energy transition from fossil to solar electricity the in-operation CO2 emission of the developed system is zero. The implementation of this green cooling model will greatly reduce water and energy consumption and the developed model can be repeated and imitated in similar climates.

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