Analysis of a low-temperature small approach open cooling tower integrated with radiant cooling and displacement ventilation for space conditioning in temperate climates

IF 2.1 Q2 CONSTRUCTION & BUILDING TECHNOLOGY Advances in Building Energy Research Pub Date : 2022-07-19 DOI:10.1080/17512549.2022.2101524
M. Nasrabadi, D. Finn
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Abstract

ABSTRACT Evaporative cooling, using cooling tower systems, has the potential to offer an alternative approach for producing high temperature chilled water, particularly for buildings located in temperate climates. The current paper examines the performance of an integrated cooling system, where an open forced draught counter flow cooling tower is used for the provision of chilled water for a radiant cooling and displacement ventilation system. For this purpose, a low temperature low approach direct evaporative cooling tower is used which can provide cooling water with low approach temperatures (1-3 K), which defines the temperature difference between the tower water outlet temperature and ambient wet bulb temperature. The performance of the proposed cooling system has been investigated for internal buildings loads up to 66 W·m-2 in order to examine the limitations of the cooling system. Space thermal comfort conditions and system performance metrics were assessed for four different temperate climate types as follows: cool and dry (Helsinki), cool and semi-humid (Birmingham), warm and dry (Prague), and warm and humid (Paris). The assessment shows that for the proposed system, where a radiant floor was used, can provide acceptable thermal comfort conditions for approximately 80% of the occupant hours over the respective cooling seasons.
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低温小进近开放式冷却塔辐射冷却与置换通风相结合用于温带气候空间调节的分析
蒸发冷却,使用冷却塔系统,有可能提供一种生产高温冷冻水的替代方法,特别是对于位于温带气候的建筑物。本文研究了一个集成冷却系统的性能,其中一个开放的强制通风逆流冷却塔用于为辐射冷却和置换通风系统提供冷冻水。为此,使用低温低进近直接蒸发冷却塔,它可以提供低进近温度(1-3 K)的冷却水,该温度定义了塔出水温度与环境湿球温度之间的温差。为了检验该冷却系统的局限性,研究了该冷却系统在高达66 W·m-2的内部建筑负荷下的性能。对四种不同温带气候类型的空间热舒适条件和系统性能指标进行了评估:凉爽干燥(赫尔辛基)、凉爽半湿润(伯明翰)、温暖干燥(布拉格)和温暖潮湿(巴黎)。评估结果显示,在使用辐射地板的拟议系统中,在各自的冷却季节,大约80%的使用时间可以提供可接受的热舒适条件。
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来源期刊
Advances in Building Energy Research
Advances in Building Energy Research CONSTRUCTION & BUILDING TECHNOLOGY-
CiteScore
4.80
自引率
5.00%
发文量
11
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