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Modelling and dynamic simulation of a hybrid liquid desiccant system regenerated with solar energy

机译:太阳能再生混合液体干燥剂系统的建模与动态模拟

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The combination of liquid desiccant systems with conventional vapour compression chillers, usually known as hybrid liquid desiccant systems (HLDS), is a promising alternative when temperature and humidity need to be controlled in air conditioning applications. One of the advantages of this technology is that different kinds of energy can be integrated, particularly low temperature solar thermal energy, which can reduce the electrical consumption of the system. These kinds of systems are typically analysed by discrete steady-state simulations, which show how the system behaves in design conditions. However, dynamic simulations can provide information about the seasonal performance and help to set an appropriate control strategy. This paper describes the modelling and dynamic simulation of an HLDS using TRNSYS. Because there are non-standard components for the main elements of a liquid desiccant subsystem (LDS), an alternative modelling method based on performance tables has been developed. The simulation is carried out for Kuala Lumpur, a city with high humidity and ambient temperatures, where air conditioning is required throughout the year. The control strategy is also defined. Finally a sensitivity analysis is performed for the case analysed. (C) 2016 Elsevier Ltd. All rights reserved.
机译:当在空调应用中需要控制温度和湿度时,将液体干燥剂系统与常规的蒸气压缩式冷却器(通常称为混合液体干燥剂系统(HLDS))结合使用是一种很有前途的替代方法。该技术的优点之一是可以集成各种能源,特别是低温太阳能,可以减少系统的电能消耗。通常通过离散稳态仿真来分析这类系统,这些仿真表明了系统在设计条件下的行为。但是,动态仿真可以提供有关季节性表现的信息,并有助于设置适当的控制策略。本文介绍了使用TRNSYS对HLDS进行建模和动态仿真。由于液体干燥剂子系统(LDS)的主要元素存在非标准组件,因此已经开发了基于性能表的替代建模方法。模拟是在吉隆坡这样一个城市进行的,该城市湿度高,环境温度高,一年四季都需要空调。还定义了控制策略。最后,针对所分析的病例进行敏感性分析。 (C)2016 Elsevier Ltd.保留所有权利。

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