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Dynamic Simulation of an Absorption Cooling System with Different Working Mixtures

机译:不同工作混合物吸收冷却系统的动态仿真

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摘要

High consumption of electricity represents an economic and social problem in warm places, caused by the massive use of cooling machines. Absorption systems are a sustainable method for air conditioning applications. However, environmental conditions should be analyzed to avoid crystallization problems of the working mixture. This article presents a thermal analysis of a solar absorption cooling system in dynamic conditions using NH3-H2O, H2O-LiBr, NH3-NaSCN, NH3-LiNO3, and H2O-LiCl working mixtures using Equation Engineering Solver (EES) and TRaNsient SYstem Simulation (TRNSYS) software. A solar collector area of 42.5 m2 was selected to carry out the thermal analysis. The results showed that H2O-LiCl obtained the maximum solar (0.67) and minimum heating (0.33) fraction. However, it obtained the maximum lost heat fraction (0.12), in spite of obtaining the best coefficient of performance (COP) among the other working mixtures, due mainly to a crystallization problem. The gain fraction (GF) parameter was used to select the adequate solar collector number for each working mixture. NH3-LiNO3 and NH3-H2O obtained the highest GF (up 6), and both obtained the maximum solar (0.91) and minimum heating (0.09) fraction, respectively, using 88.8 and 100.4 m2 of solar collector area, respectively.
机译:高消耗电力代表了温暖的地方经济和社会问题,由大规模使用冷却机引起。吸收系统是用于空调应用的可持续方法。然而,应分析环境条件以避免工作混合物的结晶问题。本文介绍了使用NH3-H2O,H2O-LECT,NH3-NASCN,NH3-LINO3和H2O-LICL使用等式工程求解器(EES)和瞬态系统仿真的动态条件下的动态条件下的热量分析。 TRNSYS)软件。选择太阳能集电极区42.5m 2以进行热分析。结果表明,H2O-LICL获得最大太阳能(0.67)和最小加热(0.33)级分。然而,它尽管在其他工作混合物中获得了最佳的性能系数(COP),因此获得了最大损失的热馏分(0.12),主要是由于结晶问题。增益分数(GF)参数用于为每个工作混合物选择适当的太阳能收集器编号。 NH3-LINO3和NH3-H2O分别获得最高的GF(上6),并分别使用88.8和100.4m2的太阳能收集器区域获得最大的太阳能(0.91)和最小加热(0.09)馏分。

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