小型太阳能加湿-除湿海水淡化系统建模及热分析

Azzedine Laknizil, Abdessamad Fikri, I. Driouch, E. Essadiqi, M. Faqir, M. Ghazi, M. Mada, A. Benabdellah
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引用次数: 0

摘要

这项工作涉及使用加湿-除湿工艺和太阳能的小型海水淡化装置的建模和热分析,其蒸馏水的生产能力在20至100kg/h之间。数学模型是在稳态运行的前提下建立的,它是基于质量和热平衡、热力学原理和最新发表的相关文献。利用MATLAB编程软件和不动点迭代法对所建立的方程模型进行求解。分析考虑了干空气质量流量、进料海水质量流量及其加湿器入口温度对蒸馏水质量流量、热功耗和比能耗的影响。本工作最相关的结果表明,尽可能提高进料海水质量流量、降低干空气质量流量和降低加湿器入口进料海水温度可以降低比能耗。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Modeling and Thermal Analysis of Small Scale Desalination System using Humidification-Dehumidification Process Driven by Solar Energy
this work deals with modeling and thermal analysis of small scale desalination unit using Humidification-Dehumidification process and solar energy, for production capacities ranging between 20 and 100kg/h of distilled water. The mathematical model is carried out assuming a steady state operation and it is based on mass and heat balance, thermodynamics principals and the most recent correlations published in literature. MATLAB programming software and fixed point iterations method are used to resolve the developed equations model. The analysis consider the impact of dry air mass flow rate, feed seawater mass flow rate and its temperature at the humidifier inlet on distilled water mass flow rate, thermal power consumption and specific energy consumption. The most relevant results of this work show that the specific energy consumption could be reduced by increasing as much as possible feed seawater mass flow rate, decreasing the mass flow rate of dry air and decreasing the feed seawater temperature at the humidifier inlet.
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