Design and Development of a Small Multistage Flash Desalination System Using Aspen HYSYS

M. D. Islam, F. Banat, A. Baba, S. Abuyahya
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Abstract

Fresh water demands are increasing day by day because of growing population, industrialization, and increased living standards. Desalination technology has become a significant solution of fresh drinking water for many parts of the world. Lack of fresh water resources in dry environments has encouraged the establishment of desalination processes and developed technology to compensate for water scarcity. The MSF (multistage flash) desalination technique has received wide spread acceptance due to low temperature heat source (waste heat/inexpensive energy), simple construction high process reliability and simple maintenance. MSF typically has the highest water production cost among available desalination technologies, which can be reduced with using solar energy/co-generation. Since Abu Dhabi is in the solar belt region and is blessed with huge solar energy, MSF desalination can be powered by solar power in addition to industrial waste/fossil fuel energy, which will significantly reduce the cost as well as carbon, footprint. In this research, multistage flash desalination is modelled using ASPEN HYSYS package V8. We have designed each components of the system, mostly heating source, vacuum/flash chambers, heat exchangers and developed the whole system. Some parametric study, i.e. feed rate, top brine temperature, heat input, pressure, productivity etc. of multistage flash desalination system has been conducted in this research. Two case studies have been conducted and found a relation between feed flow rate and water production rate as well as chamber pressure with vapor formation. This design will help to build the pilot plant, do experimental test and validate the model.
基于HYSYS的小型多级闪蒸脱盐系统的设计与开发
由于人口增长、工业化和生活水平的提高,对淡水的需求日益增加。海水淡化技术已经成为世界上许多地方的一种重要的淡水解决方案。干旱环境中缺乏淡水资源鼓励建立海水淡化过程和开发技术,以补偿缺水。MSF(多级闪蒸)海水淡化技术因其低温热源(废热/廉价能源)、结构简单、工艺可靠性高、维护简单等优点得到了广泛的认可。在现有的海水淡化技术中,MSF通常具有最高的水生产成本,可以通过使用太阳能/热电联产来降低成本。由于阿布扎比位于太阳能带地区,拥有巨大的太阳能,除了工业废物/化石燃料能源外,MSF海水淡化还可以利用太阳能供电,这将大大降低成本和碳足迹。在本研究中,使用ASPEN HYSYS V8软件包对多级闪蒸淡化进行建模。我们设计了系统的各个组成部分,主要是热源、真空/闪蒸室、热交换器,并开发了整个系统。本研究对多级闪蒸淡化系统的进给量、顶盐水温度、热输入、压力、产能等参数进行了研究。进行了两个实例研究,发现了进料流量、产水量以及腔压与蒸汽形成之间的关系。本设计将有助于建立中试工厂,进行实验测试和验证模型。
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