基于火用和热力学分析的工业多级闪蒸脱盐过程建模与仿真。以Azzour海水淡化厂为例

IF 1 Q4 ENGINEERING, CHEMICAL
Abdullah H. Almerri, M. Al‐Obaidi, S. Alsadaie, I. Mujtaba
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引用次数: 2

摘要

MSF是一项成熟的技术,尽管它是一项高能耗技术,但它具有高质量水的生产能力。多级闪蒸脱盐是海水淡化工业中重要的热脱盐技术之一,可生产出大量、优质的淡水。然而,这一过程消耗大量的能量,并面临热限制,由于其高度的火用破坏在过程的几个单元。因此,对MSF的研究仍然存在,以提高性能指标,解决高能耗的担忧。为了纠正这些限制,确定耗散能量的单位是很重要的。本研究的目的是建立一个工业MSF过程的模型,根据实际数据进行验证,然后研究该过程的火用破坏和热力学限制。作为一个案例研究,位于科威特Al Khiran的Azzour MSF海水淡化厂是重点研究对象。通过对几个已发表模型的分析,建立了一个综合模型。具体来说,计算的火用破坏嵌入了物理和化学火用,确定为一个强点的模型开发。正如预期的那样,热回收段的火用破坏最高(55.5%),其次是盐水加热器,火用破坏占总火用破坏的28.26%。这项研究确定了工业过程中造成最高能量损失的部分。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Modelling and simulation of industrial multistage flash desalination process with exergetic and thermodynamic analysis. A case study of Azzour seawater desalination plant
Abstract Despite the fact of being intensive energy consumption, MSF is a mature technology that characterised by a high production capacity of high-quality water. The multistage flash (MSF) desalination process is one of the prominent thermal desalination used in the industry of seawater desalination to produce high quantity and high quality of freshwater. However, this process consumes large amount of energy and faces thermal limitations due to its high degree of exergy destruction at several units of the process. Therefore, the research of MSF is still existed to elevate the performance indicators and to resolve the concern of high energy consumption. To rectify these limitations, it is important to determine the units responsible in dissipating energy. This study aims to model an industrial MSF process validated against real data and then investigate the exergy destruction and thermodynamic limitations of the process. As a case study, Azzour MSF seawater desalination plant, located in Al Khiran in Kuwait is under the focus. A comprehensive model is developed by analysing several published models. Specifically, the calculation of exergy destruction has embedded both physical and chemical exergies that identified as a strong point of the model developed. As expected, the highest exergy destruction (55.5%) occurs within the heat recovery section followed by the brine heater with exergy destruction of 28.26% of the total exergy destruction. This study identifies the sections of the industrial process that cause the highest energy losses.
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来源期刊
Chemical Product and Process Modeling
Chemical Product and Process Modeling ENGINEERING, CHEMICAL-
CiteScore
2.10
自引率
11.10%
发文量
27
期刊介绍: Chemical Product and Process Modeling (CPPM) is a quarterly journal that publishes theoretical and applied research on product and process design modeling, simulation and optimization. Thanks to its international editorial board, the journal assembles the best papers from around the world on to cover the gap between product and process. The journal brings together chemical and process engineering researchers, practitioners, and software developers in a new forum for the international modeling and simulation community. Topics: equation oriented and modular simulation optimization technology for process and materials design, new modeling techniques shortcut modeling and design approaches performance of commercial and in-house simulation and optimization tools challenges faced in industrial product and process simulation and optimization computational fluid dynamics environmental process, food and pharmaceutical modeling topics drawn from the substantial areas of overlap between modeling and mathematics applied to chemical products and processes.
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