多效/热蒸汽压缩蒸馏过程的建模与仿真

Khalid Bamardouf, O. Hamed, A. Mahmoud
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引用次数: 0

摘要

与热蒸汽压缩(TVC)工艺相结合的多效蒸馏(MED)最近已应用于海湾合作委员会国家的许多海水淡化厂,并成为多级闪蒸(MSF)工艺的有力竞争对手。与MSF工艺相比,MED/TVC脱盐工艺的特点是功耗低。与MSF技术相比,MSF技术的最高卤水温度为110°C,目前在65°C的低TBT下运行,以避免结垢,这降低了结垢的可能性,降低了结垢风险。对MED/TVC海水淡化厂使用更有效的预处理,如纳米过滤或高性能添加剂抗垢剂,将允许在更高的TBT下运行MED,从而提高性能比。建立了稳态模拟程序,分析了平行进料流MED/TVC机组在65 ~ 125℃宽TBT范围内的热力学行为,以及不同动力蒸汽压力条件下不同次数对性能比的影响。考虑了不同的设计方案,以优化MED系统的运行,以提高MED技术的经济性和性能。
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 the Multi-effect/Thermal Vapor Compression Distillation Process
The Multi-effect distillation (MED) associated with thermal vapor compression (TVC) process has recently been applied for a number of desalination plants in the GCC countries and emerged as a strong competitor to the multistage flash distillation (MSF) process. The MED/TVC desalination process is characterized by low power consumption compared to the MSF process. It is currently operated at low TBT of 65°C to avoid scale formation compared to MSF technology which operate at top brine temperature of 110°C, this lead to lower tendency to scale formation and less fouling risk. The use of more efficient pretreatment to MED/TVC desalination plants such as nano-filtration or high performance additive antiscalant would allow operating MED at higher TBT which allow increasing the performance ratio. A simulation steady-state program has been established to analyze the thermodynamic behavior of parallel feed flow MED/TVC unit at a wide range of TBT from 65°C up to 125°C and different number of effects with different condition of motive steam pressure on the performance ratio, and specific heat transfer and therefore the best design of MED for the future different design options were considered to optimize the operational of MED system to enhance the economics and performance of MED technology.
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