新型集成酸气去除和正向渗透抽液再生系统,节能和水处理

A. Amhamed, A. Abotaleb
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引用次数: 1

摘要

化学吸收是酸性气体去除(AGR)系统中用于处理酸性气体的最常用技术,但存在再生能量高和协同处理产出水的问题。共同处理的产出水通常被认为是一种废弃的副产品,但最近该行业开始将其作为一种潜在的利润加以利用。在本研究中,提出了一种新型的AGR和正向渗透(FO)再生系统,以降低两个系统的能耗,并处理AGR装置产生的废水。该工艺利用乙醇作为萃取液,正戊烷作为低沸点剂,在低温下促进乙醇-水混合物的分离。正戊烷是AGR和FO机组之间的交叉组分,通过一种新型省煤器冷却液取代循环精胺的常规冷却设备“空气冷却器和装饰冷却器”。本工作采用Aspen HYSYS V8.8胺包和CPA包进行FO-DS再生。结果表明,该方案可为新建AGR装置节省15%的资本成本(Capex),由于取消了精胺空气冷却器、修剪冷却器,减少了新建和现有装置20%以上的电力消耗。新AGR装置的净资本支出节省为9687美元/MMSCFD,而现有装置的增加资本支出为6504美元/MMSCFD。此外,经wt稀释后的提取液可作为处理水回收93.6%。该提案有望改造现有的AGR工艺和脱盐(FO)装置。
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Novel integrated acid gas removal and forward osmosis draw solution regeneration system for saving energy and water treatment
Chemical absorption is the most common technology used in the Acid Gas Removal (AGR) systems for treating sour gases, but suffers from high regeneration energy and co-process produced water. Co-process produced water is often considered a waste by-product, but recently the industry is beginning to exploit it as a potential profit. In this study, a novel integrated AGR and Forward Osmosis (FO) regeneration system is proposed to reduce the energy consumption in both systems, as well as treating the wastewater from the AGR units. This process utilizes ethanol as a draw solution (DS) along with n-pentane as a low boiling point agent for facilitating the separation of ethanol-water mixture at low temperature. N-pentane is the cross component between the AGR & FO units, through a new economizer coolant fluid replacing the circulated lean amine conventional cooling equipment “air cooler and trim cooler”. This work has been developed using Aspen HYSYS V8.8 amine package along with CPA package for FO-DS regeneration. The results show that, this proposal could save 15% of new AGR plants capital cost (Capex) due to eliminating the lean amine air cooler, trim cooler, reduce electrical consumption by more than 20% for new and existing plants. The net capex savings for the new AGR unit is $9687/MMSCFD, while added capex for existing units is $6504/MMSCFD. In addition, a 93.6% by wt. diluted draw solution could be recovered as a treated water. This proposal is promising for retrofitting an existing AGR process and desalination (FO) units.
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