冷却排污水与采出水的新型协同处理:资源回收和减少处理足迹的区域方法

IF 4.8 Q1 ENVIRONMENTAL SCIENCES ACS ES&T water Pub Date : 2024-07-26 DOI:10.1021/acsestwater.4c0025910.1021/acsestwater.4c00259
Mohammad Hafez Ahmed, Golnoosh Khajouei, Payton Seats, Karen Buzby, Harry Finklea, Nicholas Siefert, Heather Hunter and Lian-Shin Lin*, 
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引用次数: 0

摘要

利用页岩气生产过程中产生的冷却排污水(BDW)和采出水(PW)的互补化学性质,该试验研究评估了它们进行协同处理的可行性,以生成有用的产品,同时减少处理足迹。该工艺包括混合 BDW 和 PW、化学软化、活性炭 (AC) 过滤和反渗透 (RO)。结果表明,简单地混合 BDW 和 PW(BDW/PW = 5)可轻松去除 98% 的钡和 85% 的硫酸盐,并生成高密度(4.1 g/cm3)的重晶石为主的固体,混合水的产量为 1.92 kg/m3。使用碳酸钠和氢氧化钠软化可去除 95% 的成垢二价离子,交流过滤可去除 90% 的总有机碳。AC 出水的反渗透处理实现了 ∼ 60% 的水回收率。与分别处理 BDW 和 PW 相比,联合处理工艺节省了 70% 的化学药剂。反渗透浓缩物的 TDS(77 克/升)足够高,适合热蒸发生成商业级 10 磅盐水。对使用西弗吉尼亚州热电厂的协同处理方案进行的初步技术经济分析表明,该方案具有节约成本和创造收入的潜力。这项研究证明了协同处理方法作为可持续区域水管理的有用工具的潜力。冷却排污水和生产用水的协同管理为关键矿物质和低盐度水的回收提供了机会。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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Novel Co-treatment of Cooling Blowdown Water and Produced Water: A Regional Approach for Resource Recovery and Treatment Footprint Reduction

Taking advantage of the complementary chemistries of the cooling blowdown water (BDW) and produced water (PW) from shale gas production, this pilot study evaluated their co-treatment feasibility to generate useful products while reducing treatment footprints. The process includes the mixing of BDW and PW, chemical softening, activated carbon (AC) filtration, and reverse osmosis (RO). The results showed that a simple mixing of BDW and PW (BDW/PW = 5) readily removed 98% of barium and 85% of sulfate and generated a high-density (4.1 g/cm3) barite-dominant solid with a yield of 1.92 kg/m3 mixed water. Softening using sodium carbonate and sodium hydroxide removed >95% scale forming divalent ions, and the AC filtration resulted in ∼90% total organic carbon removal. RO treatment of the AC effluent achieved ∼60% water recovery. Compared to BDW and PW treated separately, the co-treatment process resulted in a ∼70% chemical saving. The RO concentrate had high enough TDS (77 g/L) suitable for thermal evaporation to generate commercial-grade 10-lb brine. An initial technoeconomic analysis of a co-treatment scenario using a thermoelectric powerplant in West Virginia shows cost saving potential and revenue generation. This study demonstrates the potential of the co-treatment method as a useful tool for sustainable regional water management.

Co-management of cooling blowdown water and produced water offers opportunities of critical mineral and low-salinity water recovery.

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