Minimal Liquid Discharge (MLD) and Zero Liquid Discharge (ZLD) strategies for wastewater management and resource recovery - Analysis, challenges and prospects

被引:213
作者
Panagopoulos, Argyris [1 ]
Haralambous, Katherine-Joanne [1 ]
机构
[1] Natl Tech Univ Athens, Sch Chem Engn, 9 Iroon Polytech St, Athens 15780, Greece
来源
JOURNAL OF ENVIRONMENTAL CHEMICAL ENGINEERING | 2020年 / 8卷 / 05期
关键词
Minimal liquid discharge; Zero liquid discharge; Brine treatment; High-salinity wastewater treatment; Resource recovery; Industrial wastewater treatment; PRESSURE REVERSE-OSMOSIS; OF-THE-ART; ELECTRODIALYSIS REVERSAL; MEMBRANE DISTILLATION; SEEDED PRECIPITATION; DESALINATION PROCESS; INLAND DESALINATION; CIRCULAR ECONOMY; BRINE; SEAWATER;
D O I
10.1016/j.jece.2020.104418
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
Brine is a saline wastewater generated from several industries (e.g., desalination, energy and oil production) and its disposal can have adverse environmental impacts. To address this issue, brine treatment seems to be a promising option to eliminate the wastewater discharge, while also recovering extra freshwater and valuable materials such as salts. This can be achieved through minimal liquid discharge (MLD) and zero liquid discharge (ZLD) strategies. In this work, MLD and ZLD frameworks are analyzed and evaluated under 9 criteria (framework stages, technologies, freshwater recovery target, feed brine salinity, energy consumption of each technology, GHGs emissions, cost impact, resource recovery and social impact). Moreover, a case-study is presented under two different scenarios, Scenario 1 (MLD system) and Scenario 2 (ZLD system). Results showed that the energy consumption of the ZLD system is 10.43 kW h/m(3) which is 1.93 times higher than the energy consumption of the MLD system (5.4 kW h/m(3)). The total freshwater recovery of the MLD system is 84.6 %, whereas the total freshwater recovery of the ZLD system is 98.15 %. Overall, the results suggest that the MLD and ZLD strategies can be valuable strategies for wastewater utilization, reuse, and resource recovery.
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页数:11
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共 125 条
[61]  
Jye L.W.A.F. Ismail., 2016, Nanofiltration Membranes: Synthesis, Characterization, and Applications
[62]   Treatment and reuse of shale gas wastewater: Electrocoagulation system for enhanced removal of organic contamination and scale causing divalent cations [J].
Kausley, Shankar B. ;
Malhotra, Chetan P. ;
Pandit, Aniruddha B. .
JOURNAL OF WATER PROCESS ENGINEERING, 2017, 16 :149-162
[63]  
Kharaka Y, 2019, SHALE SUBSURFACE SCI, P27
[64]   Energy requirements in the separation-regeneration step in forward osmosis using TMA-CO2-H2O as the draw solution [J].
Kolliopoulos, Georgios ;
Martin, Jeffrey T. ;
Papangelakis, Vladimiros G. .
CHEMICAL ENGINEERING RESEARCH & DESIGN, 2018, 140 :166-174
[65]  
Kucera J., 2019, Desalination: Water from water
[66]  
Lacy P, 2015, WASTE TO WEALTH: THE CIRCULAR ECONOMY ADVANTAGE, P1
[67]   Characterization of hydraulic fracturing flowback water in Colorado: Implications for water treatment [J].
Lester, Yaal ;
Ferrer, Imma ;
Thurman, E. Michael ;
Sitterley, Kurban A. ;
Korak, Julie A. ;
Aiken, George ;
Linden, Karl G. .
SCIENCE OF THE TOTAL ENVIRONMENT, 2015, 512 :637-644
[68]   Investigations into ice scaling during eutectic freeze crystallization of brine streams at low scraper speeds and high supersaturation [J].
Leyland, Debbie ;
Chivavava, Jemitias ;
Lewis, Alison E. .
SEPARATION AND PURIFICATION TECHNOLOGY, 2019, 220 :33-41
[69]   Antiwetting and Antifouling Janus Membrane for Desalination of Saline Oily Wastewater by Membrane Distillation [J].
Li, Chenxi ;
Li, Xuesong ;
Du, Xuewei ;
Tong, Tiezheng ;
Cath, Tzahi Y. ;
Lee, Jongho .
ACS APPLIED MATERIALS & INTERFACES, 2019, 11 (20) :18456-18465
[70]   Cost and environmental impact of nanofiltration in treating chemically pre-treated surface water [J].
Liikanen, Riina ;
Yli-Kuivila, Jukka ;
Tenhunen, Jyrki ;
Laukkanen, Risto .
DESALINATION, 2006, 201 (1-3) :58-70