Publication | Open Access
Produced water treatment technologies
752
Citations
67
References
2012
Year
Environmental ElectrochemistryEngineeringWastewater TreatmentChemical EngineeringElectrolyzer CellWater TreatmentElectrolyzed WaterHealth SciencesProduced WaterElectrochemistryWater TechnologyEnvironmental EngineeringPretreatmentWater PurificationWater Technology InnovationWater ManagementWater ElectrolysisProduced Water ManagementElectrolysis Of Water
Produced water, the largest by‑product of oil and gas recovery, contains complex organic and inorganic compounds and is increasingly viewed as a potential freshwater source amid growing environmental concerns and stricter discharge regulations. This review evaluates existing produced‑water treatment technologies, explores electrochemical approaches, and assesses their future development prospects. The authors analyze electrochemical methods such as photoelectrochemistry, water electrolysis, fuel cells, and electrodeposition for their applicability to produced‑water treatment. They conclude that electrochemical technologies, leveraging produced water’s conductivity, can enable energy‑efficient water purification, metal recovery, and minimal environmental impact.
Produced water is a complex mixture of organic and inorganic compounds and the largest volume of by-product generated during oil and gas recovery operations. The potential of oilfield produced water to be a source of fresh water for water-stressed oil-producing countries and the increasing environmental concerns in addition to stringent legislations on produced water discharge into the environment have made produced water management a significant part of the oil and gas business. This article reviews current technologies for the management of produced water, examines how electrochemical techniques may be used in these areas and compares the prospects for future development. It suggests that treatment technologies based on electrochemistry could be the future of produced water management, since produced water is a potential electrolyte because it has a relatively good conductivity. It also explains that by applying photoelectrochemistry, water electrolysis, fuel cell and electrodeposition, electrochemical engineering could achieve energy storage, production of clean water and recovery of valuable metals from produced water with minimal or no negative impact on the environment.
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