用于处理采出水的改进反渗透膜

R. Franks, Xiaofei Huang, Craig Bartels
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摘要

多年来,反渗透(RO)元件已用于采出水的处理,包括在加利福尼亚州的几个地点。反渗透可以将采出水中的盐分和有机物降低到可以处理或再利用的水平。用于处理采出水的反渗透元件在化学和结构上与传统的海水反渗透膜相似。但与海水相比,采出水的特性是独特而多样的。传统的海水膜具有压力和温度的限制,限制了其处理大范围采出水的能力。具体来说,传统膜有温度限制和压力限制。只有一部分需要处理的产出水在膜的温度和压力限制范围内。许多采出水,包括SAGD相关的采出水,需要能够承受高达60℃高温的膜。其他采出水可能允许在环境温度下进行处理,但其盐度高于60000 mg/l TDS,需要RO膜克服高渗透压,并在高达1800psi的进料压力下运行。近年来,膜制造商已经增强了他们现有的反渗透元件,以解决与处理特殊工业流(如采出水)相关的挑战。具体来说,新的,更坚固的元件结构允许设计师超越温度和压力的正常限制。其中一个元件允许在高达90℃的温度下工作,而另一个元件,超高压RO (UHPRO),可以在高达1,800 psi (124 bar)的压力下将总溶解盐(TDS)浓缩到120,000 ppm(12%)。这些独特的元素可以通过降低盐水处理成本和最大限度地提高水回收率来提高处理设施的整体效率。本文将展示这些新元件在超出常规压力和温度限制时的性能,包括在极端条件下单个离子通道和透水性如何受到影响。本文将分享来自实验室和试点研究的元素性能数据。这些数据将作为与采出水处理相关的极端条件下新设计的基础。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Improved Reverse Osmosis Membranes for Treating Produced Water
For many years, reverse osmosis (RO) elements have been used in the treatment of produced water, including at several sites in California. The RO reduces salts and organics in the produced water to a level that allows for disposal or reuse. The RO elements used to treat produced water are similar in chemistry and construction to the conventional seawater RO membrane. But compared to seawater, the characteristics of produce water are unique and varied. The conventional seawater membrane comes with pressure and temperature limitations that restrict its ability to treat a wide range of produced waters. Specifically, conventional membranes have a temperature limit and a pressure limit. Only a portion of the produce waters needing treatment fall within the membrane's temperature and pressure limitations. Many produced waters, including produce waters associated with SAGD, require membranes that can accommodate higher temperatures up to 60 C. Other produced waters may allow for treatment at ambient temperatures but their higher salinities above 60,000 mg/l TDS require RO membrane to overcome high osmotic pressures and operate at feed pressures up to 1800 psi. In recent years, membrane manufacturers have enhanced their exiting RO elements to address the challenges associated with the treatment of unique industrial streams such as produced water. Specifically, new, more robust element construction allow designers to push beyond the normal limits of temperature and pressure. One such element allows for operation at temperatures up to 90 C while a second, ultra high-pressure RO (UHPRO), can concentrate the total dissolved salts (TDS) up to 120,000 ppm (12%) while operating at pressures up to 1,800 psi (124 bar). These unique elements can be used to increase the overall efficiency of the treatment facility by reducing the cost of brine disposal and maximizing water recovery. This paper will show how these new elements perform when operated beyond conventional pressure and temperature limits - including how individual ion passage and water permeability are affected at extreme conditions. This paper will share element performance data from laboratory and pilot studies. The data will be used as a basis for new designs at the extreme conditions associated with produced water treatment.
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