Lignin As a Potential Additive For Minimizing Surfactant Adsorption On Clay Minerals In Different Electrolyte Concentration

J. Tumba, A. Agi, Afeez O. Gbadamosi, R. Junin, Azza Hashim Abbas, Kourosh Rajaei, J. Gbonhinbor
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引用次数: 9

Abstract

The use of surfactants in chemical enhanced oil recovery can recover more oil trapped in the reservoir. However, the loss of surfactant due to adsorption on porous media renders the process ineffective and economically unfeasible. In this study, the adsorption of sodium dodecyl sulfate (SDS) and 4-octylphenol polyethoxylated (TX-100) on different clay minerals (kaolinite, montmorillonite, illite and quartz) as a function of the surfactant concentration, pH and salinity has been investigated. Besides, the use of lignin alkali as a sacrificial agent to reduce adsorption of surfactants in the reservoir is proposed. Surfactant adsorption on the different minerals was determined using the surface tension technique and batch equilibrium adsorption process with lignin as sacrificial agent. The experiment was conducted at varying pH and electrolyte concentrations. Furthermore, oil displacement test was conducted in a sandpack to determine the amount of oil recovered by the surfactant before and after pre-flush with lignin alkaline. Experimental result reveals that SDS adsorbed more on kaolinite while, TX-100 on montmorillonite. The decrease in pH increased the adsorption of SDS on kaolinite and illite, meanwhile, the adsorption of TX-100 on montmorillonite increased significantly at low pH. The optimum salinity concentration for both surfactants was at 20,000ppm for all the minerals except for kaolinite which was at 30,000ppm. Lignin alkaline reduced the surfactant adsorption by 50% and 53.2% for SDS and TX-100 respectively. Oil displacement test with SDS and TX-100 surfactants after water flooding had additional recovery of 7.44% and 4.18% respectively while, after pre-flush the recovery increased by 2.2%.
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木质素作为降低黏土矿物表面活性剂在不同电解质浓度下吸附的潜在添加剂
在化学提高采油中使用表面活性剂,可以提高储层中被困原油的采收率。然而,由于表面活性剂在多孔介质上的吸附而造成的损失使该工艺无效且经济上不可行。本研究考察了十二烷基硫酸钠(SDS)和4-辛基酚聚氧基化(TX-100)在不同黏土矿物(高岭石、蒙脱土、伊利石和石英)上的吸附与表面活性剂浓度、pH和盐度的关系。此外,还提出用木质素碱作为牺牲剂,减少表面活性剂在储层中的吸附。采用表面张力法和以木质素为牺牲剂的间歇平衡吸附法测定了表面活性剂对不同矿物的吸附。实验在不同的pH值和电解质浓度下进行。在砂堆中进行了驱油试验,以确定木质素碱预冲洗前后表面活性剂的采收率。实验结果表明,SDS对高岭石的吸附效果较好,而TX-100对蒙脱土的吸附效果较好。pH的降低增加了SDS在高岭石和伊利石上的吸附,同时,在低pH下,TX-100在蒙脱土上的吸附显著增加。除高岭石为30000 ppm外,两种表面活性剂的最佳盐度浓度均为20000 ppm。木质素对SDS和TX-100的吸附分别降低了50%和53.2%。水驱后SDS和TX-100表面活性剂驱油试验的额外采收率分别为7.44%和4.18%,预冲后采收率提高2.2%。
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