Experimental investigation of the impact of soybean oil-derived surfactant as a surface-active agent during gas well deliquification

Q1 Earth and Planetary Sciences
Gbadegesin Abioun Adeyemi, Kegang Ling, Adesina Fadairo
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引用次数: 0

Abstract

The inability of the gas rate to overcome the gas critical (minimum) flow rate leads to liquid loading in a gas well. To avoid premature well shut-in, the injection of surfactants is one of the standard methods used in gas well deliquification, although many commercial surfactants pose environmental toxicity concerns. This project investigates the suitability of biosurfactants in generating foam that will reduce the surface tension of the liquid by adsorbing at the liquid-gas interface to create a more significant mass than the liquid droplets which can be easily extracted from the walls of the wellbore. An experimental setup simulating gas well conditions introduce a surfactant derived from soybean oil, subjecting it to tests for foam stability, unloading efficiency, and dynamic surface tension. The results from the modified ASTM D-892 test show that Soybean Oil Derived Surfactant (SODS) exhibits promising surface tension reduction properties and effectively alters the gas-liquid interface. With the increase in concentration from 200 ppm, 400 ppm, and 600 ppm, the expelled water increased from 17%, 28%, and 70% respectively. Similarly, Gao-Rosen adsorption isotherms confirmed SODS appropriate for the prediction of the adsorption from solution with the R2 values of approximately 1.0. This study introduces a cost-effective and environmentally friendly surfactant that performs favorably for gas well deliquification.
气井脱胶过程中大豆油衍生表面活性剂作为表面活性剂的影响实验研究
气体流速无法超过气体临界(最小)流速会导致气井中出现液体负载。为避免气井过早关闭,注入表面活性剂是气井脱液的标准方法之一,但许多商用表面活性剂会对环境产生毒性。本项目研究了生物表面活性剂在产生泡沫方面的适用性,这种泡沫可通过吸附在液体-气体界面来降低液体的表面张力,从而产生比液滴更大的质量,而液滴可以很容易地从井筒壁上提取出来。模拟气井条件的实验装置引入了一种从大豆油中提取的表面活性剂,对其进行了泡沫稳定性、卸载效率和动态表面张力测试。修改后的 ASTM D-892 试验结果表明,大豆油衍生表面活性剂(SODS)具有良好的降低表面张力特性,能有效改变气液界面。随着浓度从 200 ppm、400 ppm 到 600 ppm 的增加,排出的水分分别增加了 17%、28% 和 70%。同样,高-罗森吸附等温线证实 SODS 适合预测溶液中的吸附量,R2 值约为 1.0。这项研究介绍了一种成本效益高且环保的表面活性剂,它在气井脱胶方面表现出色。
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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来源期刊
Petroleum Research
Petroleum Research Earth and Planetary Sciences-Geology
CiteScore
7.10
自引率
0.00%
发文量
90
审稿时长
35 weeks
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