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产出油中的甲苯耗尽有助于控制注硝酸盐的油田的酸化。

Toluene depletion in produced oil contributes to souring control in a field subjected to nitrate injection.

机构信息

Petroleum Microbiology Research Group, Department of Biological Sciences, University of Calgary, 2500 University Drive NW, Calgary, Alberta, T2N 1N4, Canada.

出版信息

Environ Sci Technol. 2012 Jan 17;46(2):1285-92. doi: 10.1021/es203748b. Epub 2012 Jan 4.

DOI:10.1021/es203748b
PMID:22148580
Abstract

Souring in the Medicine Hat Glauconitic C field, which has a low bottom-hole temperature (30 °C), results from the presence of 0.8 mM sulfate in the injection water. Inclusion of 2 mM nitrate to decrease souring results in zones of nitrate-reduction, sulfate-reduction, and methanogenesis along the injection water flow path. Microbial community analysis by pyrosequencing indicated dominant community members in each of these zones. Nitrate breakthrough was observed in 2-PW, a major water- and sulfide-producing well, after 4 years of injection. Sulfide concentrations at four other production wells (PWs) also reached zero, causing the average sulfide concentration in 14 PWs to decrease significantly. Interestingly, oil produced by 2-PW was depleted of toluene, the preferred electron donor for nitrate reduction. 2-PW and other PWs with zero sulfide produced 95% water and 5% oil. At 2 mM nitrate and 5 mM toluene, respectively, this represents an excess of electron acceptor over electron donor. Hence, continuous nitrate injection can change the composition of produced oil and nitrate breakthrough is expected first in PWs with a low oil to water ratio, because oil from these wells is treated on average with more nitrate than is oil from PWs with a high oil to water ratio.

摘要

在 Medicine Hat Glauconitic C 气田,由于注入水中含有 0.8 mM 的硫酸盐,导致回注井底温度(30°C)较低。添加 2 mM 的硝酸盐来抑制酸化,导致在注入水流路径上形成硝酸盐还原、硫酸盐还原和产甲烷带。焦磷酸测序的微生物群落分析表明,在这些区域中都存在优势的微生物群落成员。在注入 4 年后,主要产水和产硫化物的 2-PW 井中出现了硝酸盐突破。其他四口生产井(PW)的硫化物浓度也降至零,导致 14 口生产井的平均硫化物浓度显著下降。有趣的是,2-PW 井生产的石油中甲苯耗尽,甲苯是硝酸盐还原的首选电子供体。2-PW 和其他零硫化物生产井的产水率为 95%,产油率为 5%。在分别添加 2 mM 硝酸盐和 5 mM 甲苯的情况下,电子受体的含量超过了电子供体。因此,连续的硝酸盐注入会改变产出油的组成,预计硝酸盐突破首先会发生在油井产出比(即产油量与产水量的比值)较低的井中,因为这些井的油平均需要比油井产出比高的井更多的硝酸盐处理。

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