Microbial Dynamics and Control in Shale Gas Production

被引:41
|
作者
Gaspar, Jason [1 ]
Mathieu, Jacques [1 ]
Yang, Yu [1 ]
Tomson, Ross [2 ]
Leyris, Juliette Diouma [3 ]
Gregory, Kelvin B. [4 ]
Alvarez, Pedro J. J. [1 ]
机构
[1] Rice Univ, Dept Civil & Environm Engn, Houston, TX 77005 USA
[2] Brine Chem Solut, Shale Water Res Ctr, Houston, TX 77054 USA
[3] STATOIL, Houston, TX 77042 USA
[4] Carnegie Mellon Univ, Dept Civil & Environm Engn, Pittsburgh, PA 15213 USA
来源
关键词
THERMOCHEMICAL SULFATE REDUCTION; HYDRAULIC FRACTURING FLUIDS; REDUCING BACTERIUM; COMMUNITY STRUCTURE; NITRATE INJECTION; HYDROGEN-SULFIDE; OIL-FIELD; SOUR GAS; SP-NOV; RESISTANCE;
D O I
10.1021/ez5003242
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
Microorganisms can cause detrimental effects in shale gas production, such as reservoir souring, plugging, equipment corrosion, and a decrease in hydrocarbon production volume and quality, thus representing a multi-billion-dollar problem. Prefracturing fluids, drilling mud, and impoundment water likely introduce deleterious microorganisms into shale gas reservoirs. Conditions within the reservoir generally select for halotolerant anaerobic microorganisms. Microbial abundance and diversity in flowback waters decrease shortly after hydraulic fracturing, with Clostridia, a class that includes spore-forming microorganisms, becoming dominant. The rapid microbial community successions observed suggest biocides are not fully effective, and more targeted treatment strategies are needed. At the impoundment level, microbial control strategies should consider biocide rotation, seasonal loading adjustments, and biocide pulse dosing. In shale plays where souring is common, stable S-34/S-32 isotope analysis to identify abiotic H2S is recommended to evaluate the merits of biocide application in treating reservoir souring. Overall, an improved understanding of the microbial ecology of shale gas reservoirs is needed to optimize microbial control, maximize well productivity, and reduce environmental and financial burdens associated with the ad hoc misuse and overuse of biocides.
引用
收藏
页码:465 / 473
页数:9
相关论文
共 50 条
  • [1] Transmissibility Corrections and Grid Control for Shale Gas Numerical Production Forecasts
    Artus, V.
    Fructus, D.
    OIL & GAS SCIENCE AND TECHNOLOGY-REVUE D IFP ENERGIES NOUVELLES, 2012, 67 (05): : 805 - 821
  • [2] A Primer on the Economics of Shale Gas Production Just How Cheap is Shale Gas?
    Lake, Larry W.
    Martin, John
    Ramsey, J. Douglas
    Titman, Sheridan
    JOURNAL OF APPLIED CORPORATE FINANCE, 2013, 25 (04) : 87 - +
  • [3] Analysis and control of microbial gas production in fermented chili paste
    Zheng, Yu
    Chen, Ju
    Chen, Lin
    Hu, Tao
    Shi, Lei
    Wan, Shoupeng
    Wang, Min
    JOURNAL OF FOOD PROCESSING AND PRESERVATION, 2020, 44 (10)
  • [4] Nanopore control on shale gas transport in shale mudstones
    Yoon, Hongkyu
    Dewers, Thomas
    ABSTRACTS OF PAPERS OF THE AMERICAN CHEMICAL SOCIETY, 2013, 246
  • [5] Numerical simulation of shale gas production
    Mu, Songru
    Zhang, Shicheng
    ADVANCES IN METALLURGICAL AND MINING ENGINEERING, 2012, 402 : 804 - 807
  • [6] First shale gas production by PGNiG
    不详
    OIL GAS-EUROPEAN MAGAZINE, 2011, 37 (04): : 174 - 174
  • [7] Shale Gas Transition in China: Evidence Based on System Dynamics Model for Production Prediction
    Chen, Yingchao
    Zhang, Yang
    ENERGIES, 2025, 18 (04)
  • [8] Environmental risks of shale gas exploitation and solutions for clean shale gas production in China
    Gao, Shikui
    Guan, Quanzhong
    Dong, Dazhong
    Huang, Fang
    FRONTIERS OF EARTH SCIENCE, 2021, 15 (02) : 406 - 422
  • [9] Environmental risks of shale gas exploitation and solutions for clean shale gas production in China
    Shikui Gao
    Quanzhong Guan
    Dazhong Dong
    Fang Huang
    Frontiers of Earth Science, 2021, 15 : 406 - 422
  • [10] Environmental risks of shale gas exploitation and solutions for clean shale gas production in China
    Shikui GAO
    Quanzhong GUAN
    Dazhong DONG
    Fang HUANG
    Frontiers of Earth Science, 2021, (02) : 406 - 422