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Addressing wellbore integrity and thief zone permeability using microbially-induced calcium carbonate precipitation (MICP): A field demonstration

Microbially-induced calcium carbonate precipitation (MICP) is an emerging biotechnology for wellbore integrity applications including sealing defects in wellbore cement and modifying the permeability of rock formations. The goal of this field demonstration was to characterize a failed waterflood inj...

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Published in:Journal of petroleum science & engineering 2020-07, Vol.190 (C), p.107060, Article 107060
Main Authors: Kirkland, Catherine M., Thane, Abby, Hiebert, Randy, Hyatt, Robert, Kirksey, Jim, Cunningham, Alfred B., Gerlach, Robin, Spangler, Lee, Phillips, Adrienne J.
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cited_by cdi_FETCH-LOGICAL-c379t-b1bc7eeb761308ebef364961078dabbfc9d0667eb203ef68af63b47e35736ed13
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container_title Journal of petroleum science & engineering
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creator Kirkland, Catherine M.
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description Microbially-induced calcium carbonate precipitation (MICP) is an emerging biotechnology for wellbore integrity applications including sealing defects in wellbore cement and modifying the permeability of rock formations. The goal of this field demonstration was to characterize a failed waterflood injection well and provide proof of principle that MICP can reduce permeability in the presence of oil using conventional oilfield fluid delivery methods. We compared well logs performed at the time the well was drilled with ultrasonic logs, sonic cement evaluation, and temperature logs conducted after the well failed. Analysis of these logs suggested that, rather than entering the target waterflood formation, injectate was traveling through defects in the well cement to a higher permeability sandstone layer above the target formation. Sporosarcina pasteurii cultures and urea-calcium media were delivered 2290 ft (698 m) below ground surface using a 3.75 gal (14.2 L) slickline dump bailer to promote mineralization in the undesired flow paths. By Day 6 and after 25 inoculum and 49 calcium media injections, the injectivity [gpm/psi] had decreased by approximately 70%. This demonstration shows that 1) common well logs can be used to identify scenarios where MICP can be employed to reduce system permeability, remediate leakage pathways, and improve waterflood efficiency, and 2) MICP can occur in the presence of hydrocarbons. •Well logs can identify where MICP could reduce permeability to improve waterflooding.•S. pasteurii and urea-calcium media produced bio-cement 2290 ft (698 m) underground.•By Day 6 and after 74 bailer injections, the well's injectivity had decreased by 70%.•MICP to improve waterflood efficiency can occur in the presence of hydrocarbons.
doi_str_mv 10.1016/j.petrol.2020.107060
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subjects MICP
Microbially-induced calcium carbonate precipitation
Sporosarcina pasteurii
Ureolysis
Waterflooding
Wellbore integrity
title Addressing wellbore integrity and thief zone permeability using microbially-induced calcium carbonate precipitation (MICP): A field demonstration
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