Mineral-Targeted Microbial Enhanced Oil Recovery

In the fluid (comprising oil and nutrient solution)-microbe-mineral ternary system of oil reservoirs, current microbial enhanced oil recovery (MEOR) technology lacks investigation into the interactions between the latter two components and their application potential in petroleum production. This may explain why MEOR has achieved only partial success while failing to meet full expectations. This review systematically synthesizes the existing fragmented research on reservoirs regarding rock minerals as direct/indirect microbial substrates in MEOR applications. Currently, microbe-mineral interactions enhance oil recovery primarily through the following mechanisms: clay swelling inhibition, induced mineral precipitation, silicate dissolution, wettability alteration, microbial acids etching, and hydrocarbon degradation modulation. Integrating contemporary findings on microbe-mineral interactions, three strategically prioritized MEOR implementation pathways demonstrate particular promise: microbially mediated weathering processes in silicate/carbonate reservoirs, microbial-induced mineral precipitation/dissolution cycles, and microbial leaching-assisted permeability enhancement. Finally, a total of 20 microorganisms potentially applicable for mineral-targeted MEOR were proposed. If MEOR technology could be re-examined from the perspective of microbe-mineral interactions and thoroughly investigated, integrating the knowledge on fluid-microbe binary systems in oil reservoir, this potentially transformative technology may achieve breakthroughs.

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Publication Details

Journal
Microorganisms
Published
2025-11-27
DOI
https://doi.org/10.3390/microorganisms13122706
Primary Topic
Microbial Applications in Construction Materials
Type
article
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article

Mineral-Targeted Microbial Enhanced Oil Recovery

Peidong Su, Lei Li, Chunhui Zhang
Microorganisms
Microbial Applications in Construction Materials
article

Mineral-Targeted Microbial Enhanced Oil Recovery

Peidong Su, Lei Li, Chunhui Zhang
article en

Abstract

In the fluid (comprising oil and nutrient solution)-microbe-mineral ternary system of oil reservoirs, current microbial enhanced oil recovery (MEOR) technology lacks investigation into the interactions between the latter two components and their application potential in petroleum production. This may explain why MEOR has achieved only partial success while failing to meet full expectations. This review systematically synthesizes the existing fragmented research on reservoirs regarding rock minerals as direct/indirect microbial substrates in MEOR applications. Currently, microbe-mineral interactions enhance oil recovery primarily through the following mechanisms: clay swelling inhibition, induced mineral precipitation, silicate dissolution, wettability alteration, microbial acids etching, and hydrocarbon degradation modulation. Integrating contemporary findings on microbe-mineral interactions, three strategically prioritized MEOR implementation pathways demonstrate particular promise: microbially mediated weathering processes in silicate/carbonate reservoirs, microbial-induced mineral precipitation/dissolution cycles, and microbial leaching-assisted permeability enhancement. Finally, a total of 20 microorganisms potentially applicable for mineral-targeted MEOR were proposed. If MEOR technology could be re-examined from the perspective of microbe-mineral interactions and thoroughly investigated, integrating the knowledge on fluid-microbe binary systems in oil reservoir, this potentially transformative technology may achieve breakthroughs.

MicroorganismsVol. 13(12)
China University of Mining and Technology (CN)
Openalex Percentile: Top 65%
Microbial Applications in Construction Materials
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