Performance Evaluation of Bacterial Consortia from Low-Permeability Reservoir in Ordos Basin

The combination of strains of different species and genera may enhance the effects of single bacteria, surpass the tolerance upper limit, and optimize the viscosity reduction and degradation. In this study, six strains were isolated in low permeability layers of the Ordos Basin and were combined to...

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Veröffentlicht in:International journal of energy research 2023-09, Vol.2023, p.1-16
Hauptverfasser: Bian, Ziwei, Zhi, Zena, Zhang, Xiangchun, Qu, Yiqian, Wei, Lusha, Wu, Hanning, Wu, Yifei
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container_title International journal of energy research
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creator Bian, Ziwei
Zhi, Zena
Zhang, Xiangchun
Qu, Yiqian
Wei, Lusha
Wu, Hanning
Wu, Yifei
description The combination of strains of different species and genera may enhance the effects of single bacteria, surpass the tolerance upper limit, and optimize the viscosity reduction and degradation. In this study, six strains were isolated in low permeability layers of the Ordos Basin and were combined to verify the effect of the consortium strains. The selected single strains have good emulsifying and viscosity-reducing effects, but their degradation components are different. SC4561 (Bacillus cereus), SC4551 (Bacillus sp.), and H-1 (Brevibacillus sp.) form consortium A, and SC4534 (2) (Bacillus sp.), SC4542 (Bacillus licheniformis), and A-3 (Bacillus licheniformis) form consortium B. The performance of the mixed strains was evaluated by the analysis of change in emulsification rate, crude oil composition, viscosity, and the tolerance (temperature, salinity, and pH) through GC-MS, rotational rheometer, and other methods. The results showed that the temperature tolerance of the consortium strains was improved by 5-7°C. Consortium B had higher emulsibility (E24 was higher than 40% in average) and viscosity degradation (above 35%), and the crude oil in consortium B has almost no wall adhesion. The components of crude oil that consortia use were still diverse, including both long- and short-chain hydrocarbons. However, the proportion of long-chain n-alkanes is further reduced compared with that of single bacteria, and the highest ratio was reduced by 23.81% (B-ALL). At the same time, they also had effects on aromatic hydrocarbons with complex structures (phenanthrene and phenanthrene). This research confirms the enhanced effect of consortium bacteria on single bacteria, facilitating the implementation of microbial enhanced oil recovery technology in the future.
doi_str_mv 10.1155/2023/4728717
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Consortium B had higher emulsibility (E24 was higher than 40% in average) and viscosity degradation (above 35%), and the crude oil in consortium B has almost no wall adhesion. The components of crude oil that consortia use were still diverse, including both long- and short-chain hydrocarbons. However, the proportion of long-chain n-alkanes is further reduced compared with that of single bacteria, and the highest ratio was reduced by 23.81% (B-ALL). At the same time, they also had effects on aromatic hydrocarbons with complex structures (phenanthrene and phenanthrene). 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subjects Alkanes
Aromatic compounds
Aromatic hydrocarbons
Bacillus
Bacillus licheniformis
Bacteria
Components
Consortia
Contact angle
Crude oil
Degradation
Emulsification
Enhanced oil recovery
Hydrocarbons
Microbiological strains
Microorganisms
Oil recovery
Performance evaluation
Permeability
Phenanthrene
Salinity
Strains (organisms)
Surfactants
Temperature
Temperature tolerance
Viscosity
title Performance Evaluation of Bacterial Consortia from Low-Permeability Reservoir in Ordos Basin
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