Characteristics and genomic mechanism of Absidia spinosa in inhibiting coal spontaneous combustion

Early prevention and control of coal spontaneous combustion have emerged as a critical research area in coal mine safety. Due to their sustainability and environmental friendliness, microorganisms have gained attention. A filamentous fungus was collected in the coal mine and identified as Absidia spinosa . Results indicated that the mycelium effectively covered and repaired many coal pores. The oxygen consumption ratio of A. spinosa was higher in coal-containing environments than in coal-free conditions. The fungus significantly impacted aliphatic functional groups, disrupting bridging bonds and side chains connected to aromatic structures and reducing the relative content of C O bonds. Additionally, A. spinosa increases the ignition temperature by 25.34 °C. The total heat release was decreased by approximately 32.58 %, and the activation energies were increased. The genome of Absidia spinosa revealed genes related to oxygen consumption, small molecule degradation, and secretion of metabolic products, such as those annotated under GO ID: 0140657, etc. The pathways involved in the degradation of small organic molecules (e.g., ko00626, etc.), carbon fixation, and nitrogen cycling, all linked to coal decomposition. Through oxygen consumption and the alteration of coal-active structures, A. spinosa effectively inhibits CSC, providing an experimental basis for exploring eco-friendly biological control methods in the goaf.

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Publication Details

Journal
International Journal of Mining Science and Technology
Published
2025-11-05
DOI
https://doi.org/10.1016/j.ijmst.2025.10.004
Citations
1
Primary Topic
Coal Properties and Utilization
Type
article
Field-Weighted Citation Impact
1.15
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article

Characteristics and genomic mechanism of Absidia spinosa in inhibiting coal spontaneous combustion

Botao Qin, Tiesheng Han, Xiangming Hu, Liwen Guo et al.
1 citations
International Journal of Mining Science and Technology
Coal Properties and Utilization
1.15
article

Characteristics and genomic mechanism of Absidia spinosa in inhibiting coal spontaneous combustion

Botao Qin, Tiesheng Han, Xiangming Hu, Liwen Guo, Xuanmeng Dong, Fusheng Wang
article en
1 citations

Abstract

Early prevention and control of coal spontaneous combustion have emerged as a critical research area in coal mine safety. Due to their sustainability and environmental friendliness, microorganisms have gained attention. A filamentous fungus was collected in the coal mine and identified as Absidia spinosa . Results indicated that the mycelium effectively covered and repaired many coal pores. The oxygen consumption ratio of A. spinosa was higher in coal-containing environments than in coal-free conditions. The fungus significantly impacted aliphatic functional groups, disrupting bridging bonds and side chains connected to aromatic structures and reducing the relative content of C O bonds. Additionally, A. spinosa increases the ignition temperature by 25.34 °C. The total heat release was decreased by approximately 32.58 %, and the activation energies were increased. The genome of Absidia spinosa revealed genes related to oxygen consumption, small molecule degradation, and secretion of metabolic products, such as those annotated under GO ID: 0140657, etc. The pathways involved in the degradation of small organic molecules (e.g., ko00626, etc.), carbon fixation, and nitrogen cycling, all linked to coal decomposition. Through oxygen consumption and the alteration of coal-active structures, A. spinosa effectively inhibits CSC, providing an experimental basis for exploring eco-friendly biological control methods in the goaf.

International Journal of Mining Science and TechnologyVol. 36(1)
North China University of Science and Technology (CN), China University of Mining and Technology (CN), Shandong University of Science and Technology (CN)
Openalex Percentile: Top 17%
Coal Properties and Utilization
1.15
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Characteristics and genomic mechanism of Absidia spinosa in inhibiting coal spontaneous combustion — Botao Qin, Tiesheng Han, et al. · International Journal of Mining Science and Technology (2025) | TGRS Research Map | TGRS