Acid Orange 7 degradation using methane as the sole carbon source and electron donor

Abstract

• AO7 degradation was coupled with anaerobic methane oxidation.

• Higher concentration of AO7 inhibited the degradation.

• The maximum removal rate of AO7 reached 280 mg/(L·d) in HfMBR.

• ANME-2d dominated the microbial community in both batch reactor and HfMBR.

• ANME-2d alone or synergistic with the partner bacteria played a significant role.

Azo dyes are widely applied in the textile industry but are not entirely consumed during the dyeing process and can thus be discharged to the environment in wastewater. However, azo dyes can be degraded using various electron donors, and in this paper, Acid Orange 7 (AO7) degradation performance is investigated using methane (CH₄) as the sole electron donor. Methane has multiple sources and is readily available and inexpensive. Experiments using ¹³C-labeled isotopes showed that AO7 degradation was coupled with anaerobic oxidation of methane (AOM) and, subsequently, affected by the initial concentrations of AO7. Higher concentrations of AO7 could inhibit the activity of microorganisms, which was confirmed by the long-term performance of AO7 degradation, with maximum removal rates of 8.94 mg/(L·d) in a batch reactor and 280 mg/(L·d) in a hollow fiber membrane bioreactor (HfMBR). High-throughput sequencing using 16S rRNA genes showed that Candidatus Methanoperedens, affiliated to ANME-2d, dominated the microbial community in the batch reactor and HfMBR. Additionally, the relative abundance of Proteobacteria bacteria (Phenylobacterium, Pseudomonas, and Geothermobacter) improved after AO7 degradation. This outcome suggested that ANME-2d alone, or acting synergistically with partner bacteria, played a key role in the process of AO7 degradation coupled with AOM.

Graphical abstract

Keywords

Azo dyes / AO7 degradation / Anaerobic methane oxidation / Microbial community / ANME-2d

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