Oxygen traces impact on biological methanation from hydrogen and CO2

IF 9 1区 环境科学与生态学 Q1 AGRICULTURAL ENGINEERING Bioresource Technology Pub Date : 2025-01-16 DOI:10.1016/j.biortech.2025.132080
Pierre Buffière , Diana Amaya Ramirez , Ruben Teixeira Franco , Julie Figueras , Stéphane Hattou , Hassen Benbelkacem
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Abstract

Biomethane production from biological methanation of CO2 is promising both for biogas upgrading and surplus renewable energy storage. One of the questions for process upscaling is the impact of oxygen (in the biogas or in the purified CO2-rich off-gas) on the biological process. An adapted anaerobic thermophilic consortium was submitted to increasing amounts of oxygen in batch and continuous tests at partial pressures ranging from 0 to 50 mbar. Oxygen was quickly consumed and hydrogen uptake remained similar. In the same time, methane production dropped (−4 % in continuous tests). Part of the oxygen introduced was reduced biologically by hydrogen. The amount of hydrogen diverted to oxygen reduction (up to 15 % at 50 mbar O2) was proportional to the oxygen partial pressure. These results suggest that biological methanation systems tolerate the presence of oxygen. However, additional hydrogen should be added to maintain the conversion of CO2 into methane.

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氧对氢和二氧化碳的生物甲烷化的影响。
二氧化碳的生物甲烷化生产生物甲烷在沼气升级和剩余可再生能源储存方面都很有前景。过程升级的问题之一是氧气(在沼气或纯化的富含二氧化碳的废气中)对生物过程的影响。在0至50 毫巴的分压范围内,对适应性厌氧嗜热联合体进行了批量增加氧气量和连续试验。氧气很快被消耗,而氢的吸收率保持不变。与此同时,甲烷产量下降(连续测试中-4 %)。部分引入的氧气被氢生物还原。用于氧还原的氢量(在50 毫巴O2下可达15 %)与氧分压成正比。这些结果表明,生物甲烷化系统可以耐受氧气的存在。然而,为了保持二氧化碳转化为甲烷,还需要添加额外的氢气。
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来源期刊
Bioresource Technology
Bioresource Technology 工程技术-能源与燃料
CiteScore
20.80
自引率
19.30%
发文量
2013
审稿时长
12 days
期刊介绍: Bioresource Technology publishes original articles, review articles, case studies, and short communications covering the fundamentals, applications, and management of bioresource technology. The journal seeks to advance and disseminate knowledge across various areas related to biomass, biological waste treatment, bioenergy, biotransformations, bioresource systems analysis, and associated conversion or production technologies. Topics include: • Biofuels: liquid and gaseous biofuels production, modeling and economics • Bioprocesses and bioproducts: biocatalysis and fermentations • Biomass and feedstocks utilization: bioconversion of agro-industrial residues • Environmental protection: biological waste treatment • Thermochemical conversion of biomass: combustion, pyrolysis, gasification, catalysis.
期刊最新文献
Corrigendum to "Impact of 3D printing materials on microalga Chlorella vulgaris" [Bioresour. Technol. 389 (2023) 129807]. γ-Valerolactone-based processing of Eucalyptus globulus wood for integrated fractionation and platform chemicals production. Corrigendum to "Evolution in functional groups of agricultural straw during pyrolysis at elevated temperature: In situ synchrotron radiation infrared spectroscopy". [Bioresource Technol. 437 (2025) 133125]. Unraveling role of oxygen vacancies in catalytic deoxygenation of biomass-derived carboxylic acids over ceria. Corrigendum to "Unlocking low N2O emissions from nitrate-laden wastewater in constructed wetlands: critical role of pyrrhotite substrate layer in mediating nitrate-dependent sulfide oxidation" [Bioresour. Technol. 439 (2026) 133295].
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