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灵芝废渣生物炭的分区处理通过调节厌氧微生物群落组装来差异化地提升牛粪的厌氧发酵性能。

Partitioning Ganoderma lucidum residue biochar differentially boosts anaerobic fermentation performance of cow manure via mediation of anaerobic microbiota assembly.

机构信息

School of Life Science and Technology, Inner Mongolia University of Science & Technology, Baotou, 014010, China; Inner Mongolia Key Laboratory for Biomass-Energy Conversion, Baotou, 014010, China.

出版信息

J Environ Manage. 2024 Dec;371:123033. doi: 10.1016/j.jenvman.2024.123033. Epub 2024 Oct 31.

DOI:10.1016/j.jenvman.2024.123033
PMID:39486300
Abstract

Biochar is a promising strategy to solve the problem of low efficiency and ammonia inhibition during anaerobic digestion (AD). However, the correlation between biochar partitioning and its stimulatory effects on AD remains uncertain. Here, the effects of partitioned Ganoderma lucidum residue biochar (GLRB) on biogas and methane production were investigated. The GLRB produced at 450 °C, with richer functional groups on its surface, had the optimal enhancement effect on AD, resulting in a 20.59% increase in methane production compared with control. The doses of water-soluble GLRB (LZ450-W) and water-insoluble GLRB (LZ450-R) were not proportional to their enhancement effect on AD. However, the enhancement effect on AD by LZ450-R was better than that of LZ450-W. The optimal dosage of LZ450-W was 0.015 g, which increased methane production by 14.28%. Similarly, methane production increased by 26.91% with the addition of 0.603 g of LZ450-R. LZ450-R had more abundant functional groups on the surface and promoted the abundance of bacteria in the dominant phyla Bacteroidetes, Synergistetes, and Spirochaetes, increasing the rate of hydrolysis. Additionally, methanogens such as Methanobacterium and Methanospirillum were enriched, facilitating methane production by promoting the hydrogenotrophic pathway. Methanobacterium was also negatively correlated with most acid-producing bacteria, whereas Methanobrevibacter was positively correlated with Methanosphaera, Acetivibrio, and other acid-producing bacteria. These findings provide a basis for constructing synthetic microbial communities using biochar as a carrier of microbial inoculum.

摘要

生物炭是解决厌氧消化(AD)过程中效率低和氨抑制问题的一种很有前途的策略。然而,生物炭的分配与其对 AD 的刺激作用之间的相关性尚不确定。在这里,研究了分区灵芝残体生物炭(GLRB)对沼气和甲烷生产的影响。在 450°C 下产生的 GLRB 表面含有更多的官能团,对 AD 的增强效果最佳,与对照相比,甲烷产量增加了 20.59%。水溶性 GLRB(LZ450-W)和水不溶性 GLRB(LZ450-R)的剂量与其对 AD 的增强效果不成比例。然而,LZ450-R 对 AD 的增强效果优于 LZ450-W。LZ450-W 的最佳剂量为 0.015g,甲烷产量增加了 14.28%。同样,添加 0.603g 的 LZ450-R 可使甲烷产量增加 26.91%。LZ450-R 表面含有更丰富的官能团,促进了优势菌门拟杆菌门、互营菌门和螺旋体门的细菌丰度增加,从而提高了水解速率。此外,产甲烷菌如甲烷杆菌属和甲烷螺菌属得到了富集,通过促进氢营养途径促进了甲烷的产生。甲烷杆菌属与大多数产酸菌呈负相关,而甲烷八叠球菌属与产甲烷菌、乙酰杆菌属和其他产酸菌呈正相关。这些发现为构建以生物炭为微生物接种剂载体的合成微生物群落提供了依据。

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