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首页> 外文期刊>Bioresource Technology: Biomass, Bioenergy, Biowastes, Conversion Technologies, Biotransformations, Production Technologies >Acetic acid is key for synergetic hydrogen production in Chlamydomonas-bacteria co-cultures
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Acetic acid is key for synergetic hydrogen production in Chlamydomonas-bacteria co-cultures

机译:醋酸是衣原体肿瘤的协同氢生产的关键 - 细菌共培养物

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摘要

This study is a proof of concept for the synergetic biohydrogen production in alga-bacteria co-cultures. Algal hydrogen photoproduction was obtained in sugar-containing media only when the green alga Chlamydomonas reinhardtii was co-cultured with Pseudomonas putida (40.8 ml H-2.L-1), Escherichia coli (35.1 ml H-2.L-1) and Rhizobium etli (16.1 ml H-2.L-1). Hydrogen photo-production in these co-cultures was not only linked to the induction of hypoxia, but to the ability of the bacteria to produce acetic acid from sugars. Synergetic hydrogen production was achieved by integrating the photobiological and fermentative production in Chlamydomonas and Escherichia coli co-cultures supplemented with glucose, which resulted in 60% more H-2 production than the sum of the respective monocultures. This cooperation relied on the ability of the alga to consume the excreted bacterial acetic acid, which benefited both bacterial and algal hydrogen production. This knowledge may open new possibilities for the biohydrogen production from industrial wastes.
机译:本研究是藻类 - 细菌共培养中的协同生物氢产量的概念证明。仅当绿藻衣原体Reinhardtii用假单胞菌(40.8mL H-2.L-1),大肠杆菌(35.1mL H-2.L-1)共同培养时,氨氢光洗脱才获得含糖培养基。 Rhizobiumetli(16.1ml H-2.L-1)。这些共培养物中的氢气产生不仅与缺氧的诱导有关,而且与细菌产生乙酸的糖糖。通过将光生生物和发酵生产在补充有葡萄糖的衣原体和大肠杆菌共培养物中,通过将光生物学和发酵培养与葡萄糖的共同培养物相结合来实现协同氢气产量。这种合作依赖于藻类消耗排泄的细菌醋酸的能力,这使得细菌和藻类氢产生受益。这些知识可能开辟工业废物的生物氢生产的新可能性。

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