Omics-based interpretation of synergism in a soil-derived cellulose-degrading microbial community

Reaching a comprehensive understanding of how nature solves the problem of degrading recalcitrant biomass may eventually allow development of more efficient biorefining processes. Here we interpret genomic and proteomic information generated from a cellulolytic microbial consortium (termed F1RT) enr...

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Veröffentlicht in:Scientific reports 2014-06, Vol.4 (1), p.5288-5288, Article 5288
Hauptverfasser: Zhou, Yizhuang, Pope, Phillip B., Li, Shaochun, Wen, Bo, Tan, Fengji, Cheng, Shu, Chen, Jing, Yang, Jinlong, Liu, Feng, Lei, Xuejing, Su, Qingqing, Zhou, Chengran, Zhao, Jiao, Dong, Xiuzhu, Jin, Tao, Zhou, Xin, Yang, Shuang, Zhang, Gengyun, Yang, Huangming, Wang, Jian, Yang, Ruifu, Eijsink, Vincent G. H., Wang, Jun
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Sprache:eng
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Zusammenfassung:Reaching a comprehensive understanding of how nature solves the problem of degrading recalcitrant biomass may eventually allow development of more efficient biorefining processes. Here we interpret genomic and proteomic information generated from a cellulolytic microbial consortium (termed F1RT) enriched from soil. Analyses of reconstructed bacterial draft genomes from all seven uncultured phylotypes in F1RT indicate that its constituent microbes cooperate in both cellulose-degrading and other important metabolic processes. Support for cellulolytic inter-species cooperation came from the discovery of F1RT microbes that encode and express complimentary enzymatic inventories that include both extracellular cellulosomes and secreted free-enzyme systems. Metabolic reconstruction of the seven F1RT phylotypes predicted a wider genomic rationale as to how this particular community functions as well as possible reasons as to why biomass conversion in nature relies on a structured and cooperative microbial community.
ISSN:2045-2322
2045-2322
DOI:10.1038/srep05288