Pre_GI: SWBIT SVG BLASTP

Query: NC_013410:1285857 Fibrobacter succinogenes subsp. succinogenes S85 chromosome,

Lineage: Fibrobacter succinogenes; Fibrobacter; Fibrobacteraceae; Fibrobacterales; Fibrobacteres; Bacteria

General Information: Temp: Mesophile; Temp: 37C; Habitat: Host. Cellulolytic rumen bacterium. This bacterium is one of the three most predominant cellulolytic organisms in the rumen. Since cellulose is one of the most abundant carbohydrates on the planet, this organism is, therefore, an important part of the global carbon biogeochemical cycle, converting the mass of fixed carbon generated by photosynthetic organisms back to products that eventually end up as carbon dioxide. Increasing cellulose degradation is an important goal in industrial processes. This organism is highly specialized for cellulose degradation, and is only capable of utilizing cellulose and cellulolytic degradation products as carbon sources. Access to cellulose is a rate-liming step in degradation, and the cellulolytic organisms have devised a number of mechanisms for improving access to this insoluble substrate, one of which is the production of surface-localized cellulases. The active enzymes are cell wall associated, but the presence of cellulosomes, large multiprotein cellulase complexes, has not been detected in this organism. Adherence is another method used to promote cellulose degradation, and this organism produces an extracellular matrix of glycoprotein glycocalyx which allows attachment to insoluble cellulose.

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Subject: NC_015416:525018 Methanosaeta concilii GP-6 chromosome, complete genome

Lineage: Methanosaeta concilii; Methanosaeta; Methanosaetaceae; Methanosarcinales; Euryarchaeota; Archaea

General Information: Methanosaeta, the predominant methane producer on earth, has received little attention in recent years due to its slow growth and difficulties in culturing. Therefore, the genome sequence is a valuable source of information about this microbe and offers the most tractable approach to understanding its physiology. Furthermore, the genome sequence of Methanosaeta concilii GP-6 significantly increases our knowledge of the role of acetate-utilizing methanoarchaea in the global carbon cycle, and also allows for a more complete comparative genomics analysis of methanogenic archaea as now both genera of aceticlastic methanoarchaea are now represented.