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EntityQ863699· pop 9· linked from 3 articles

Geoglobus is a hyperthermophilic member of the Archaeoglobaceae within the Euryarchaeota. It consists of two species, the first, G. ahangari, isolated from the Guaymas Basin hydrothermal system located deep within the Gulf of California. As a hyperthermophile, it grows best at a temperature of 88 °C and cannot grow at temperatures below 65 °C or above 90 °C. It possess an S-layer cell wall and a single flagellum. G. ahangari is an anaerobe, using poorly soluble ferric iron (Fe3+) as a terminal electron acceptor. It can grow either autotrophically using hydrogen gas (H2) or heter

In the Vinony graph

Within Vinony's link graph, Geoglobus is referenced by 3 other articles, and connects out to Archaeoglobaceae, Asgard and Proteoarchaeota.

It is catalogued under topics including Archaea genera, Marine fauna of the Gulf of California and Methanobacteriati.

Its subject is documented across 8 Wikipedia language editions.

Species

GENUS

  1. KingdomArchaea
  2. PhylumHalobacteriota
  3. ClassArchaeoglobi
  4. OrderArchaeoglobales
  5. FamilyArchaeoglobaceae
Habitatmarine

via GBIF

Wikidata facts

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taxon name
Geoglobus
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Encyclopedic overview

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Geoglobus is a hyperthermophilic member of the Archaeoglobaceae within the Euryarchaeota. It consists of two species, the first, G. ahangari, isolated from the Guaymas Basin hydrothermal system located deep within the Gulf of California. As a hyperthermophile, it grows best at a temperature of 88 °C and cannot grow at temperatures below 65 °C or above 90 °C. It possess an S-layer cell wall and a single flagellum. G. ahangari is an anaerobe, using poorly soluble ferric iron (Fe3+) as a terminal electron acceptor. It can grow either autotrophically using hydrogen gas (H2) or heterotrophically using a large number of organic compounds, including several types of fatty acids, as energy sources. G. ahangari was the first archaeon isolated capable of using hydrogen gas coupled to iron reduction as an energy source and the first anaerobe isolated capable of using long-chain fatty acids as an energy source.

A second species was described as G. acetivorans, which also uses iron as its terminal electron acceptor.

Excerpted from Wikipedia’s “Geoglobus” article, available under the CC BY-SA 4.0 licence.

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