Knowra16S ribosomal RNALinked fromLinked fromThe 27 pages that link to 16S ribosomal RNA, each with the reason it gives.All 27Broader topic 6Related 20Compared with 1MicrobiomeRelated: Sequencing its gene offers a common way to profile bacterial and archaeal members.MetagenomicsCompared with: Its targeted surveys contrast with metagenomics, which can sample genes across the whole community.Ribosomal RNABroader topic: It helps decode messenger RNA and is a major component of the prokaryotic small subunit.Bacterial taxonomyRelated: Its sequence became a foundational marker for comparing bacterial lineages.Microbial ecologyRelated: Its gene is widely used to survey bacterial and archaeal community composition.AminoglycosideBroader topic: Aminoglycosides bind specific regions of this RNA, including the decoding center.Soil microbiomeRelated: Sequencing its gene provides a common way to survey soil bacteria and archaea.30S ribosomal subunitBroader topic: It forms the decoding center that checks codon–anticodon pairing.Carl WoeseBroader topic: Woese compared its sequences to reveal evolutionary relationships among prokaryotes.Bacterial ribosomeBroader topic: Its conserved regions decode messenger RNA and provide a standard for identifying bacteria.Cutibacterium acnesRelated: Sequence comparisons contributed to the genus-level reclassification of the species.Microbial dark matterRelated: Its gene sequences first revealed many lineages absent from culture collections.Three-domain systemRelated: Its sequence comparisons made deep differences among prokaryotes measurable.Bacterial protein synthesisBroader topic: Its anti-Shine–Dalgarno region pairs with bacterial messenger RNA during initiation.Environmental microbiologyRelated: Sequencing its gene has made microbial community surveys possible across many habitats.Bacterial phylumRelated: Its conserved and variable regions provided a basis for comparing bacterial lineages.BifidobacteriumRelated: Its sequence has helped distinguish Bifidobacterium species and relationships.BacillotaRelated: Sequence comparisons helped establish relationships among Bacillota and other bacterial lineages.PseudomonadotaRelated: Sequence comparisons help define relationships among Pseudomonadota lineages.AcidobacteriotaRelated: Its gene has been central to detecting Acidobacteriota in environmental samples.AquificotaRelated: Early classifications of Aquificota relied heavily on comparisons of this sequence.ChloroflexotaRelated: Sequence comparisons have helped identify and classify lineages within the phylum.Evolution of bacteriaRelated: Conserved and variable regions made it a foundational marker for bacterial evolutionary comparisons.HalobacteriumRelated: Its sequence helped establish the deep evolutionary placement of Halobacterium.MethanobacteriatiRelated: Sequence comparisons help classify archaeal lineages such as Methanobacteriati.MethanobacteriumRelated: Its sequence helps identify Methanobacterium and resolve its relationships.NanobdellatiRelated: Sequence comparisons helped establish the deep archaeal placement of Nanoarchaeum.
Knowra16S ribosomal RNALinked fromLinked fromThe 27 pages that link to 16S ribosomal RNA, each with the reason it gives.All 27Broader topic 6Related 20Compared with 1MicrobiomeRelated: Sequencing its gene offers a common way to profile bacterial and archaeal members.MetagenomicsCompared with: Its targeted surveys contrast with metagenomics, which can sample genes across the whole community.Ribosomal RNABroader topic: It helps decode messenger RNA and is a major component of the prokaryotic small subunit.Bacterial taxonomyRelated: Its sequence became a foundational marker for comparing bacterial lineages.Microbial ecologyRelated: Its gene is widely used to survey bacterial and archaeal community composition.AminoglycosideBroader topic: Aminoglycosides bind specific regions of this RNA, including the decoding center.Soil microbiomeRelated: Sequencing its gene provides a common way to survey soil bacteria and archaea.30S ribosomal subunitBroader topic: It forms the decoding center that checks codon–anticodon pairing.Carl WoeseBroader topic: Woese compared its sequences to reveal evolutionary relationships among prokaryotes.Bacterial ribosomeBroader topic: Its conserved regions decode messenger RNA and provide a standard for identifying bacteria.Cutibacterium acnesRelated: Sequence comparisons contributed to the genus-level reclassification of the species.Microbial dark matterRelated: Its gene sequences first revealed many lineages absent from culture collections.Three-domain systemRelated: Its sequence comparisons made deep differences among prokaryotes measurable.Bacterial protein synthesisBroader topic: Its anti-Shine–Dalgarno region pairs with bacterial messenger RNA during initiation.Environmental microbiologyRelated: Sequencing its gene has made microbial community surveys possible across many habitats.Bacterial phylumRelated: Its conserved and variable regions provided a basis for comparing bacterial lineages.BifidobacteriumRelated: Its sequence has helped distinguish Bifidobacterium species and relationships.BacillotaRelated: Sequence comparisons helped establish relationships among Bacillota and other bacterial lineages.PseudomonadotaRelated: Sequence comparisons help define relationships among Pseudomonadota lineages.AcidobacteriotaRelated: Its gene has been central to detecting Acidobacteriota in environmental samples.AquificotaRelated: Early classifications of Aquificota relied heavily on comparisons of this sequence.ChloroflexotaRelated: Sequence comparisons have helped identify and classify lineages within the phylum.Evolution of bacteriaRelated: Conserved and variable regions made it a foundational marker for bacterial evolutionary comparisons.HalobacteriumRelated: Its sequence helped establish the deep evolutionary placement of Halobacterium.MethanobacteriatiRelated: Sequence comparisons help classify archaeal lineages such as Methanobacteriati.MethanobacteriumRelated: Its sequence helps identify Methanobacterium and resolve its relationships.NanobdellatiRelated: Sequence comparisons helped establish the deep archaeal placement of Nanoarchaeum.