Fusobacteriales-1 | |
---|---|
Identifiers | |
Symbol | Fusobacteriales-1 |
Rfam | RF02920 |
Other data | |
RNA type | Cis-reg |
SO | SO:0005836 |
PDB structures | PDBe |
The Fusobacteriales-1 RNA motif is a conserved RNA structure that was discovered by bioinformatics. [1] Fusobacteriales-1 motif RNAs are found in Fusobacteriales.
Most Fusobacteriales-1 RNAs are located upstream of genes homologous to the locus FSAG_00736, which encodes a hypothetical protein in Fusobacterium peridonticum. However, some Fusobacteriales-1 RNAs are located upstream of genes that do not appear to be homologous to FSAG_00736. Additionally 1 Fusobacteriales-1 RNAs is not found upstream of a protein-coding gene. In view of this information, it is ambiguous whether Fusobacteriales-1 RNAs function as cis-regulatory elements or whether they operate in trans.
Archaeal transcription factor B is a protein family of extrinsic transcription factors that guide the initiation of RNA transcription in organisms that fall under the domain of Archaea. It is homologous to eukaryotic TFIIB and, more distantly, to bacterial sigma factor. Like these proteins, it is involved in forming transcription preinitiation complexes. Its structure includes several conserved motifs which interact with DNA and other transcription factors, notably the single type of RNA polymerase that performs transcription in Archaea.
The Actino-ugpB RNA motif is a conserved RNA structure that was discovered by bioinformatics. Actino-ugpB motifs are found in strains of the species Gardnerella vaginalis, within the phylum Actinomycetota.
The COG2908 RNA motif is a conserved RNA structure that was discovered by bioinformatics. COG2908 motif RNAs are found in genomic sequences extracted from fresh water environments. They have not, as of 2018, been detected in any classified organism.
The DUF805 RNA motif is a conserved RNA structure that was discovered by bioinformatics. The motif is subdivided into the DUF805 motif and the DUF805b motif, which have similar, but distinct secondary structures. Together, these motifs are found in Bacteroidota, Chlorobiota, and Pseudomonadota.
The Fibrobacter-1 RNA motif is a conserved RNA structure that was discovered by bioinformatics. Fibrobacter-1 motifs are found in organisms in the genus Fibrobacter, and in many metagenomic sequences.
The GA-cis RNA motif is a conserved RNA structure that was discovered by bioinformatics. GA-cis motif RNAs are found in one species classified within the phylum Bacillota: specifically, there are 9 predicted copies in Coprocuccus eutactus ATCC 27759.
The hya RNA motif is a conserved RNA structure that was discovered by bioinformatics. hya motif RNAs are found in Actinomycetota.
The IMPDH RNA motif is a conserved RNA structure that was discovered by bioinformatics. IMPDH motif RNAs are found in organisms classified within the genus Faecalibacterium.
The Latescibacteria, OD1, OP11, TM7 RNA motif is a conserved RNA structure that was discovered by bioinformatics. LOOT motif RNAs are found in multiple bacterial phyla that have only recently been discovered, and are currently not well understood: Latescibacteria, OD1/Parcubacteria, OP11 AND TM7. In some cases, no specific organism has been isolated in the relevant phylum, but the existence of the bacterial phylum is known only through analysis of metagenomic sequences. Curiously, the LOOT motif is not known in any phylum that has been studied for a long time.
The Mahella-1 RNA motif is a conserved RNA structure that was discovered by bioinformatics. Seven Mahella-1 motif RNAs are found in Mahella australiensis, and no other organism has been observed to contain Mahella-1 RNAs.
The MDR-NUDIX RNA motif is a conserved RNA structure that was discovered by bioinformatics. The MDR-NUDIX motif is found in the poorly studied phylum TM7.
The NMT1 RNA motif is a conserved RNA structure that was discovered by bioinformatics. NMT1 motif RNAs are found in Pseudomonadota. There is also one NMT1 RNA in each of Bacteroidota and Actinomycetota, but these appear to be the result of recent horizontal gene transfer or sequence contamination before or during genome sequencing
The osmY RNA motif is a conserved RNA structure that was discovered by bioinformatics. osmY motif RNAs are found in Enterobacteriaceae organisms, although it is not predicted to reside in Escherichia coli.
The pemK RNA motif is a conserved RNA structure that was discovered by bioinformatics. pemK motif RNAs are found in organisms within the phylum Bacillota, and is very widespread in this phylum.
The PGK RNA motif is a conserved RNA structure that was discovered by bioinformatics. PGK motif RNAs are found in metagenomic sequences isolated from the gastrointestinal tract of mammals. PGK RNAs have not yet been detected in a classified organism.
The raiA RNA motif is a conserved RNA structure that was discovered by bioinformatics. raiA motif RNAs are found in Actinomycetota and Bacillota, and have many conserved features—including conserved nucleotide positions, conserved secondary structures and associated protein-coding genes—in both of these phyla. Some conserved features of the raiA RNA motif suggest that they function as cis-regulatory elements, but other aspects of the motif suggest otherwise.
The ssnA RNA motif is a conserved RNA structure that was discovered by bioinformatics. ssnA motif RNAs are found in Clostridiales.
The ssNA-helicase RNA motif is a conserved RNA structure that was discovered by bioinformatics. Although the ssNA-helicase motif was published as an RNA candidate, there is some reason to suspect that it might function as a single-stranded DNA. In terms of secondary structure, RNA and DNA are difficult to distinguish when only sequence information is available.
The sul1 RNA motif is a conserved RNA structure that was discovered by bioinformatics. Energetically stable tetraloops often occur in this motif. sul1 motif RNAs are found in Alphaproteobacteria.
The terC RNA motif is a conserved RNA structure that was discovered by bioinformatics. terC motif RNAs are found in Pseudomonadota, within the sub-lineages Alphaproteobacteria and Pseudomonadales.