The spliceosome, an assembly of snRNAs and proteins, catalyzes the removal of introns from premessenger RNAs. A new study identifies specific phosphates in the U2-U6 snRNA complex that position two catalytic metals. Remarkably, these correspond precisely to metal-binding phosphates in a homologous structure of Group II self-splicing introns, long proposed to be the ribozyme progenitor of spliceosome
SUMMARYThe spliceosome is a highly complex, dynamic ribonucleoprotein molecular machine that undergo...
One of the most amazing findings in molecular biology was the discovery that eukaryotic genes are di...
In the pre-mRNA processing machinery of eukaryotic cells, U6 snRNA is located at or near the active ...
The spliceosome, an assembly of snRNAs and proteins, catalyzes the removal of introns from premessen...
AbstractSince the discovery of self-splicing RNAs, it has been suspected that the snRNAs are the cat...
In nuclear pre-messenger RNA splicing, introns are excised by the spliceosome, a multi-megadalton ma...
Spliceosomes are large, dynamic ribonucleoprotein complexes that catalyse the removal of introns fro...
The intron–exon organization of the genes is nowadays taken for granted and constitutes a fully esta...
Although U snRNAs play essential roles in splicing, little is known about the 3D arrangement of U2, ...
Eukaryotic genes contain non-coding introns, removal of which during gene expression is a pre-requis...
The spliceosome, the multi-megadalton molecular machine that performs splicing, consists of over 200...
The spliceosome is a large RNA‐protein complex that catalyses the removal of introns from nuclear pr...
SummaryGroup II introns are self-splicing ribozymes that share a reaction mechanism and a common anc...
SummaryGroup II introns are mobile genetic elements that have been implicated as agents of genetic d...
The spliceosome is formed on pre-mRNA substrates from five small nuclear ribonucleoprotein particles...
SUMMARYThe spliceosome is a highly complex, dynamic ribonucleoprotein molecular machine that undergo...
One of the most amazing findings in molecular biology was the discovery that eukaryotic genes are di...
In the pre-mRNA processing machinery of eukaryotic cells, U6 snRNA is located at or near the active ...
The spliceosome, an assembly of snRNAs and proteins, catalyzes the removal of introns from premessen...
AbstractSince the discovery of self-splicing RNAs, it has been suspected that the snRNAs are the cat...
In nuclear pre-messenger RNA splicing, introns are excised by the spliceosome, a multi-megadalton ma...
Spliceosomes are large, dynamic ribonucleoprotein complexes that catalyse the removal of introns fro...
The intron–exon organization of the genes is nowadays taken for granted and constitutes a fully esta...
Although U snRNAs play essential roles in splicing, little is known about the 3D arrangement of U2, ...
Eukaryotic genes contain non-coding introns, removal of which during gene expression is a pre-requis...
The spliceosome, the multi-megadalton molecular machine that performs splicing, consists of over 200...
The spliceosome is a large RNA‐protein complex that catalyses the removal of introns from nuclear pr...
SummaryGroup II introns are self-splicing ribozymes that share a reaction mechanism and a common anc...
SummaryGroup II introns are mobile genetic elements that have been implicated as agents of genetic d...
The spliceosome is formed on pre-mRNA substrates from five small nuclear ribonucleoprotein particles...
SUMMARYThe spliceosome is a highly complex, dynamic ribonucleoprotein molecular machine that undergo...
One of the most amazing findings in molecular biology was the discovery that eukaryotic genes are di...
In the pre-mRNA processing machinery of eukaryotic cells, U6 snRNA is located at or near the active ...