AbstractDecades of research have uncovered much of the molecular machinery responsible for establishing and maintaining proper gene transcription patterns in eukaryotes. Although the composition of this machinery is largely known, mechanisms regulating its activity by covalent modification are just coming into focus. Here, we review several cases of ubiquitination, sumoylation, and acetylation that link specific covalent modification of the transcriptional apparatus to their regulatory function. We propose that potential cascades of modifications serve as molecular rheostats that fine-tune the control of transcription in diverse organisms
Regulation of mammalian gene expression has been an ever growing subject in the field of Biology and...
Transcription is a very complex multi-step process presenting different levels of regulation. A larg...
Transcription is the process in which our genetic information in the form of DNA is first utilized t...
AbstractDecades of research have uncovered much of the molecular machinery responsible for establish...
AbstractGene activation in higher eukaryotes requires the concerted action of transcription factors ...
AbstractTranscriptional regulation in eukaryotes involves structurally and functionally distinct nuc...
AbstractA new way by which the potency of a eukaryotic transcription factor can be regulated has bee...
AbstractGene expression is controlled by interactions between activators and coactivators. These int...
Transcriptional regulation is a critical biological process that allows the cell or an organism to r...
AbstractSeveral transcriptional regulators have been found to act as enzymes that acetylate histones...
Ten years after the determination of the RNA polymerase II structure, the basic mechanism of mRNA sy...
Ten years after the determination of the RNA polymerase 11 structure, the basic mechanism of mRNA sy...
Ten years after the determination of the RNA polymerase 11 structure, the basic mechanism of mRNA sy...
Ten years after the determination of the RNA polymerase 11 structure, the basic mechanism of mRNA sy...
The small ubiquitin-like modifier (SUMO) is covalently attached to lysine residues in target protein...
Regulation of mammalian gene expression has been an ever growing subject in the field of Biology and...
Transcription is a very complex multi-step process presenting different levels of regulation. A larg...
Transcription is the process in which our genetic information in the form of DNA is first utilized t...
AbstractDecades of research have uncovered much of the molecular machinery responsible for establish...
AbstractGene activation in higher eukaryotes requires the concerted action of transcription factors ...
AbstractTranscriptional regulation in eukaryotes involves structurally and functionally distinct nuc...
AbstractA new way by which the potency of a eukaryotic transcription factor can be regulated has bee...
AbstractGene expression is controlled by interactions between activators and coactivators. These int...
Transcriptional regulation is a critical biological process that allows the cell or an organism to r...
AbstractSeveral transcriptional regulators have been found to act as enzymes that acetylate histones...
Ten years after the determination of the RNA polymerase II structure, the basic mechanism of mRNA sy...
Ten years after the determination of the RNA polymerase 11 structure, the basic mechanism of mRNA sy...
Ten years after the determination of the RNA polymerase 11 structure, the basic mechanism of mRNA sy...
Ten years after the determination of the RNA polymerase 11 structure, the basic mechanism of mRNA sy...
The small ubiquitin-like modifier (SUMO) is covalently attached to lysine residues in target protein...
Regulation of mammalian gene expression has been an ever growing subject in the field of Biology and...
Transcription is a very complex multi-step process presenting different levels of regulation. A larg...
Transcription is the process in which our genetic information in the form of DNA is first utilized t...