Transcription of the phage Mu com/mom operon is trans-activated by another phage gene product, C, a site-specific DNA binding protein. To gain insight into the mechanism by which C activates transcription, we carried out footprinting analyses of Escherichia coli RNA polymerase (=RNAP) binding to various com-iacZ fusion piasmids. KMnO4-sensitive sites (diagnostic of the melted regions in open-complexes) and DNase I-sensitive sites were located by primer-extension analysis. The results are summarized as follows: (i)In vivo, in the absence of C, RNAP bound in the wild-type (wt) promoter region at a site designated P2; in vitro DNase I-footprinting showed that P2 extends from -74 to -24 with respect to transcription initiation. This overlaps a ...
Transactivator protein C is required for the expression of bacteriophage Mu late genes from lys, I, ...
Bacteriophage Mu controls an unusual DNA-modification function encoded by the mom gene, which is loc...
SummaryNew structures of RNA polymerase II (pol II) transcribing complexes reveal a likely key to tr...
Transcription of the phage Mu com/mom operon is trans-activated by another phage gene product, C, a ...
Transactivator C protein of bacteriophage Mu activates the mom gene of the phage by an unusual mecha...
Regulation of transcription initiation is the major determining event employed by the cell to contro...
Transactivator C protein of bacteriophage Mu activates the mom gene of the phage by an unusual mecha...
Transcription activator C employs a unique mechanism to activate mom gene of bacteriophage Mu. The a...
The bacteriophage Mu mom gene encodes the unique DNA-modiÆcation function of the phage. Regulation o...
P>Transcription activator C employs a unique mechanism to activate mom gene of bacteriophage Mu. The...
Transcription of the bacteriophage Mu mom operon requires transactivation by the phage-encoded C pro...
Transcription factor-induced conformational changes in DNA are one of the mechanisms of transcriptio...
In bacterial RNA polymerase (RNAP), the bridge helix and switch regions form an intricate network wi...
AbstractIn bacterial RNA polymerase (RNAP), the bridge helix and switch regions form an intricate ne...
Transcription activator protein C of bacteriophage Mu activates transcription of the late genes, inc...
Transactivator protein C is required for the expression of bacteriophage Mu late genes from lys, I, ...
Bacteriophage Mu controls an unusual DNA-modification function encoded by the mom gene, which is loc...
SummaryNew structures of RNA polymerase II (pol II) transcribing complexes reveal a likely key to tr...
Transcription of the phage Mu com/mom operon is trans-activated by another phage gene product, C, a ...
Transactivator C protein of bacteriophage Mu activates the mom gene of the phage by an unusual mecha...
Regulation of transcription initiation is the major determining event employed by the cell to contro...
Transactivator C protein of bacteriophage Mu activates the mom gene of the phage by an unusual mecha...
Transcription activator C employs a unique mechanism to activate mom gene of bacteriophage Mu. The a...
The bacteriophage Mu mom gene encodes the unique DNA-modiÆcation function of the phage. Regulation o...
P>Transcription activator C employs a unique mechanism to activate mom gene of bacteriophage Mu. The...
Transcription of the bacteriophage Mu mom operon requires transactivation by the phage-encoded C pro...
Transcription factor-induced conformational changes in DNA are one of the mechanisms of transcriptio...
In bacterial RNA polymerase (RNAP), the bridge helix and switch regions form an intricate network wi...
AbstractIn bacterial RNA polymerase (RNAP), the bridge helix and switch regions form an intricate ne...
Transcription activator protein C of bacteriophage Mu activates transcription of the late genes, inc...
Transactivator protein C is required for the expression of bacteriophage Mu late genes from lys, I, ...
Bacteriophage Mu controls an unusual DNA-modification function encoded by the mom gene, which is loc...
SummaryNew structures of RNA polymerase II (pol II) transcribing complexes reveal a likely key to tr...