During transcription initiation by Escherichia coli RNA polymerase, a fraction of the homogeneous enzyme population has been kinetically shown to form two types of nonproductive complexes at some promoters: moribund complexes, which produce only abortive transcripts and fully inactive ternary complexes (Kubori, T., and Shimamoto, N. (1996) J. Mol. Biol. 256, 449–457). Here we report biochemical isolation of the complexes arrested at the λPR promoter and an analysis of their structure by DNA and protein footprintings. We found that the isolated promoter-arrested complexes retain a stoichiometric amount of ζ70 subunit. Exonuclease III footprints of the arrested complexes are backtracked compared with that of the binary complex, and ...
AbstractOver the last two decades, a large amount of data on initiation of transcription by bacteria...
How does RNA polymerase recognize a promoter in duplex DNA? How are the DNA strands pried apart to e...
Search for a promoter element by RNA polymerase from the extremely large DNA base sequence is though...
Transcription initiation has been assumed to be a multi-step sequential process, although additional...
Transcription initiation has long been assumed to be a sequence composed of four steps: binding of R...
Transcription initiation by Escherichia coli RNA polymerase at most promoters is associated with a r...
DNA supercoiling is known to influence the pattern of gene expression in prokaryotes. Thus the mecha...
DNA supercoiling is known to influence the pattern of gene expression in prokaryotes. Thus the mecha...
DNA supercoiling is known to influence the pattern of gene expression in prokaryotes. Thus the mecha...
AbstractA central enigma of transcriptional regulation is how the normally efficient transcription e...
RNA polymerases carry out a process, which at times carries contradictory mechanistic requirements. ...
SummaryRecent genome-wide studies in metazoans have shown that RNA polymerase II (Pol II) accumulate...
Promoter escape can be rate-limiting for transcription by bacterial RNA polymerases and RNA polymera...
In bacteria, RNA polymerase (RNAP) initiates transcription by synthesizing short transcripts that a...
AbstractUsing purified E. coli RNA polymerase we have studied the transcription in vitro of a series...
AbstractOver the last two decades, a large amount of data on initiation of transcription by bacteria...
How does RNA polymerase recognize a promoter in duplex DNA? How are the DNA strands pried apart to e...
Search for a promoter element by RNA polymerase from the extremely large DNA base sequence is though...
Transcription initiation has been assumed to be a multi-step sequential process, although additional...
Transcription initiation has long been assumed to be a sequence composed of four steps: binding of R...
Transcription initiation by Escherichia coli RNA polymerase at most promoters is associated with a r...
DNA supercoiling is known to influence the pattern of gene expression in prokaryotes. Thus the mecha...
DNA supercoiling is known to influence the pattern of gene expression in prokaryotes. Thus the mecha...
DNA supercoiling is known to influence the pattern of gene expression in prokaryotes. Thus the mecha...
AbstractA central enigma of transcriptional regulation is how the normally efficient transcription e...
RNA polymerases carry out a process, which at times carries contradictory mechanistic requirements. ...
SummaryRecent genome-wide studies in metazoans have shown that RNA polymerase II (Pol II) accumulate...
Promoter escape can be rate-limiting for transcription by bacterial RNA polymerases and RNA polymera...
In bacteria, RNA polymerase (RNAP) initiates transcription by synthesizing short transcripts that a...
AbstractUsing purified E. coli RNA polymerase we have studied the transcription in vitro of a series...
AbstractOver the last two decades, a large amount of data on initiation of transcription by bacteria...
How does RNA polymerase recognize a promoter in duplex DNA? How are the DNA strands pried apart to e...
Search for a promoter element by RNA polymerase from the extremely large DNA base sequence is though...