The human histone H4 gene FO108 is regulated during the cell cycle with a peak in transcription during early S phase. The cell-cycle element (CCE) required for H4 histone activation is a sequence of 11 base pairs that binds a protein factor in electrophoretic mobility shift assays that has been designated histone nuclear factor M (HiNF-M). Here we report the purification of HiNF-M, and show it to be a protein of relative molecular mass (M(r)) 48K that is identical to interferon (IFN) regulatory factor 2 (IRF-2), a negative transcriptional regulator of the IFN response. Recombinant IRF-2 (as well as the related protein IRF-1 (ref. 5)) binds the CCE specifically and activates transcription of this H4 histone gene. IRF-2 has been shown to have...
Orderly progression through the cell cycle requires the transcriptional activation of histone genes ...
HiNF-P is a recently identified histone H4 subtype specific transcriptional regulator that associate...
Rapid self-renewal of human embryonic stem (ES) cells (NIH designation WA01 and WA09) is accommodate...
Histone genes display a peak in transcription in early S phase and are ideal models for cell cycle-r...
Maximal transcription of a prototypical cell cycle controlled histone H4 gene requires a proliferati...
Interferon regulatory factors (IRFs) are transcriptional mediators of interferon-responsive signalin...
Cell cycle control of histone H4 gene transcription is mediated by the multipartite promoter domain ...
At the G(1)/S phase cell cycle transition, multiple histone genes are expressed to ensure that newly...
Interferon-regulatory factors (IRFs) are a related family of proteins originally identified by their...
Histone gene expression is cell cycle regulated at the transcriptional and the post-transcriptional ...
Cell cycle progression beyond the G1/S phase transition requires the activation of a transcription c...
Cell cycle-controlled human histone genes are coordinately expressed during S phase, and transcripti...
Transcriptional control at the G1/S-phase transition of the cell cycle requires functional interacti...
Cell cycle regulated gene expression was studied by analyzing protein/DNA interactions occurring at ...
The IFN regulatory factor-2 (IRF-2) oncoprotein controls the cell cycle-dependent expression of hist...
Orderly progression through the cell cycle requires the transcriptional activation of histone genes ...
HiNF-P is a recently identified histone H4 subtype specific transcriptional regulator that associate...
Rapid self-renewal of human embryonic stem (ES) cells (NIH designation WA01 and WA09) is accommodate...
Histone genes display a peak in transcription in early S phase and are ideal models for cell cycle-r...
Maximal transcription of a prototypical cell cycle controlled histone H4 gene requires a proliferati...
Interferon regulatory factors (IRFs) are transcriptional mediators of interferon-responsive signalin...
Cell cycle control of histone H4 gene transcription is mediated by the multipartite promoter domain ...
At the G(1)/S phase cell cycle transition, multiple histone genes are expressed to ensure that newly...
Interferon-regulatory factors (IRFs) are a related family of proteins originally identified by their...
Histone gene expression is cell cycle regulated at the transcriptional and the post-transcriptional ...
Cell cycle progression beyond the G1/S phase transition requires the activation of a transcription c...
Cell cycle-controlled human histone genes are coordinately expressed during S phase, and transcripti...
Transcriptional control at the G1/S-phase transition of the cell cycle requires functional interacti...
Cell cycle regulated gene expression was studied by analyzing protein/DNA interactions occurring at ...
The IFN regulatory factor-2 (IRF-2) oncoprotein controls the cell cycle-dependent expression of hist...
Orderly progression through the cell cycle requires the transcriptional activation of histone genes ...
HiNF-P is a recently identified histone H4 subtype specific transcriptional regulator that associate...
Rapid self-renewal of human embryonic stem (ES) cells (NIH designation WA01 and WA09) is accommodate...