Members of the MAD/MXI protein family heterodimerize with MAX and repress transcription by recruiting a chromatin-modifying co-repressor complex to specific DNA target genes. Repression mediated by MAD is thought to antagonize the transcriptional activation and proliferation-promoting functions of MYC-MAX heterodimers. Because they are induced during differentiation, it has been suggested that MAD proteins act to limit cell proliferation during terminal differentiation. There is also controversial evidence that these proteins may function as tumor suppressors. Recently, targeted gene deletions of two members of this gene family, Mad1 and Mxi1, have been carried out in mice. Although these animals display what appear to be quite different ph...
AbstractThe bHLH-ZIP protein Mad heterodimerizes with Max as a sequence-specific transcriptional rep...
The Myc proto-oncogene family members have been identified as the cellular homologs of the transform...
The bHLHZip protein MAD1 belongs to the MYC/MAX/MAD network of transcriptional regulators. This netw...
The basic helix-loop-helix-leucine zipper (bHLHZip) protein Max associates with members of the Myc f...
The switch from transcriptionally activating MYC-MAX to transcriptionally repressing MAD1-MAX protei...
Mad1 is a basic helix-loop-helix-leucine zipper protein that is induced upon differentiation of a nu...
AbstractThe c-Myc transcription factor regulates expression of genes related to cell growth, divisio...
The four members of the MAD family are bHLHZip proteins that heterodimerize with MAX and act as tran...
Mad is a bHLH/Zip protein that, as a heterodimer with Max, can repress Myc-induced transcriptional t...
Transcription factors of Myc network are the key regulators of cell proliferation, cell death and di...
The c-Myc transcription factor regulates expression of genes related to cell growth, division, and a...
The small constitutively expressed bHLHZip protein Max is known to form sequence-specific DNA bindin...
The MYC/MAX/MAD network of transcriptional regulators controls distinct aspects of cell physiology i...
Myc family proteins appear to function through heterodimerization with the stable, constitutively ex...
The bHLH-ZIP protein Mad heterodimerizes with Max as a sequence-specific transcriptional repressor. ...
AbstractThe bHLH-ZIP protein Mad heterodimerizes with Max as a sequence-specific transcriptional rep...
The Myc proto-oncogene family members have been identified as the cellular homologs of the transform...
The bHLHZip protein MAD1 belongs to the MYC/MAX/MAD network of transcriptional regulators. This netw...
The basic helix-loop-helix-leucine zipper (bHLHZip) protein Max associates with members of the Myc f...
The switch from transcriptionally activating MYC-MAX to transcriptionally repressing MAD1-MAX protei...
Mad1 is a basic helix-loop-helix-leucine zipper protein that is induced upon differentiation of a nu...
AbstractThe c-Myc transcription factor regulates expression of genes related to cell growth, divisio...
The four members of the MAD family are bHLHZip proteins that heterodimerize with MAX and act as tran...
Mad is a bHLH/Zip protein that, as a heterodimer with Max, can repress Myc-induced transcriptional t...
Transcription factors of Myc network are the key regulators of cell proliferation, cell death and di...
The c-Myc transcription factor regulates expression of genes related to cell growth, division, and a...
The small constitutively expressed bHLHZip protein Max is known to form sequence-specific DNA bindin...
The MYC/MAX/MAD network of transcriptional regulators controls distinct aspects of cell physiology i...
Myc family proteins appear to function through heterodimerization with the stable, constitutively ex...
The bHLH-ZIP protein Mad heterodimerizes with Max as a sequence-specific transcriptional repressor. ...
AbstractThe bHLH-ZIP protein Mad heterodimerizes with Max as a sequence-specific transcriptional rep...
The Myc proto-oncogene family members have been identified as the cellular homologs of the transform...
The bHLHZip protein MAD1 belongs to the MYC/MAX/MAD network of transcriptional regulators. This netw...