There is evidence that pluripotency of mouse embryonic stem (ES) cells is associated with the activity of a network of transcription factors with Sox2, Oct4, and Nanog at the core. Using fluorescent reporters for the expression of Nanog, we observed that a population of ES cells is best described by a dynamic distribution of Nanog expression characterized by two peaks defined by high (HN) and low (LN) Nanog expression. Typically, the LN state is 5%–20% of the total population, depending on the culture conditions. Modelling of the activity of Nanog reveals that a simple network of Oct4/Sox2 and Nanog activity can account for the observed distribution and its properties as long as the transcriptional activity is tuned by transcriptional noise...
The homeodomain transcription factor Nanog is a central part of the core pluripotency transcriptiona...
SummaryThe homeodomain transcription factor Nanog is a central part of the core pluripotency transcr...
Multiple experimental data demonstrated that the core gene network orchestrating self-renewal and di...
The expression of the transcription factors Oct4, Sox2, and Nanog is commonly associated with plurip...
There is evidence that pluripotency of mouse embryonic stem (ES) cells is associated with the activi...
The pluripotent state in embryonic stem (ES) cells is controlled by a core network of transcription ...
The pluripotent state in embryonic stem (ES) cells is controlled by a core network of transcription ...
The pluripotent state in embryonic stem (ES) cells is controlled by a core network of transcription ...
Transcription factor (TF) networks are thought to regulate embryonic stem cell (ESC) pluripotency. H...
Recent ChIP experiments of human and mouse embryonic stem cells have elucidated the architecture of ...
A number of key regulators of mouse embryonic stem (ES) cell identity, including the transcription f...
A number of key regulators of mouse embryonic stem (ES) cell identity, including the transcription f...
A number of key regulators of mouse embryonic stem (ES) cell identity, including the transcription f...
Nanog is a principal pluripotency regulator exhibiting a disperse distribution within stem cell popu...
<div><p>Nanog is a principal pluripotency regulator exhibiting a disperse distribution within stem c...
The homeodomain transcription factor Nanog is a central part of the core pluripotency transcriptiona...
SummaryThe homeodomain transcription factor Nanog is a central part of the core pluripotency transcr...
Multiple experimental data demonstrated that the core gene network orchestrating self-renewal and di...
The expression of the transcription factors Oct4, Sox2, and Nanog is commonly associated with plurip...
There is evidence that pluripotency of mouse embryonic stem (ES) cells is associated with the activi...
The pluripotent state in embryonic stem (ES) cells is controlled by a core network of transcription ...
The pluripotent state in embryonic stem (ES) cells is controlled by a core network of transcription ...
The pluripotent state in embryonic stem (ES) cells is controlled by a core network of transcription ...
Transcription factor (TF) networks are thought to regulate embryonic stem cell (ESC) pluripotency. H...
Recent ChIP experiments of human and mouse embryonic stem cells have elucidated the architecture of ...
A number of key regulators of mouse embryonic stem (ES) cell identity, including the transcription f...
A number of key regulators of mouse embryonic stem (ES) cell identity, including the transcription f...
A number of key regulators of mouse embryonic stem (ES) cell identity, including the transcription f...
Nanog is a principal pluripotency regulator exhibiting a disperse distribution within stem cell popu...
<div><p>Nanog is a principal pluripotency regulator exhibiting a disperse distribution within stem c...
The homeodomain transcription factor Nanog is a central part of the core pluripotency transcriptiona...
SummaryThe homeodomain transcription factor Nanog is a central part of the core pluripotency transcr...
Multiple experimental data demonstrated that the core gene network orchestrating self-renewal and di...