SummaryTranscription-factor-induced somatic cell conversions are highly relevant for both basic and clinical research yet their mechanism is not fully understood and it is unclear whether they reflect normal differentiation processes. Here we show that during pre-B-cell-to-macrophage transdifferentiation, C/EBPα binds to two types of myeloid enhancers in B cells: pre-existing enhancers that are bound by PU.1, providing a platform for incoming C/EBPα; and de novo enhancers that are targeted by C/EBPα, acting as a pioneer factor for subsequent binding by PU.1. The order of factor binding dictates the upregulation kinetics of nearby genes. Pre-existing enhancers are broadly active throughout the hematopoietic lineage tree, including B cells. I...
BACKGROUND: Transcription factors play a key role in lineage commitment and differentiation of stem ...
Our earlier work has shown that pre-B cells can be converted into macrophages by the transcription f...
BACKGROUND: Transcription factors play a key role in lineage commitment and differentiation of stem ...
Summary Transcription-factor-induced somatic cell conversions are highly relevant for both basic and...
SummaryTranscription-factor-induced somatic cell conversions are highly relevant for both basic and ...
Transcription-factor-induced somatic cell conversions are highly relevant for both basic and clinica...
AbstractStarting with multipotent progenitors, hematopoietic lineages are specified by lineage-restr...
The lymphoid-myeloid transdifferentiation potentials of members of the C/EBP family (C/EBP{alpha}, {...
The transcription factor C/EBP{beta} controls differentiation, proliferation, and functionality of m...
SummaryEarlier work demonstrated that the transcription factor C/EBPα can convert immature and matur...
Earlier work demonstrated that the transcription factor C/EBPα can convert immature and mature murin...
The lymphoid-myeloid transdifferentiation potentials of members of the C/EBP family (C/EBPα, β, δ, a...
Myeloid progenitor cells give rise to a variety of progenies including dendritic cells. However, the...
<div><p>The transcription factor C/EBPβ controls differentiation, proliferation, and functionality o...
<div><h3>Background</h3><p>Transcription factors play a key role in lineage commitment and different...
BACKGROUND: Transcription factors play a key role in lineage commitment and differentiation of stem ...
Our earlier work has shown that pre-B cells can be converted into macrophages by the transcription f...
BACKGROUND: Transcription factors play a key role in lineage commitment and differentiation of stem ...
Summary Transcription-factor-induced somatic cell conversions are highly relevant for both basic and...
SummaryTranscription-factor-induced somatic cell conversions are highly relevant for both basic and ...
Transcription-factor-induced somatic cell conversions are highly relevant for both basic and clinica...
AbstractStarting with multipotent progenitors, hematopoietic lineages are specified by lineage-restr...
The lymphoid-myeloid transdifferentiation potentials of members of the C/EBP family (C/EBP{alpha}, {...
The transcription factor C/EBP{beta} controls differentiation, proliferation, and functionality of m...
SummaryEarlier work demonstrated that the transcription factor C/EBPα can convert immature and matur...
Earlier work demonstrated that the transcription factor C/EBPα can convert immature and mature murin...
The lymphoid-myeloid transdifferentiation potentials of members of the C/EBP family (C/EBPα, β, δ, a...
Myeloid progenitor cells give rise to a variety of progenies including dendritic cells. However, the...
<div><p>The transcription factor C/EBPβ controls differentiation, proliferation, and functionality o...
<div><h3>Background</h3><p>Transcription factors play a key role in lineage commitment and different...
BACKGROUND: Transcription factors play a key role in lineage commitment and differentiation of stem ...
Our earlier work has shown that pre-B cells can be converted into macrophages by the transcription f...
BACKGROUND: Transcription factors play a key role in lineage commitment and differentiation of stem ...