The divergence of alphabeta and gammadelta T cells from a common precursor in the thymus is regulated by multiple cell-intrinsic and cell-extrinsic factors, most of which are not well defined. Recent studies have provided crucial data regarding the precise timing of lineage commitment and some clarification on the extent of the involvement of Notch and T-cell receptor signaling in this process. Combined with new insights into the differential regulation of molecular pathways active in alphabeta and gammadelta precursors, these data have led to the generation of a revised model of lineage commitment
Notch-Delta signaling of hematopoietic precursors sets in motion a train of events that activates ex...
The thymus forms as an alymphoid thymic primordium with T cell differentiation requiring the seeding...
Notch-Delta signaling of hematopoietic precursors sets in motion a train of events that activates ex...
The development of T cells from pluripotent stem cells involves a coordinated series of lineage-comm...
The mechanism of T cell precursor commitment to the gammadelta or alphabeta T cell lineage remains u...
Two types of T cells, alphabeta and gammadelta, develop in vertebrates. How these two T cell lineage...
The choice between the alphabeta or gammadelta T cell fates is influenced by the production of funct...
T cells belong to two mutually exclusive lineages expressing either alpha beta or gamma delta T-cell...
Through most of life, multilineage precursor cells undergo commitment to the T cell lineage only aft...
International audienceLineage choice is of great interest in developmental biology. In the immune sy...
Morphogens, a class of secreted proteins that regulate gene expression in a concentration-dependent ...
alphabeta and gammadelta T cells originate from a common, multipotential precursor population in the...
Following specification of hematopoietic precursor cells into the T cell lineage, several developmen...
The checkpoint in gammadelta cell development that controls successful T cell receptor (TCR) gene re...
alphabeta and gammadelta T cells originate from a common, multipotential precursor population in the...
Notch-Delta signaling of hematopoietic precursors sets in motion a train of events that activates ex...
The thymus forms as an alymphoid thymic primordium with T cell differentiation requiring the seeding...
Notch-Delta signaling of hematopoietic precursors sets in motion a train of events that activates ex...
The development of T cells from pluripotent stem cells involves a coordinated series of lineage-comm...
The mechanism of T cell precursor commitment to the gammadelta or alphabeta T cell lineage remains u...
Two types of T cells, alphabeta and gammadelta, develop in vertebrates. How these two T cell lineage...
The choice between the alphabeta or gammadelta T cell fates is influenced by the production of funct...
T cells belong to two mutually exclusive lineages expressing either alpha beta or gamma delta T-cell...
Through most of life, multilineage precursor cells undergo commitment to the T cell lineage only aft...
International audienceLineage choice is of great interest in developmental biology. In the immune sy...
Morphogens, a class of secreted proteins that regulate gene expression in a concentration-dependent ...
alphabeta and gammadelta T cells originate from a common, multipotential precursor population in the...
Following specification of hematopoietic precursor cells into the T cell lineage, several developmen...
The checkpoint in gammadelta cell development that controls successful T cell receptor (TCR) gene re...
alphabeta and gammadelta T cells originate from a common, multipotential precursor population in the...
Notch-Delta signaling of hematopoietic precursors sets in motion a train of events that activates ex...
The thymus forms as an alymphoid thymic primordium with T cell differentiation requiring the seeding...
Notch-Delta signaling of hematopoietic precursors sets in motion a train of events that activates ex...