SummaryIn vertebrates, pluripotent pharyngeal mesoderm progenitors produce the cardiac precursors of the second heart field as well as the branchiomeric head muscles and associated stem cells. However, the mechanisms underlying the transition from multipotent progenitors to distinct muscle precursors remain obscured by the complexity of vertebrate embryos. Using Ciona intestinalis as a simple chordate model, we show that bipotent cardiopharyngeal progenitors are primed to activate both heart and pharyngeal muscle transcriptional programs, which progressively become restricted to corresponding precursors. The transcription factor COE (Collier/OLF/EBF) orchestrates the transition to pharyngeal muscle fate both by promoting an MRF-associated m...
Neck muscles constitute a transition zone between somite-derived skeletal muscles of the trunk and l...
Branchiomeric skeletal muscles are a subset of head muscles originating from skeletal muscle progeni...
SummaryGenetic regulatory networks governing skeletal myogenesis in the body are well understood, ye...
SummaryIn vertebrates, pluripotent pharyngeal mesoderm progenitors produce the cardiac precursors of...
International audienceBranchiomeric muscles of the head and neck originate in a population of crania...
SummaryThe branchiomeric skeletal muscles co-evolved with new chambers of the heart to enable predat...
The branchiomeric skeletal muscles co-evolved with new chambers of the heart to enable predatory fee...
The search for developmental mechanisms driving vertebrate organogenesis has paved the way toward a ...
International audienceCardiopharyngeal mesoderm (CPM) gives rise to muscles of the head and heart. U...
Abstract Background In chordates, cardiac and body muscles arise from different embryonic origins. I...
The heart and head muscles share common developmental origins and genetic underpinnings in vertebrat...
<div><p>The heart and head muscles share common developmental origins and genetic underpinnings in v...
The heart and head muscles share common developmental origins and genetic underpinnings in vertebrat...
Abstract Cardiopharyngeal mesoderm contributes to the formation of the heart and head muscles. Howev...
International audienceHead muscle progenitors in pharyngeal mesoderm are present in close proximity ...
Neck muscles constitute a transition zone between somite-derived skeletal muscles of the trunk and l...
Branchiomeric skeletal muscles are a subset of head muscles originating from skeletal muscle progeni...
SummaryGenetic regulatory networks governing skeletal myogenesis in the body are well understood, ye...
SummaryIn vertebrates, pluripotent pharyngeal mesoderm progenitors produce the cardiac precursors of...
International audienceBranchiomeric muscles of the head and neck originate in a population of crania...
SummaryThe branchiomeric skeletal muscles co-evolved with new chambers of the heart to enable predat...
The branchiomeric skeletal muscles co-evolved with new chambers of the heart to enable predatory fee...
The search for developmental mechanisms driving vertebrate organogenesis has paved the way toward a ...
International audienceCardiopharyngeal mesoderm (CPM) gives rise to muscles of the head and heart. U...
Abstract Background In chordates, cardiac and body muscles arise from different embryonic origins. I...
The heart and head muscles share common developmental origins and genetic underpinnings in vertebrat...
<div><p>The heart and head muscles share common developmental origins and genetic underpinnings in v...
The heart and head muscles share common developmental origins and genetic underpinnings in vertebrat...
Abstract Cardiopharyngeal mesoderm contributes to the formation of the heart and head muscles. Howev...
International audienceHead muscle progenitors in pharyngeal mesoderm are present in close proximity ...
Neck muscles constitute a transition zone between somite-derived skeletal muscles of the trunk and l...
Branchiomeric skeletal muscles are a subset of head muscles originating from skeletal muscle progeni...
SummaryGenetic regulatory networks governing skeletal myogenesis in the body are well understood, ye...