AbstractDuchenne muscular dystrophy is an inherited disorder that is characterized by progressive skeletal muscle weakness and wasting, with a failure of muscle maintenance/repair mediated by satellite cells (muscle stem cells). The function of skeletal muscle stem cells resident in dystrophic muscle may be perturbed by being in an increasing pathogenic environment, coupled with constant demands for repairing muscle. To investigate the contribution of satellite cell exhaustion to this process, we tested the functionality of satellite cells isolated from the mdx mouse model of Duchenne muscular dystrophy. We found that satellite cells derived from young mdx mice contributed efficiently to muscle regeneration within our in vivo mouse model. T...
Satellite cells are dormant progenitors located at the periphery of skeletal myofibers that can be t...
Adult skeletal muscle possesses a remarkable regenerative ability, which largely depends on satellit...
AbstractStriated muscle-specific disruption of the dystroglycan (DAG1) gene results in loss of the d...
AbstractMuscle satellite cells have long been considered a distinct myogenic lineage responsible for...
SummaryIn Duchenne muscular dystrophy (DMD), dystrophin mutation leads to progressive lethal skeleta...
Stem cell transplantation is already in clinical practice for certain genetic diseases and is a prom...
Satellite cells (SCs) are muscle stem cells that remain quiescent during homeostasis and are activat...
AbstractExtraocular muscles (EOMs) are highly specialized skeletal muscles that originate from the h...
AbstractExtraocular muscles (EOMs) are highly specialized skeletal muscles that originate from the h...
Autosomal dominant Emery-Dreifuss muscular dystrophy (EDMD) is caused by mutations in the LMNA gene,...
Satellite cells are defined by their position beneath the basal lamina of myofibres, and are a sourc...
Adult skeletal muscle has the striking ability to repair and regenerate itself after injury. This wo...
After birth, skeletal muscle retains its ability to regenerate from a population of muscle stem cell...
<div><p>Muscle satellite cells (SCs) are stem cells that reside in skeletal muscles and contribute t...
Homeostatic and regenerative replacement of skeletal muscle fibers requires the activity of a dedica...
Satellite cells are dormant progenitors located at the periphery of skeletal myofibers that can be t...
Adult skeletal muscle possesses a remarkable regenerative ability, which largely depends on satellit...
AbstractStriated muscle-specific disruption of the dystroglycan (DAG1) gene results in loss of the d...
AbstractMuscle satellite cells have long been considered a distinct myogenic lineage responsible for...
SummaryIn Duchenne muscular dystrophy (DMD), dystrophin mutation leads to progressive lethal skeleta...
Stem cell transplantation is already in clinical practice for certain genetic diseases and is a prom...
Satellite cells (SCs) are muscle stem cells that remain quiescent during homeostasis and are activat...
AbstractExtraocular muscles (EOMs) are highly specialized skeletal muscles that originate from the h...
AbstractExtraocular muscles (EOMs) are highly specialized skeletal muscles that originate from the h...
Autosomal dominant Emery-Dreifuss muscular dystrophy (EDMD) is caused by mutations in the LMNA gene,...
Satellite cells are defined by their position beneath the basal lamina of myofibres, and are a sourc...
Adult skeletal muscle has the striking ability to repair and regenerate itself after injury. This wo...
After birth, skeletal muscle retains its ability to regenerate from a population of muscle stem cell...
<div><p>Muscle satellite cells (SCs) are stem cells that reside in skeletal muscles and contribute t...
Homeostatic and regenerative replacement of skeletal muscle fibers requires the activity of a dedica...
Satellite cells are dormant progenitors located at the periphery of skeletal myofibers that can be t...
Adult skeletal muscle possesses a remarkable regenerative ability, which largely depends on satellit...
AbstractStriated muscle-specific disruption of the dystroglycan (DAG1) gene results in loss of the d...