Unlike the adult mammalian central nervous system (CNS) that has limited capacity for regeneration, the immature mammalian CNS shows a unique ability to successfully regenerate after injury. Although regeneration studies have provided significant insight into the basic molecular mechanisms underlying CNS regeneration, the key differences between the organisms that can and cannot regenerate are still unknown. Monodelphis domestica, commonly known as the gray short-tailed opossum, is a unique preparation that offers an exceptional opportunity to study mammalian CNS regeneration, without a need for intrauterine surgery. Opossums are marsupials born at highly immature developmental stage, with the possibility to regenerate spinal cord after inj...
Changes in gene expression have been measured 24 h after injury to mammalian spinal cords that can a...
A search for genes that promote or block CNS regeneration requires numerous approaches; for example,...
AbstractSpinal cord regeneration is very inefficient in humans, causing paraplegia and quadriplegia....
Unlike the adult mammalian central nervous system (CNS) that has limited capacity for regeneration, ...
Mammalian central nervous system (CNS) begins to develop in early embryonal period. CNS has then the...
Central nervous system (CNS) sustained injuries in mammals often result in severe and irreversible d...
The mammalian central nervous system (CNS) develops primarily during the embryonal period, but final...
The aim of the present experiments was to analyze molecular mechanisms responsible for enhancing and...
The inability of adult mammals to regenerate central nervous system (CNS) after injury is one of the...
Comprehensive screens were made for genes that change their expression during a brief critical perio...
This study investigates the response to spinal cord injury in the gray short‐tailed opossum (Monodel...
This Thesis examines the molecular changes that occur in the spinal cord of the South American oposs...
A major participant in neural regeneration is Sox2, expressed in neural stem cells, which differenti...
A major participant in neural regeneration is the transcription factor Sox2. It is expressed in neur...
Regeneration is a process that renews damaged or lost cells, tissues, or even of entire body structu...
Changes in gene expression have been measured 24 h after injury to mammalian spinal cords that can a...
A search for genes that promote or block CNS regeneration requires numerous approaches; for example,...
AbstractSpinal cord regeneration is very inefficient in humans, causing paraplegia and quadriplegia....
Unlike the adult mammalian central nervous system (CNS) that has limited capacity for regeneration, ...
Mammalian central nervous system (CNS) begins to develop in early embryonal period. CNS has then the...
Central nervous system (CNS) sustained injuries in mammals often result in severe and irreversible d...
The mammalian central nervous system (CNS) develops primarily during the embryonal period, but final...
The aim of the present experiments was to analyze molecular mechanisms responsible for enhancing and...
The inability of adult mammals to regenerate central nervous system (CNS) after injury is one of the...
Comprehensive screens were made for genes that change their expression during a brief critical perio...
This study investigates the response to spinal cord injury in the gray short‐tailed opossum (Monodel...
This Thesis examines the molecular changes that occur in the spinal cord of the South American oposs...
A major participant in neural regeneration is Sox2, expressed in neural stem cells, which differenti...
A major participant in neural regeneration is the transcription factor Sox2. It is expressed in neur...
Regeneration is a process that renews damaged or lost cells, tissues, or even of entire body structu...
Changes in gene expression have been measured 24 h after injury to mammalian spinal cords that can a...
A search for genes that promote or block CNS regeneration requires numerous approaches; for example,...
AbstractSpinal cord regeneration is very inefficient in humans, causing paraplegia and quadriplegia....