AbstractRegeneration of the spinal cord occurs spontaneously in adult urodele amphibians. The key cells in this regenerative process appear to be the ependymal cells that following injury migrate and proliferate to form the ependymal tube from which the spinal cord regenerates. Very little is known about the signal(s) that initiates and maintains the proliferative response of these cells. Fibroblast growth factor 2 (FGF-2) has been shown to play a role in maintaining neural progenitor cell cycling in vitro and may be important for neuronal survival and axonal growth after injury. We have investigated its role in regeneration of the spinal cord in vivo following tail amputation in the adult salamander, Pleurodeles waltl. We show that only th...
<p>The differentiated state of spinal cord ependymal cells in regeneration-competent amphibians vari...
AbstractRecent studies suggest that fibroblast growth factors (FGFs), or FGF receptor-mediated signa...
<p>The differentiated state of spinal cord ependymal cells in regeneration-competent amphibians vari...
AbstractRegeneration of the spinal cord occurs spontaneously in adult urodele amphibians. The key ce...
The urodele amphibians such as the axolotl are capable of regenerating injured spinal cord throughou...
Abstract Background Despite conserved developmental processes and organization of the vertebrate cen...
AbstractUrodele amphibians have remarkable organ regeneration ability. They can regenerate not only ...
During vertebrate embryonic development, the spinal cord is formed by the neural derivatives of a ne...
Abstract Background In contrast to mammals, amphibians, such as adult urodeles (for example, newts) ...
Complete regeneration of the spinal cord occurs after tail regeneration in urodele amphibians such a...
<p>The differentiated state of spinal cord ependymal cells in regeneration-competent amphibians vari...
<p>The differentiated state of spinal cord ependymal cells in regeneration-competent amphibians vari...
<p>The differentiated state of spinal cord ependymal cells in regeneration-competent amphibians vari...
Growth factors are potentially important modulators of epimorphic regeneration. This study examined ...
<p>The differentiated state of spinal cord ependymal cells in regeneration-competent amphibians vari...
<p>The differentiated state of spinal cord ependymal cells in regeneration-competent amphibians vari...
AbstractRecent studies suggest that fibroblast growth factors (FGFs), or FGF receptor-mediated signa...
<p>The differentiated state of spinal cord ependymal cells in regeneration-competent amphibians vari...
AbstractRegeneration of the spinal cord occurs spontaneously in adult urodele amphibians. The key ce...
The urodele amphibians such as the axolotl are capable of regenerating injured spinal cord throughou...
Abstract Background Despite conserved developmental processes and organization of the vertebrate cen...
AbstractUrodele amphibians have remarkable organ regeneration ability. They can regenerate not only ...
During vertebrate embryonic development, the spinal cord is formed by the neural derivatives of a ne...
Abstract Background In contrast to mammals, amphibians, such as adult urodeles (for example, newts) ...
Complete regeneration of the spinal cord occurs after tail regeneration in urodele amphibians such a...
<p>The differentiated state of spinal cord ependymal cells in regeneration-competent amphibians vari...
<p>The differentiated state of spinal cord ependymal cells in regeneration-competent amphibians vari...
<p>The differentiated state of spinal cord ependymal cells in regeneration-competent amphibians vari...
Growth factors are potentially important modulators of epimorphic regeneration. This study examined ...
<p>The differentiated state of spinal cord ependymal cells in regeneration-competent amphibians vari...
<p>The differentiated state of spinal cord ependymal cells in regeneration-competent amphibians vari...
AbstractRecent studies suggest that fibroblast growth factors (FGFs), or FGF receptor-mediated signa...
<p>The differentiated state of spinal cord ependymal cells in regeneration-competent amphibians vari...