The α1- and α2-tubulin encoding genes were cloned from a goldfish genomic DNA library. α1- and α2-tubulin RNA expression was examined in developing and adult retinas. These studies demonstrated increased α1-tubulin RNA in presumptive ganglion cells that grow axons early in retinal development and in adult retinal ganglion cells whose optic axons had been damaged. The α2-tubulin RNA was undetectable in developing retina and constitutively expressed in adult retinal ganglion cells regardless of optic nerve crush. To determine if these changes in α1-tubulin RNA reflected changes in α1-tubulin promoter activity, we introduced into zebrafish embryos and adult goldfish retinal explants expression vectors harboring the α1-tubulin gene's promoter. ...
The mammalian central nervous system (CNS) is incapable of regenerating damaged axons; as a result, ...
Persistent rod genesis in the retinas of teleost fish was first described over 2 decades ago, but li...
The mammalian central nervous system (CNS) shows a very limited capacity for axonal regeneration, a ...
α1 tubulin gene expression is induced in the developing and regenerating CNS of vertebrates. Therefo...
Teleost fish have a remarkable capacity to regenerate their central nervous system (CNS) following d...
Following injury to the central nervous system (CNS), adult mammals are largely unable to regenerate...
AbstractThe molecular regulation of tubulin synthesis was investigated in the regenerating goldfish ...
Abstractα1-tubulin expression occurs in a neural-specific, temporally regulated, and regeneration-in...
The tuba1a gene encodes a neural-specific Α-tubulin isoform whose expression is restricted to the ...
A fundamental issue in central nervous system development regards the effect of target tissue on the...
AbstractUnlike mammals, teleost fish are able to mount an efficient and robust regenerative response...
Mammalian retinal ganglion cells (RGCs) in the central nervous system (CNS) often die after trauma t...
In contrast to mammals, adult fish display a remarkable ability to fully regenerate central nervous ...
Complex and differential gene expression programs give rise to several cell types that constitute th...
Adult mammals are unable to repair spinal cord, brain, and other CNS tissues. Although mature mammal...
The mammalian central nervous system (CNS) is incapable of regenerating damaged axons; as a result, ...
Persistent rod genesis in the retinas of teleost fish was first described over 2 decades ago, but li...
The mammalian central nervous system (CNS) shows a very limited capacity for axonal regeneration, a ...
α1 tubulin gene expression is induced in the developing and regenerating CNS of vertebrates. Therefo...
Teleost fish have a remarkable capacity to regenerate their central nervous system (CNS) following d...
Following injury to the central nervous system (CNS), adult mammals are largely unable to regenerate...
AbstractThe molecular regulation of tubulin synthesis was investigated in the regenerating goldfish ...
Abstractα1-tubulin expression occurs in a neural-specific, temporally regulated, and regeneration-in...
The tuba1a gene encodes a neural-specific Α-tubulin isoform whose expression is restricted to the ...
A fundamental issue in central nervous system development regards the effect of target tissue on the...
AbstractUnlike mammals, teleost fish are able to mount an efficient and robust regenerative response...
Mammalian retinal ganglion cells (RGCs) in the central nervous system (CNS) often die after trauma t...
In contrast to mammals, adult fish display a remarkable ability to fully regenerate central nervous ...
Complex and differential gene expression programs give rise to several cell types that constitute th...
Adult mammals are unable to repair spinal cord, brain, and other CNS tissues. Although mature mammal...
The mammalian central nervous system (CNS) is incapable of regenerating damaged axons; as a result, ...
Persistent rod genesis in the retinas of teleost fish was first described over 2 decades ago, but li...
The mammalian central nervous system (CNS) shows a very limited capacity for axonal regeneration, a ...