α1 tubulin gene expression is induced in the developing and regenerating CNS of vertebrates. Therefore, α1 tubulin gene expression may serve as a good probe for mechanisms underlying CNS development and regeneration. One approach to identify these mechanisms is to work backwards from the genome. This requires identification of α1 tubulin DNA sequences that mediate its developmental and regeneration-dependent expression pattern. Therefore, we generated transgenic zebrafish harboring a fragment of the α1 tubulin gene driving green fluorescent protein expression (GFP). In these fish, and similar to the endogenous gene, transgene expression was dramatically induced in the developing and regenerating nervous system. Although transgene expression...
In contrast to mammals, zebrafish display an extensive capacity to generate new neurons and repair i...
Mammalian retinal ganglion cells (RGCs) in the central nervous system (CNS) often die after trauma t...
Fish retain a remarkable potential of neuro-regeneration throughout life, whereas injury to neuronal...
The α1- and α2-tubulin encoding genes were cloned from a goldfish genomic DNA library. α1- and α2-tu...
Abstractα1-tubulin expression occurs in a neural-specific, temporally regulated, and regeneration-in...
Following injury to the central nervous system (CNS), adult mammals are largely unable to regenerate...
Teleost fish have a remarkable capacity to regenerate their central nervous system (CNS) following d...
The tuba1a gene encodes a neural-specific Α-tubulin isoform whose expression is restricted to the ...
Complex and differential gene expression programs give rise to several cell types that constitute th...
AbstractZebrafish possess a robust, innate CNS regenerative ability. Combined with their genetic tra...
Adult mammals are unable to repair spinal cord, brain, and other CNS tissues. Although mature mammal...
In this study, we used a newly-created transgenic zebrafish, Tg(nrd:egfp)/albino, to further charact...
AbstractUnlike mammals, teleost fish are able to mount an efficient and robust regenerative response...
The mammalian central nervous system (CNS) is incapable of regenerating damaged axons; as a result, ...
System xc– is an amino acid transporter that enables the transfer of intracellular glutamate in exch...
In contrast to mammals, zebrafish display an extensive capacity to generate new neurons and repair i...
Mammalian retinal ganglion cells (RGCs) in the central nervous system (CNS) often die after trauma t...
Fish retain a remarkable potential of neuro-regeneration throughout life, whereas injury to neuronal...
The α1- and α2-tubulin encoding genes were cloned from a goldfish genomic DNA library. α1- and α2-tu...
Abstractα1-tubulin expression occurs in a neural-specific, temporally regulated, and regeneration-in...
Following injury to the central nervous system (CNS), adult mammals are largely unable to regenerate...
Teleost fish have a remarkable capacity to regenerate their central nervous system (CNS) following d...
The tuba1a gene encodes a neural-specific Α-tubulin isoform whose expression is restricted to the ...
Complex and differential gene expression programs give rise to several cell types that constitute th...
AbstractZebrafish possess a robust, innate CNS regenerative ability. Combined with their genetic tra...
Adult mammals are unable to repair spinal cord, brain, and other CNS tissues. Although mature mammal...
In this study, we used a newly-created transgenic zebrafish, Tg(nrd:egfp)/albino, to further charact...
AbstractUnlike mammals, teleost fish are able to mount an efficient and robust regenerative response...
The mammalian central nervous system (CNS) is incapable of regenerating damaged axons; as a result, ...
System xc– is an amino acid transporter that enables the transfer of intracellular glutamate in exch...
In contrast to mammals, zebrafish display an extensive capacity to generate new neurons and repair i...
Mammalian retinal ganglion cells (RGCs) in the central nervous system (CNS) often die after trauma t...
Fish retain a remarkable potential of neuro-regeneration throughout life, whereas injury to neuronal...