Background Molecular studies of appendage regeneration have been hindered by the lack of a stable and efficient means of transferring exogenous genes. We therefore sought an efficient integrating virus system that could be used to study limb and tail regeneration in salamanders. Results We show that replication-deficient foamy virus (FV) vectors efficiently transduce cells in two different regeneration models in cell culture and in vivo. Injection of EGFP-expressing FV but not lentivirus vector particles into regenerating limbs and tail resulted in widespread expression that persisted throughout regeneration and reamputation pointing to the utility of FV for analyzing adult phenotypes in non-mammalian models. Furthermore, tissue specific t...
Foamy viruses (FVs) are unique ancient retroviruses that infect all non-human primates, but do not c...
International audienceSalamanders exhibit an extraordinary ability among vertebrates to regenerate c...
poster abstractUnderstanding limb regeneration on a molecular level could lead to new methods of hea...
Background Molecular studies of appendage regeneration have been hindered by the lack of a stable an...
Molecular studies of appendage regeneration have been hindered by the lack of a stable and efficient...
The salamander is the only tetrapod that regenerates complex body structures throughout life. Deciph...
The salamander is the only tetrapod that regenerates complex body structures throughout life. Deciph...
Axolotls can regenerate complex structures through recruitment and remodeling of cells within mature...
The salamander is the only tetrapod that regenerates complex body structures throughout life. Deciph...
AbstractThe capacity for tissue and organ regeneration in humans is dwarfed by comparison to that of...
SummaryThe salamander is the only tetrapod that functionally regenerates all cell types of the limb ...
AbstractAxolotls, with their extensive abilities to regenerate as adults, provide a useful model in ...
Axolotls, with their extensive abilities to regenerate as adults, provide a useful model in which to...
The establishment of transgenesisi in axolotls is crucial for studying development and regeneration,...
The regenerating amphibian limb provides a useful system for studying genes involved in the establi...
Foamy viruses (FVs) are unique ancient retroviruses that infect all non-human primates, but do not c...
International audienceSalamanders exhibit an extraordinary ability among vertebrates to regenerate c...
poster abstractUnderstanding limb regeneration on a molecular level could lead to new methods of hea...
Background Molecular studies of appendage regeneration have been hindered by the lack of a stable an...
Molecular studies of appendage regeneration have been hindered by the lack of a stable and efficient...
The salamander is the only tetrapod that regenerates complex body structures throughout life. Deciph...
The salamander is the only tetrapod that regenerates complex body structures throughout life. Deciph...
Axolotls can regenerate complex structures through recruitment and remodeling of cells within mature...
The salamander is the only tetrapod that regenerates complex body structures throughout life. Deciph...
AbstractThe capacity for tissue and organ regeneration in humans is dwarfed by comparison to that of...
SummaryThe salamander is the only tetrapod that functionally regenerates all cell types of the limb ...
AbstractAxolotls, with their extensive abilities to regenerate as adults, provide a useful model in ...
Axolotls, with their extensive abilities to regenerate as adults, provide a useful model in which to...
The establishment of transgenesisi in axolotls is crucial for studying development and regeneration,...
The regenerating amphibian limb provides a useful system for studying genes involved in the establi...
Foamy viruses (FVs) are unique ancient retroviruses that infect all non-human primates, but do not c...
International audienceSalamanders exhibit an extraordinary ability among vertebrates to regenerate c...
poster abstractUnderstanding limb regeneration on a molecular level could lead to new methods of hea...