AbstractThe Xenopus tadpole is able to regenerate its tail, including skin, muscle, notochord, spinal cord and neurons and blood vessels. This process requires rapid tissue growth and morphogenesis. Here we show that a focus of apoptotic cells appears in the regeneration bud within 12 h of amputation. Surprisingly, when caspase-3 activity is specifically inhibited, regeneration is abolished. This is true of tails both before and after the refractory period. Programmed cell death is only required during the first 24 h after amputation, as later inhibition has no effect on regeneration. Inhibition of caspase-dependent apoptosis results in a failure to induce proliferation in the growth zone, a mispatterning of axons in the regenerate, and the...
Xenopus laevis provides a valuable model to examine cellular and molecular mechanisms involved in th...
AbstractXenopus laevis can regenerate an amputated limb completely at early limb bud stages, but the...
The remarkable regenerative capabilities of amphibians have captured the attention of biologists for...
AbstractThe tail of the frog tadpole, comprising spinal cord, muscle, and notochord, regenerates fol...
AbstractXenopus tadpoles can fully regenerate all major tissue types following tail amputation. TGF-...
Unlike mammals, Xenopus laevis tadpoles have a high regenerative potential. To characterize this reg...
AbstractXenopus laevis tadpoles can regenerate tail, including spinal cord, after partial amputation...
The ability to regrow lost or damaged tissues is widespread, but highly variable among animals. Unde...
AbstractWe have investigated the requirement for the FGF and Wnt/beta-catenin pathways for Xenopus t...
Understanding the molecular mechanisms that promote successful tissue regeneration is critical for c...
The ability to regenerate lost tissue and organs varies among animal species, tissue and life cycle ...
We have employed transgenic methods combined with embryonic grafting to analyse the mechanisms of re...
The tadpoles of the frog Xenopus laevis show significant regeneration capacity and are useful models...
Summary: Tadpoles of the frog Xenopus laevis can regenerate tails except for a short “refractory” pe...
Amphibians such as salamanders and the African clawed frog Xenopus are great models for regeneration...
Xenopus laevis provides a valuable model to examine cellular and molecular mechanisms involved in th...
AbstractXenopus laevis can regenerate an amputated limb completely at early limb bud stages, but the...
The remarkable regenerative capabilities of amphibians have captured the attention of biologists for...
AbstractThe tail of the frog tadpole, comprising spinal cord, muscle, and notochord, regenerates fol...
AbstractXenopus tadpoles can fully regenerate all major tissue types following tail amputation. TGF-...
Unlike mammals, Xenopus laevis tadpoles have a high regenerative potential. To characterize this reg...
AbstractXenopus laevis tadpoles can regenerate tail, including spinal cord, after partial amputation...
The ability to regrow lost or damaged tissues is widespread, but highly variable among animals. Unde...
AbstractWe have investigated the requirement for the FGF and Wnt/beta-catenin pathways for Xenopus t...
Understanding the molecular mechanisms that promote successful tissue regeneration is critical for c...
The ability to regenerate lost tissue and organs varies among animal species, tissue and life cycle ...
We have employed transgenic methods combined with embryonic grafting to analyse the mechanisms of re...
The tadpoles of the frog Xenopus laevis show significant regeneration capacity and are useful models...
Summary: Tadpoles of the frog Xenopus laevis can regenerate tails except for a short “refractory” pe...
Amphibians such as salamanders and the African clawed frog Xenopus are great models for regeneration...
Xenopus laevis provides a valuable model to examine cellular and molecular mechanisms involved in th...
AbstractXenopus laevis can regenerate an amputated limb completely at early limb bud stages, but the...
The remarkable regenerative capabilities of amphibians have captured the attention of biologists for...