Methods in molecular biology · 2012 · 10 citations · 4 references
Life SciencesNeurobiologyNeuroscienceCellular NeuroscienceRegenerative MedicineTissue EngineeringNeural RegenerationNeural Stem Cell BiologyNeural Stem CellsNeural Tissue EngineeringNeurogenesisRegenerationAxolotl RegenerationCentral Nervous System RepairNeuronal RegenerationRegeneration Of Nervous TissueSpinal Cord RegenerationSpinal Cord RepairTail Regeneration
Urodele amphibians such as axolotl are well known for their regenerative potential of the damaged central nervous system structures. Upon tail amputation, neural stem cells behind the amputation plane undergo self-renewing divisions and contribute to the functional spinal cord in the newly formed regenerate. The neural stem cells, harboring this potential, can be isolated from the animal and cultured under the suspension conditions. After 2-3 weeks in vitro they will proliferate and form the floating aggregates of the spherical shape, so-called neurospheres. Reimplanted back into the animal, the neurospheres can efficiently integrate in the spinal cord lesion and contribute to the following spinal cord regeneration events. Here we demonstrate the unique method of the axolotl tail spinal cord regeneration from the implanted neurosphere.
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Lidia Sobkow, Hans‐Henning Epperlein, Stephan Herklotz et al. · Developmental Biology · 2006 · 165 citations
Levan Mchedlishvili, Hans H. Epperlein, Anja Telzerow et al. · Development · 2007 · 130 citations
Reconstitution of the spinal cord after ablation in adult Triturus
Elmer Butler, Margery B. Ward · Developmental Biology · 1967 · 101 citations
Medicine, Neurology, Neurosurgery +11