Artículo
Protein Kinase C: Targets to Regenerate Brain Injuries?
Autor/es | Núñez Abades, Pedro Antonio
Geribaldi Doldán, Noelia Gómez Oliva, Ricardo Domínguez García, Samuel Castro, Carmen |
Departamento | Universidad de Sevilla. Departamento de Fisiología |
Fecha de publicación | 2019 |
Fecha de depósito | 2019-04-09 |
Publicado en |
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Resumen | Acute or chronic injury to the central nervous system (CNS), causes neuronal death and irreversible cognitive deficits or sensory-motor alteration. Despite the capacity of the adult CNS to generate new neurons from neural ... Acute or chronic injury to the central nervous system (CNS), causes neuronal death and irreversible cognitive deficits or sensory-motor alteration. Despite the capacity of the adult CNS to generate new neurons from neural stem cells (NSC), neuronal replacement following an injury is a restricted process, which does not naturally result in functional regeneration. Therefore, potentiating endogenous neurogenesis is one of the strategies that are currently being under study to regenerate damaged brain tissue. The insignificant neurogenesis that occurs in CNS injuries is a consequence of the gliogenic/non-neurogenic environment that inflammatory signaling molecules create within the injured area. The modification of the extracellular signals to generate a neurogenic environment would facilitate neuronal replacement. However, in order to generate this environment, it is necessary to unearth which molecules promote or impair neurogenesis to introduce the first and/or eliminate the latter. Specific isozymes of the protein kinase C (PKC) family differentially contribute to generate a gliogenic or neurogenic environment in injuries by regulating the ADAM17 mediated release of growth factor receptor ligands. Recent reports describe several non-tumorigenic diterpenes isolated from plants of the Euphorbia genus, which specifically modulate the activity of PKC isozymes promoting neurogenesis. Diterpenes with 12-deoxyphorbol or lathyrane skeleton, increase NPC proliferation in neurogenic niches in the adult mouse brain in a PKCβ dependent manner exerting their effects on transit amplifying cells, whereas PKC inhibition in injuries promotes neurogenesis. Thus, compounds that balance PKC activity in injuries might be of use in the development of new drugs and therapeutic strategies to regenerate brain injuries. |
Identificador del proyecto | BFU2015-68652-R |
Cita | Núñez Abades, P.A., Geribaldi Doldán, N., Gómez Oliva, R., Domínguez García, S. y Castro, C. (2019). Protein Kinase C: Targets to Regenerate Brain Injuries?. Frontiers in Cell and Developmental Biology, 7 (art.39), 1-9. |
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