Lesioned axons do not regenerate in the adult mammalian central nervous system, owing to the overexpression of inhibitory molecules such as myelin-derived proteins or chondroitin sulphate proteoglycans. In order to overcome axon inhibition, strategies based on extrinsic and intrinsic treatments have been developed. For myelin-associated inhibition, blockage with NEP1-40, receptor bodies or IN-1 antibodies has been used. In addition, endogenous blockage of cell signalling mechanisms induced by myelin-associated proteins is a potential tool for overcoming axon inhibitory signals. We examined th
Nogo-A, a membrane protein enriched in central nervous system (CNS) myelin, is a potent inhibitor of...
Unlike neonatal axons, mammalian adult axons of the CNS do not regenerate after injury. This develop...
AbstractThree different myelin proteins, Nogo, MAG, and OMgp, inhibit regenerating axons after CNS i...
Lesioned axons do not regenerate in the adult mammalian central nervous system, owing to the overexp...
Lesioned axons do not regenerate in the adult mammalian CNS, owing to the over-expression of inhibit...
[eng] Lesioned axons do not regenerate in the adult mammalian central nervous system, owing to the o...
Adult mammalian central nervous system (CNS) axons have very limited capacity of regrowth after inju...
Pioneering studies conducted in the 1980’s laid the foundation for the hypothesis that axonal regene...
AbstractGrowth inhibition in the central nervous system (CNS) is a major barrier to axon regeneratio...
Adult mammalian central nervous system (CNS) axons have a limited regrowth capacity following injury...
The central nervous system of higher vertebrates, in contrast to the peripheral one, doesn't regener...
[eng] The adult central nervous system (CNS) has a very little capability to regrow its connections ...
Axonal injury causes fatal damage to the neuron because of the poor regrowth of the injured axon. Th...
Nogo-A was initially discovered as a myelin-associated growth inhibitory protein limiting axonal reg...
Axonal damage leads to permanent deficits in the adult central nervous system (CNS) not only because...
Nogo-A, a membrane protein enriched in central nervous system (CNS) myelin, is a potent inhibitor of...
Unlike neonatal axons, mammalian adult axons of the CNS do not regenerate after injury. This develop...
AbstractThree different myelin proteins, Nogo, MAG, and OMgp, inhibit regenerating axons after CNS i...
Lesioned axons do not regenerate in the adult mammalian central nervous system, owing to the overexp...
Lesioned axons do not regenerate in the adult mammalian CNS, owing to the over-expression of inhibit...
[eng] Lesioned axons do not regenerate in the adult mammalian central nervous system, owing to the o...
Adult mammalian central nervous system (CNS) axons have very limited capacity of regrowth after inju...
Pioneering studies conducted in the 1980’s laid the foundation for the hypothesis that axonal regene...
AbstractGrowth inhibition in the central nervous system (CNS) is a major barrier to axon regeneratio...
Adult mammalian central nervous system (CNS) axons have a limited regrowth capacity following injury...
The central nervous system of higher vertebrates, in contrast to the peripheral one, doesn't regener...
[eng] The adult central nervous system (CNS) has a very little capability to regrow its connections ...
Axonal injury causes fatal damage to the neuron because of the poor regrowth of the injured axon. Th...
Nogo-A was initially discovered as a myelin-associated growth inhibitory protein limiting axonal reg...
Axonal damage leads to permanent deficits in the adult central nervous system (CNS) not only because...
Nogo-A, a membrane protein enriched in central nervous system (CNS) myelin, is a potent inhibitor of...
Unlike neonatal axons, mammalian adult axons of the CNS do not regenerate after injury. This develop...
AbstractThree different myelin proteins, Nogo, MAG, and OMgp, inhibit regenerating axons after CNS i...