Adult central nervous system (CNS) axons do not regenerate after injury because of extrinsic inhibitory factors, and a low intrinsic capacity for axon growth. Developing CNS neurons have a better regenerative ability, but lose this with maturity. This mini-review summarises recent findings which suggest one reason for regenerative failure is the selective distribution of growth machinery away from axons as CNS neurons mature. These studies demonstrate roles for the small GTPases ARF6 and Rab11 as intrinsic regulators of polarised transport and axon regeneration. ARF6 activation prevents the axonal transport of integrins in Rab11 endosomes in mature CNS axons. Decreasing ARF6 activation permits axonal transport, and increases regenerative ab...
Axon regeneration in the CNS is largely unsuccessful due to excess inhibitory extrinsic factors with...
The failure of axons to regenerate in the damaged mammalian CNS is the main impediment to functional...
Integrins are involved in axon growth and regeneration. Manipulation of integrins is a route to prom...
Adult central nervous system (CNS) axons do not regenerate after injury because of extrinsic inhibit...
Central nervous system (CNS) axons lose their intrinsic ability to regenerate upon maturity, whereas...
Neurons lose intrinsic axon regenerative ability with maturation, but the mechanism remains unclear....
Injury to the brain and spinal cord has devastating consequences because adult central nervous syste...
Integrins are involved in axon growth and regeneration. Manipulation of integrins is a route to prom...
Integrins are adhesion and survival molecules involved in axon growth during CNS development, as wel...
Adult central nervous system neurons regenerate poorly after injury. One reason for this regenerativ...
Membrane trafficking processes are presumably vital for axonal regeneration after injury, but mechan...
Integrins are adhesion and survival molecules involved in axon growth during CNS development, as wel...
Investigating the molecular mechanisms governing developmental axon growth has been a useful approac...
Axon regeneration in the CNS is inhibited by many extrinsic and intrinsic factors. Because these act...
Adult central nervous system (CNS) axons fail to regenerate after injury because of inhibitory facto...
Axon regeneration in the CNS is largely unsuccessful due to excess inhibitory extrinsic factors with...
The failure of axons to regenerate in the damaged mammalian CNS is the main impediment to functional...
Integrins are involved in axon growth and regeneration. Manipulation of integrins is a route to prom...
Adult central nervous system (CNS) axons do not regenerate after injury because of extrinsic inhibit...
Central nervous system (CNS) axons lose their intrinsic ability to regenerate upon maturity, whereas...
Neurons lose intrinsic axon regenerative ability with maturation, but the mechanism remains unclear....
Injury to the brain and spinal cord has devastating consequences because adult central nervous syste...
Integrins are involved in axon growth and regeneration. Manipulation of integrins is a route to prom...
Integrins are adhesion and survival molecules involved in axon growth during CNS development, as wel...
Adult central nervous system neurons regenerate poorly after injury. One reason for this regenerativ...
Membrane trafficking processes are presumably vital for axonal regeneration after injury, but mechan...
Integrins are adhesion and survival molecules involved in axon growth during CNS development, as wel...
Investigating the molecular mechanisms governing developmental axon growth has been a useful approac...
Axon regeneration in the CNS is inhibited by many extrinsic and intrinsic factors. Because these act...
Adult central nervous system (CNS) axons fail to regenerate after injury because of inhibitory facto...
Axon regeneration in the CNS is largely unsuccessful due to excess inhibitory extrinsic factors with...
The failure of axons to regenerate in the damaged mammalian CNS is the main impediment to functional...
Integrins are involved in axon growth and regeneration. Manipulation of integrins is a route to prom...