Understanding the intra- and extracellular proteins involved in the development of the corticospinal tract (CST) may offer insights into how the pathway could be regenerated following traumatic spinal cord injury. Currently, however, little is known about the proteome of the developing corticospinal system. The present study, therefore, has used quantitative proteomics and bioinformatics to detail the protein profile of the rat CST during its formation in the spinal cord. This analysis identified increased expression of 65 proteins during the early ingrowth of corticospinal axons into the spinal cord, and 36 proteins at the period of heightened CST growth. A majority of these proteins were involved in cellular assembly and organization, wit...
Injuries to the spinal cord often result in severe functional deficits that, in case of incomplete i...
Following trauma of the adult brain or spinal cord the injured axons of central neurons fail to rege...
Background: Spinal interneurons have emerged as crucial targets of supraspinal input during post-inj...
This study was generously supported by a grant (20114975) from The Henry Smith Charity. The authors ...
In response to cortical stroke and unilateral corticospinal tract degeneration, compensatory sprouti...
Extensive damage to a developed spinal cord can be devastating. The axons of nerve cells cannot rege...
Studies of axonal outgrowth and regeneration after spinal cord injury are hampered by the complexity...
The human corticospinal tract (CST) is responsible for coordinated voluntary movement and it contain...
The development of the spinal cord involves the proliferation of neurons, their migration to well-de...
For centuries regeneration was thought to be unattainable in the spinal cord, but recent tools and a...
Formation of cortical connections requires the precise coordination of numerous discrete phases. Thi...
“Neuroplasticity” is often evoked to explain adaptation and compensation after acute lesions of the ...
The rapid decline of injury-induced neuronal circuit remodelling after birth is paralleled by the ac...
Keratan sulphate proteoglycan (KSPG) is a developmentally regulated barrier molecule, directing axon...
Injuries to the spinal cord often result in severe functional deficits that, in case of incomplete i...
Following trauma of the adult brain or spinal cord the injured axons of central neurons fail to rege...
Background: Spinal interneurons have emerged as crucial targets of supraspinal input during post-inj...
This study was generously supported by a grant (20114975) from The Henry Smith Charity. The authors ...
In response to cortical stroke and unilateral corticospinal tract degeneration, compensatory sprouti...
Extensive damage to a developed spinal cord can be devastating. The axons of nerve cells cannot rege...
Studies of axonal outgrowth and regeneration after spinal cord injury are hampered by the complexity...
The human corticospinal tract (CST) is responsible for coordinated voluntary movement and it contain...
The development of the spinal cord involves the proliferation of neurons, their migration to well-de...
For centuries regeneration was thought to be unattainable in the spinal cord, but recent tools and a...
Formation of cortical connections requires the precise coordination of numerous discrete phases. Thi...
“Neuroplasticity” is often evoked to explain adaptation and compensation after acute lesions of the ...
The rapid decline of injury-induced neuronal circuit remodelling after birth is paralleled by the ac...
Keratan sulphate proteoglycan (KSPG) is a developmentally regulated barrier molecule, directing axon...
Injuries to the spinal cord often result in severe functional deficits that, in case of incomplete i...
Following trauma of the adult brain or spinal cord the injured axons of central neurons fail to rege...
Background: Spinal interneurons have emerged as crucial targets of supraspinal input during post-inj...