Functional deficits following spinal cord injury (SCI) primarily attribute to loss of neural
connectivity. We therefore tested if novel tissue engineering approaches could enable …

Rebuilding structures that can bridge the injury gap and enable signal connection remains a
challenging issue in spinal cord injury. We sought to determine if genetically enhanced …

Remyelination remains a challenging issue in spinal cord injury (SCI). In the present study,
we cocultured Schwann cells (SCs) and neural stem cells (NSCs) with overexpression of …

We have reported previously that bone marrow mesenchymal stem cell (MSC)-derived
neural network scaffold not only survived in the injury/graft site of spinal cord but also served …

Introduction Severe spinal cord injury often causes temporary or permanent damages in
strength, sensation, or autonomic functions below the site of the injury. So far, there is still no …

Severe spinal cord injury (SCI) causes loss of neural connectivity and permanent functional
deficits. Re-establishment of new neuronal relay circuits after SCI is therefore of paramount …

Effectively bridging the lesion gap is still an unmet demand for spinal cord repair. In the
present study, we tested our hypothesis if cograft of Schwann cells (SCs) and neural stem …

Biological materials combined with genetically‐modified neural stem cells (NSCs) are
candidate therapy targeting spinal cord injury (SCI). Based on our previous studies, here we …

Rapid progress in the field of nerve tissue engineering has opened up the way for new
therapeutic strategies for spinal cord injury (SCI). Bone marrow-derived mesenchymal stem …

Spinal cord injury (SCI) typically results in long-lasting functional deficits, largely due to
primary and secondary wh ite matter damage at the site of injury. The transplantation of …