Spinal cord injury (SCI) often leads to the loss of motor and sensory functions and is a major
challenge in neurological clinical practice. Understanding the pathophysiological changes …

The inability of adult mammals to recover function lost after severe spinal cord injury (SCI)
has been known for millennia and is mainly attributed to a failure of brain-derived nerve fiber …

Tissue engineering is a promising strategy to repair spinal cord injury (SCI). However, a
bioscaffold with mechanical properties that match those of the pathological spinal cord …

Background Spinal cord injury (SCI) is a traumatic disease of the central nervous system,
accompanied with high incidence and high disability rate. Tissue engineering scaffold can …

Current therapies for nerve regeneration within injured tissues have had limited success due
to complicated neural anatomy and inhibitory barriers in situ. Recent advancements in 3D …

Tissue engineering has brought new possibilities for the treatment of spinal cord injury. Two
important components for tissue engineering of the spinal cord include a suitable cell source …

In order to create an optimal microenvironment for neural regeneration in the lesion area
after spinal cord injury (SCI), we fabricated a novel scaffold composed of a hyaluronic acid …

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 …

Spinal cord injury (SCI) results in neural loss and consequently motor and sensory
impairment below the injury. There are currently no effective therapies for the treatment of …

Tissue engineering–based neural construction holds promise in providing organoids with
defined differentiation and therapeutic potentials. Here, a bioengineered transplantable …