Add BrightSurf on Google Email

Neural Regeneration Research


Transplanting neural progenitors to build a neuronal relay across the injured spinal cord

Researchers propose transplanting neural progenitor cells to build a neuronal relay across the injured spinal cord. The model focuses on forming two synaptic connections, one between host axons and graft-derived neurons, and the other between graft axons and target sites within the host, aiming to restore connectivity and function.

SourceNeural Regeneration Research·JournalNeural Regeneration Research·DateAug 5, 2014

Quantitative volumetric analysis of the optic radiation in the normal human brain

Researchers from Korea Research Institute of Standards and Science used diffusion tensor imaging to analyze the optic radiation in 13 healthy volunteers. The study found that the optic radiation fiber tract volume was approximately 0.16% and fractional anisotropy value was about 0.53, enabling accurate detection of probability pathways.

SourceNeural Regeneration Research·JournalNeural Regeneration Research·DateAug 4, 2014

New idea for hearing improvement in patients with hearing aids under background noise

Researchers investigated how neurons in the inferior colliculus respond to paired sounds producing precedence-effect illusions. After local GABA application, responses to lagging stimuli were suppressed, providing a potential new approach for improving speech perception in patients with hearing aids under background noise.

SourceNeural Regeneration Research·JournalNeural Regeneration Research·DateAug 4, 2014

Implanting 125I seeds into rat DRG for neuropathic pain: Only neuronal microdamage occurs

The study implanted 125I seeds into rat dorsal root ganglia to provide relief for neuropathic pain. Results showed elevated mechanical pain threshold without influencing motor functions, suggesting neuronal microdamage as the primary mechanism. The findings have potential implications for developing novel pain management therapies.

SourceNeural Regeneration Research·JournalNeural Regeneration Research·DateJul 29, 2014

Differential gene expression in proximal and distal nerve segments after sciatic nerve injury

Researchers identified differential gene expression in proximal and distal nerve segments of rats with sciatic nerve injury, revealing changes in cell differentiation, cytokinesis, and immune response. The study provides insights into Wallerian degeneration and offers a platform for studying nerve injury and repair.

SourceNeural Regeneration Research·JournalNeural Regeneration Research·DateJul 29, 2014

NRG1 isoforms could be an effective therapeutic candidate to promote peripheral nerve regeneration

Researchers at the University of Western Australia discovered that soluble NRG1 plays a role in early peripheral nerve regeneration phases, promoting axon degeneration and regrowth. Soluble NRG1, already used in human trials for heart failure treatment, may be an effective therapeutic candidate to promote nerve regeneration.

SourceNeural Regeneration Research·JournalNeural Regeneration Research·DateJul 24, 2014

Laser therapy on the repair of a large-gap transected sciatic nerve in a reinforced nerve conduit

Researchers developed a biodegradable nerve conduit using genipin-cross-linked gelatin and beta-tricalcium phosphate, combining it with diode laser therapy to repair long-gap sciatic nerves. The study found that this combination accelerated nerve regeneration, improved reinnervation rates, and enhanced muscle recruitment.

SourceNeural Regeneration Research·JournalNeural Regeneration Research·DateJul 23, 2014

Somatosensory stimulation inhibits excitability of pyramidal cells in rat hippocampal CA1

Researchers found that somatosensory stimulation decreases the firing of pyramidal cells and increases interneuron activity, suggesting a suppressive effect on neuronal hyperexcitability. This study provides insights into signal processing in the hippocampus and explores potential therapeutic applications for brain disorders.

SourceNeural Regeneration Research·JournalNeural Regeneration Research·DateJul 22, 2014

X-ray irradiation at a certain dose alters the neuronal cytoskeleton and cytomechanics

Researchers found that X-ray irradiation damages cortical neurons by altering their cytoskeleton and cytomechanics. The study suggests that heavy ion beams may have a biological advantage over X-rays in protecting normal brain tissue during cranial radiotherapy. This could lead to improved treatment outcomes for patients.

SourceNeural Regeneration Research·JournalNeural Regeneration Research·DateJul 21, 2014