Browse the latest research summaries in the field of regenerative medicine & stem cells for spinal cord injury patients and caregivers.
Showing 2,271-2,280 of 2,317 results
Biomater Transl, 2024 • November 15, 2024
Stem cell-derived spinal cord organoids (SCOs) have revolutionised the study of spinal cord development and disease mechanisms, offering a three-dimensional model that recapitulates the complexity of ...
KEY FINDING: SCOs effectively model spinal cord morphogenesis, offering insights into the intricate processes of neural tube formation and regional specification.
Int. J. Mol. Sci., 2022 • December 28, 2021
This study aimed to enhance rhBMP-2-mediated regeneration of critical sized segmental bone defects using a biomimetic silk fibroin scaffold. The scaffold was designed with anisotropic channel-like por...
KEY FINDING: Highly porous, anisotropic silk scaffolds were successfully produced and demonstrated good cytocompatibility in vitro.
F1000Research, 2020 • April 22, 2020
Spinal cord injury (SCI) leads to chronic and multifaceted disability, which severely impacts the physical and mental health as well as the socio-economic status of affected individuals. Considerable ...
KEY FINDING: Gene therapy has gained promising advancement in the past decade, as six therapies have gained clinical approval for conditions such as spinal muscular atrophy or Leber’s congenital amaurosis.
Comp Biochem Physiol C Toxicol Pharmacol, 2015 • December 1, 2015
The study introduces a new tail regeneration model using late-stage Mexican axolotl embryos, which can regenerate amputated tails in 7 days. Chemical screening identified Wnt, transforming growth fact...
KEY FINDING: Axolotl embryos can completely regenerate amputated tails in 7 days without feeding, making them an efficient model for regeneration studies.
Neural Regeneration Research, 2017 • June 1, 2017
This study investigates the combined effect of brain injury and tacrolimus on peripheral nerve regeneration in rats with transected sciatic nerves. The results showed that combining brain injury with ...
KEY FINDING: Brain injury or tacrolimus alone, or their combination, alleviated muscle atrophy and nerve fiber impairment while improving sciatic nerve function.
Frontiers in Cellular Neuroscience, 2015 • January 13, 2015
This study investigates spinal cord regeneration in Pleurodeles waltlii after complete transection, focusing on the role of neurogenesis and growth factors. It demonstrates that ependymal cells fill t...
KEY FINDING: Nestin expression is prominent in the rostral part of the spinal cord next to the lesion site one week after transection, implying neuronal progenitor migration to replace the missing tissue.
Stem Cell Reports, 2018 • November 13, 2018
The study focuses on engineering lineage-tracing systems in human embryonic stem cells (hESCs) using genetic recombination techniques. The goal is to specify human developmental principles using an a...
KEY FINDING: The AAVS1 locus in human cells is suitable for integrating conditional reporters for reliable transgene expression during lineage tracing.
NEURAL REGENERATION RESEARCH, 2022 • October 1, 2022
This review discusses the critical roles of the mTOR pathway in axon regeneration in different types of CNS injury and demonstrates that the reactivation of this regenerative pathway can be achieved b...
KEY FINDING: mTOR signaling is the intrinsic axon regenerative pathway, and its reactivation can promote axon regeneration after adult CNS injury.
Cell Adhesion & Migration, 2009 • June 30, 2009
This study investigates the role of netrin-1 in sensory axonal guidance during development and regeneration. It reveals that netrin-1 functions as a chemorepellent for developing dorsal root ganglion ...
KEY FINDING: Netrin-1 acts as a chemorepellent for developing DRG axons, preventing them from projecting aberrantly toward the ventral spinal cord and ensuring correct projection toward the DREZ.
Cells, 2021 • April 10, 2021
This study demonstrates that hair-follicle-associated pluripotent (HAP) stem cells can be efficiently differentiated into dopaminergic neurons in vitro. These HAP stem cell-derived dopaminergic neuron...
KEY FINDING: Mouse HAP stem cells can efficiently differentiate into dopaminergic neurons when cultured in neural-induction medium.