Browse our collection of 11,526 research summaries, all carefully curated and simplified for the spinal cord injury community.
Showing 4,101-4,110 of 11,526 results
J. Dev. Biol., 2021 • August 30, 2021
Reptiles, similar to mammals, exhibit injury repair capabilities, but differ in their ability to regenerate lost structures. While scarring is the primary repair mechanism for large wounds in turtles ...
KEY FINDING: Tuatara tail regeneration is a slow process that combines regeneration and growth (“regengrow”), resulting in tails with a cartilaginous axis, connective tissue, fat cells, and sparse nerves.
Neurosci. Bull., 2022 • August 30, 2021
This study established a new mouse model of congenital hydrocephalus by deleting b-catenin in Nkx2.1-expressing ventral neural progenitors. The knockout mice consistently showed enlarged brains and ve...
KEY FINDING: Conditional knockout of b-catenin in Nkx2.1-expressing progenitors in mice leads to severe hydrocephalus from mid-gestation through adulthood, establishing a reliable animal model.
Surgical Neurology International, 2021 • August 30, 2021
This case report describes the successful use of aneurysm clips to repair a cisterna chyli (CC) injury sustained during a thoracolumbar fusion. This technique has not been previously described in lite...
KEY FINDING: Aneurysm clips can be safely and effectively used to repair cisterna chyli injuries during spinal surgery.
Cells, 2021 • August 28, 2021
This study investigates the unique loss of the central canal in the adult human spinal cord, comparing it to similar phenomena in Naked Mole-Rats (NMR) and hyh mice. The research highlights the distin...
KEY FINDING: Adult humans uniquely lose the central canal, which is replaced by a structure with large ependymal cell accumulations, astrogliosis, and perivascular pseudo-rosettes, unlike other mammals.
Front. Cell Dev. Biol., 2021 • August 27, 2021
Mitochondria participate in epigenetic regulation of neurodegenerative diseases through bidirectional communication with the nucleus. Mitochondrial DNA methylation and metabolites indirectly affect hi...
KEY FINDING: Nuclear epigenome affects mitochondrial function, influencing diseases like Alzheimer’s, Parkinson’s, Huntington’s, and ALS.
The Journal of Spinal Cord Medicine, 2021 • August 27, 2021
This collection of articles highlights various collaborative networks in Canada that are dedicated to improving care and outcomes for individuals with spinal cord injury (SCI). These networks involve ...
KEY FINDING: The Rick Hansen Spinal Cord Injury Registry (RHSCIR) collects data on individuals with SCI to answer research questions, facilitate implementation of best practices, and link stakeholders.
Behav Brain Res, 2021 • August 27, 2021
This study investigated the effects of different force fields applied during robotic-assisted gait training (RAGT) on the recovery of overground locomotion in rats with spinal cord injuries. The resul...
KEY FINDING: Different applied forces during RAGT can induce distinct after-effects on stepping performance within the training device.
Sensors, 2021 • August 27, 2021
There is a need for innovation to improve the engagement and accessibility of rehabilitation programs for children and adults with upper extremity motor impairments due to neurodevelopmental disorders...
KEY FINDING: Both the XG and CG showed significant improvements post intervention with medium to large effect sizes in the PDMS-2 grasp and VMI tests scores, as well as the CUE assessment outcome measures
Burns & Trauma, 2021 • August 26, 2021
This review investigates why the healing process is interrupted after spinal cord injury, focusing on the formation of a glial scar around the damaged tissue. It summarizes research findings on scar f...
KEY FINDING: Microglia are an important component of the protective scar that forms after SCI. Microglia form a dense cellular interface between reactive astrocytes and infiltrating monocyte-derived macrophages at the border of the lesion post-SCI.
Frontiers in Cellular Neuroscience, 2021 • August 26, 2021
This review summarizes the current understanding of fibrotic scar formation after spinal cord injury (SCI), its cellular origins, and its interactions with other cells in the injured area. It highligh...
KEY FINDING: Fibrotic scar tissue, composed of fibroblasts and excess extracellular matrix, forms after SCI and inhibits axonal regeneration.