Chen, Shih-Heng Chou, Pang-Yun Chen, Zhi-Yu Chuang, David Chwei-Chin Hsieh, Sung-Tsang Lin, Feng-Huei
Published in
Carbohydrate polymers
Peripheral nerve injuries mainly occur in the extremities and result in functional deficits, and recovery after microsurgical repair is slow (
Gao, Kai Niu, Jianbing Dang, Xiaoqian
Published in
Neuroscience letters
Little is known about the effect of wnt-3a on motor nerve function and its specific molecular mechanisms after spinal cord injury (SCI). This study demonstrates that the downregulated expression levels of caspases-3, caspases-9 and chondroitin sulfate proteoglycan (CSPG) proteins and number of proportion of transferase UTP nick end labeling (TUNEL)...
Chen, Grace H Chiao, Chuan-Chin
Published in
Brain research
The axons of retinal ganglion cells (RGCs) in adult mammals fail to regenerate after injury. It has been suggested that some extrinsic factors, such as neural activity, may promote the regeneration process. The present study tested the hypothesis that environmental stress such as slightly elevated osmolarity and temperature can enhance neural activ...
Belrose, Jamie L. Prasad, Aparna Sammons, Morgan A. Gibbs, Kurt M. Szaro, Ben G.
Published in
BMC Genomics
BackgroundThe South African claw-toed frog, Xenopus laevis, is uniquely suited for studying differences between regenerative and non-regenerative responses to CNS injury within the same organism, because some CNS neurons (e.g., retinal ganglion cells after optic nerve crush (ONC)) regenerate axons throughout life, whereas others (e.g., hindbrain ne...
Tran, Amanda Phuong Warren, Philippa Mary Silver, Jerry
Published in
Experimental neurology
Chondroitin sulfate proteoglycans (CSPGs), extracellular matrix molecules that increase dramatically following a variety of CNS injuries or diseases, have long been known for their potent capacity to curtail cell migrations as well as axon regeneration and sprouting. The inhibition can be conferred through binding to their major cognate receptor, P...
Wang, Yang Li, Binxi Xu, Hao Du, Shulin Liu, Ting Ren, Jingyan Zhang, Jiayi Zhang, Hao Liu, Yi Lu, Laijin
...
Published in
Journal of Nanobiotechnology
BackgroundThe primary strategy to repair peripheral nerve injuries is to bridge the lesions by promoting axon regeneration. Thus, the ability to direct and manipulate neuronal cell axon regeneration has been one of the top priorities in the field of neuroscience. A recent innovative approach for remotely guiding neuronal regeneration is to incorpor...
Chiao, Chuan-Chin Lin, Chin-I Lee, Meng-Jung
Published in
Methods in molecular biology (Clifton, N.J.)
Activity is important for neural development and regeneration. Enhancing neural activity can facilitate axon regrowth of retinal ganglion cells. Here, we describe various methods, including electrical stimulation, pharmacological manipulation, and optogenetics, to elevate neural activity of retinal explants in mice and to analyze their effects on p...
Akbari, Hossein Farrokhi, Behzad Emami, Seyed-Abolhassan Akhoondinasab, Mohammad-Reza Akbari, Peyman Karimi, Hamid
Published in
World Journal of Plastic Surgery
BACKGROUND Many different methods for nerve repair have been introduced. Nerve repair with micro-suture is the gold standard one; however, the use of fibrin glue is a promising method. This study compared the never repair with fibrin glue and perineural micro-suture in rat model. METHODS Ten 3-4 month old male rats, weighting between 250-300 grams ...
Fawcett, James W
Published in
Neurochemical research
Axon regeneration in the CNS is inhibited by many extrinsic and intrinsic factors. Because these act in parallel, no single intervention has been sufficient to enable full regeneration of damaged axons in the adult mammalian CNS. In the external environment, NogoA and CSPGs are strongly inhibitory to the regeneration of adult axons. CNS neurons los...
Elberg, Gerard Liraz-Zaltsman, Sigal Reichert, Fanny Matozaki, Takashi Tal, Michael Rotshenker, Shlomo
Published in
Journal of Neuroinflammation
BackgroundRecovery of function from traumatic nerve injury depends on the ability of severed axons to grow/regenerate back to their target tissues. This is achieved by successfully crossing the lesion site where physical impact severed axons, determined by the type of trauma, followed by successfully growing throughout the Wallerian degenerating ne...