Literature DB >> 27825985

A view from the ending: Axonal dieback and regeneration following SCI.

Caitlin E Hill1.   

Abstract

Following spinal cord injury (SCI), most axons fail to regenerate and instead form large, swollen endings generically called 'retraction bulbs.' These endings form and persist after SCI even under experimental therapeutic conditions where significant CNS regeneration occurs. Although retraction bulbs can arise from either activation of degenerative processes or deficits in regenerative processes, they are typically grouped as a single type of axonal ending. To facilitate the targeting of axonal endings for SCI repair, this review focuses on dissecting the different types of axonal endings present following injury by examining them in the context of the temporal, degenerative and regenerative changes that occur following injury. The stages of axonal dieback (also known as axonal retraction) and the steps necessary for successful axonal regeneration are outlined. The types of axonal endings that can arise as an axon successfully or unsuccessfully mounts a regenerative response are examined, with an emphasis on retraction bulbs, growth cones, and collapsed growth cones. Retraction bulbs are subdivided into those that arise from a failure to form a growth cone (endbulbs) and those that stall in response to inhibitory gradients (dystrophic axonal endings). The current understanding of the mechanisms that lead to the development of different types of axonal endings, how different experimental therapeutic interventions may act on different types of axonal endings, the current gaps in understanding the sites of action of some pro-regenerative therapies, and some of the methodological challenges to studying different types of axonal endings are discussed.
Copyright © 2016. Published by Elsevier B.V.

Entities:  

Keywords:  Acute axonal degeneration; Axon regeneration; Dieback; Dystrophic axonal ending; Endbulb; Retraction; Retraction bulb; Spinal cord injury

Mesh:

Year:  2016        PMID: 27825985     DOI: 10.1016/j.neulet.2016.11.002

Source DB:  PubMed          Journal:  Neurosci Lett        ISSN: 0304-3940            Impact factor:   3.046


  16 in total

1.  IP3R-mediated intra-axonal Ca2+ release contributes to secondary axonal degeneration following contusive spinal cord injury.

Authors:  Ben C Orem; Arezoo Rajaee; David P Stirling
Journal:  Neurobiol Dis       Date:  2020-10-01       Impact factor: 5.996

2.  Repeat intravital imaging of the murine spinal cord reveals degenerative and reparative responses of spinal axons in real-time following a contusive SCI.

Authors:  Arezoo Rajaee; Mariah E Geisen; Alexandra K Sellers; David P Stirling
Journal:  Exp Neurol       Date:  2020-02-24       Impact factor: 5.330

3.  Surgical Considerations to Improve Recovery in Acute Spinal Cord Injury.

Authors:  Troy Q Tabarestani; Nicholle E Lewis; Margot Kelly-Hedrick; Nina Zhang; Brianna R Cellini; Eric J Marrotte; Theresa Williamson; Haichen Wang; Daniel T Laskowitz; Timothy D Faw; Muhammad M Abd-El-Barr
Journal:  Neurospine       Date:  2022-09-30

4.  IL-10 lentivirus-laden hydrogel tubes increase spinal progenitor survival and neuronal differentiation after spinal cord injury.

Authors:  Andrew J Ciciriello; Dominique R Smith; Mary K Munsell; Sydney J Boyd; Lonnie D Shea; Courtney M Dumont
Journal:  Biotechnol Bioeng       Date:  2021-04-23       Impact factor: 4.395

Review 5.  Biomaterials for Local, Controlled Drug Delivery to the Injured Spinal Cord.

Authors:  Alexis M Ziemba; Ryan J Gilbert
Journal:  Front Pharmacol       Date:  2017-05-10       Impact factor: 5.810

6.  Macrophage centripetal migration drives spontaneous healing process after spinal cord injury.

Authors:  Kazu Kobayakawa; Yasuyuki Ohkawa; Shingo Yoshizaki; Tetsuya Tamaru; Takeyuki Saito; Ken Kijima; Kazuya Yokota; Masamitsu Hara; Kensuke Kubota; Yoshihiro Matsumoto; Katsumi Harimaya; Keiko Ozato; Takahiro Masuda; Makoto Tsuda; Tomohiko Tamura; Kazuhide Inoue; V Reggie Edgerton; Yukihide Iwamoto; Yasuharu Nakashima; Seiji Okada
Journal:  Sci Adv       Date:  2019-05-15       Impact factor: 14.136

7.  Dynamic balance between vesicle transport and microtubule growth enables neurite outgrowth.

Authors:  Arjun Singh Yadaw; Mustafa M Siddiq; Vera Rabinovich; Rosa Tolentino; Jens Hansen; Ravi Iyengar
Journal:  PLoS Comput Biol       Date:  2019-05-01       Impact factor: 4.475

8.  Olig2-Induced Semaphorin Expression Drives Corticospinal Axon Retraction After Spinal Cord Injury.

Authors:  Masaki Ueno; Yuka Nakamura; Hiroshi Nakagawa; Jesse K Niehaus; Mari Maezawa; Zirong Gu; Atsushi Kumanogoh; Hirohide Takebayashi; Qing Richard Lu; Masahiko Takada; Yutaka Yoshida
Journal:  Cereb Cortex       Date:  2020-10-01       Impact factor: 5.357

9.  Axotomy Induces Drp1-Dependent Fragmentation of Axonal Mitochondria.

Authors:  Joseph Kedra; Shen Lin; Almudena Pacheco; Gianluca Gallo; George M Smith
Journal:  Front Mol Neurosci       Date:  2021-06-03       Impact factor: 5.639

Review 10.  Axonal regeneration in zebrafish spinal cord.

Authors:  Sukla Ghosh; Subhra Prakash Hui
Journal:  Regeneration (Oxf)       Date:  2018-04-22
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