Literature DB >> 33553683

More attention on glial cells to have better recovery after spinal cord injury.

Sajad Hassanzadeh1,2, Maryam Jalessi1, Seyed Behnamedin Jameie2,3, Mehdi Khanmohammadi1, Zohre Bagher4, Zeinab Namjoo5, Seyed Mohammad Davachi6.   

Abstract

Functional improvement after spinal cord injury remains an unsolved difficulty. Glial scars, a major component of SCI lesions, are very effective in improving the rate of this recovery. Such scars are a result of complex interaction mechanisms involving three major cells, namely, astrocytes, oligodendrocytes, and microglia. In recent years, scientists have identified two subtypes of reactive astrocytes, namely, A1 astrocytes that induce the rapid death of neurons and oligodendrocytes, and A2 astrocytes that promote neuronal survival. Moreover, recent studies have suggested that the macrophage polarization state is more of a continuum between M1 and M2 macrophages. M1 macrophages that encourage the inflammation process kill their surrounding cells and inhibit cellular proliferation. In contrast, M2 macrophages promote cell proliferation, tissue growth, and regeneration. Furthermore, the ability of oligodendrocyte precursor cells to differentiate into adult oligodendrocytes or even neurons has been reviewed. Here, we first scrutinize recent findings on glial cell subtypes and their beneficial or detrimental effects after spinal cord injury. Second, we discuss how we may be able to help the functional recovery process after injury.
© 2021 The Authors.

Entities:  

Keywords:  A1 astrocyte; A2 astrocyte; CNS, Central Nervous System; M1 and M2 macrophages; OPCs; OPCs, Oligodendrocytes Progenitor Cells; SCI, Spinal Cord Injury; Spinal cord injury

Year:  2021        PMID: 33553683      PMCID: PMC7844125          DOI: 10.1016/j.bbrep.2020.100905

Source DB:  PubMed          Journal:  Biochem Biophys Rep        ISSN: 2405-5808


  134 in total

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2.  Identification of two distinct macrophage subsets with divergent effects causing either neurotoxicity or regeneration in the injured mouse spinal cord.

Authors:  Kristina A Kigerl; John C Gensel; Daniel P Ankeny; Jessica K Alexander; Dustin J Donnelly; Phillip G Popovich
Journal:  J Neurosci       Date:  2009-10-28       Impact factor: 6.167

3.  The role of CXCR4 signaling in the migration of transplanted oligodendrocyte progenitors into the cerebral white matter.

Authors:  Ghazal Banisadr; Terra J Frederick; Caroline Freitag; Dongjun Ren; Hosung Jung; Stephen D Miller; Richard J Miller
Journal:  Neurobiol Dis       Date:  2011-06-06       Impact factor: 5.996

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Authors:  Veerakumar Balasubramaniyan; Nienke Timmer; Britta Kust; Erik Boddeke; Sjef Copray
Journal:  Stem Cells       Date:  2004       Impact factor: 6.277

5.  Temporal changes in the level of neurotrophins in the spinal cord and associated precentral gyrus following spinal hemisection in adult Rhesus monkeys.

Authors:  Hong-Tian Zhang; Zhi-Yu Gao; Yi-Zhao Chen; Ting-Hua Wang
Journal:  J Chem Neuroanat       Date:  2008-07-22       Impact factor: 3.052

6.  Adult glial precursor proliferation in mutant SOD1G93A mice.

Authors:  Tim Magnus; Jessica Carmen; Jessica Deleon; Haipeng Xue; Andrea C Pardo; Angelo C Lepore; Mark P Mattson; Mahendra S Rao; Nicholas J Maragakis
Journal:  Glia       Date:  2008-01-15       Impact factor: 7.452

7.  Distribution and synthesis of extracellular matrix proteoglycans, hyaluronan, link proteins and tenascin-R in the rat spinal cord.

Authors:  Clare M Galtrey; Jessica C F Kwok; Daniela Carulli; Kate E Rhodes; James W Fawcett
Journal:  Eur J Neurosci       Date:  2008-03       Impact factor: 3.386

8.  Chronically increased ciliary neurotrophic factor and fibroblast growth factor-2 expression after spinal contusion in rats.

Authors:  Richa B Tripathi; Dana M McTigue
Journal:  J Comp Neurol       Date:  2008-09-10       Impact factor: 3.215

Review 9.  The Role of Microglia and Macrophages in CNS Homeostasis, Autoimmunity, and Cancer.

Authors:  Jie Yin; Katherine L Valin; Michael L Dixon; Jianmei W Leavenworth
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10.  Oligodendrocyte precursor cell transplantation promotes functional recovery following contusive spinal cord injury in rats and is associated with altered microRNA expression.

Authors:  Jin Yang; Liu-Lin Xiong; You-Cui Wang; Xiang He; Ling Jiang; Song-Jun Fu; Xue-Fei Han; Jia Liu; Ting-Hua Wang
Journal:  Mol Med Rep       Date:  2017-11-03       Impact factor: 2.952

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Review 2.  Spinal Cord Injury and Loss of Cortical Inhibition.

Authors:  Bruno Benedetti; Annika Weidenhammer; Maximilian Reisinger; Sebastien Couillard-Despres
Journal:  Int J Mol Sci       Date:  2022-05-17       Impact factor: 6.208

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Review 4.  Neuroinflammation and Scarring After Spinal Cord Injury: Therapeutic Roles of MSCs on Inflammation and Glial Scar.

Authors:  Qi-Ming Pang; Si-Yu Chen; Qi-Jing Xu; Sheng-Ping Fu; Yi-Chun Yang; Wang-Hui Zou; Meng Zhang; Juan Liu; Wei-Hong Wan; Jia-Chen Peng; Tao Zhang
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5.  Neurogenesis in the rat neonate's hippocampus with maternal short-term REM sleep deprivation restores by royal jelly treatment.

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Journal:  Brain Behav       Date:  2021-11-22       Impact factor: 2.708

Review 6.  Multifaceted Roles of cAMP Signaling in the Repair Process of Spinal Cord Injury and Related Combination Treatments.

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7.  Astrocytes and Microglia Exhibit Cell-Specific Ca2+ Signaling Dynamics in the Murine Spinal Cord.

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Journal:  Front Mol Neurosci       Date:  2022-03-30       Impact factor: 5.639

Review 8.  Biomaterial-Mediated Factor Delivery for Spinal Cord Injury Treatment.

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Journal:  Biomedicines       Date:  2022-07-12

Review 9.  Graphene-Based Materials Prove to Be a Promising Candidate for Nerve Regeneration Following Peripheral Nerve Injury.

Authors:  Mina Aleemardani; Pariya Zare; Amelia Seifalian; Zohreh Bagher; Alexander M Seifalian
Journal:  Biomedicines       Date:  2021-12-30

Review 10.  Regulatory Role of Mesenchymal Stem Cells on Secondary Inflammation in Spinal Cord Injury.

Authors:  Qi-Ming Pang; Si-Yu Chen; Sheng-Ping Fu; Hui Zhou; Qian Zhang; Jun Ao; Xiao-Ping Luo; Tao Zhang
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  10 in total

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