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Showing 1-20 of 2,694 results
  1. X-ray Irradiation Improves Neurological Function Recovery of Injured Spinal Cord by Inhibiting Inflammation and Glial Scar Formation

    Spinal cord injury (SCI) is a common clinical disease that can cause permanent disruption of nerve function. Inflammation and glial scar formation...

    Yi Wang, Yan** Niu, ... Yongming Sun in Journal of Molecular Neuroscience
    Article 15 February 2022
  2. The role of neural stem cells in regulating glial scar formation and repair

    Glial scars are a common pathological occurrence in a variety of central nervous system (CNS) diseases and injuries. They are caused after severe...

    Alexandra M. Nicaise, Andrea D’Angelo, ... Stefano Pluchino in Cell and Tissue Research
    Article Open access 25 November 2021
  3. New insights into glial scar formation after spinal cord injury

    Severe spinal cord injury causes permanent loss of function and sensation throughout the body. The trauma causes a multifaceted torrent of...

    Amanda Phuong Tran, Philippa Mary Warren, Jerry Silver in Cell and Tissue Research
    Article Open access 02 June 2021
  4. Spatiotemporal Dynamics of the Molecular Expression Pattern and Intercellular Interactions in the Glial Scar Response to Spinal Cord Injury

    Nerve regeneration in adult mammalian spinal cord is poor because of the lack of intrinsic regeneration of neurons and extrinsic factors – the glial...

    Leilei Gong, Yun Gu, ... Songlin Zhou in Neuroscience Bulletin
    Article Open access 05 July 2022
  5. Hematogenous Macrophages Contribute to Fibrotic Scar Formation After Optic Nerve Crush

    Although glial scar formation has been extensively studied after optic nerve injury, the existence and characteristics of traumatic optic nerve...

    Huiyi **, Yuan Liu, ... Richard K. Lee in Molecular Neurobiology
    Article 01 October 2022
  6. Astrocytic Cebpd Regulates Pentraxin 3 Expression to Promote Fibrotic Scar Formation After Spinal Cord Injury

    Astroglial-fibrotic scars resulted from spinal cord injury affect motor and sensory function, leading to paralysis. In particular, the fibrotic scar...

    Shao-Ming Wang, Jung-Yu C Hsu, ... Ju-Ming Wang in Molecular Neurobiology
    Article Open access 12 January 2023
  7. Engineering strategies towards overcoming bleeding and glial scar formation around neural probes

    Neural probes are sophisticated electrophysiological tools used for intra-cortical recording and stimulation. These microelectrode arrays, designed...

    Elisabeth Otte, Andreas Vlachos, Maria Asplund in Cell and Tissue Research
    Article Open access 14 January 2022
  8. Inhibition of CK2 Diminishes Fibrotic Scar Formation and Improves Outcomes After Ischemic Stroke via Reducing BRD4 Phosphorylation

    Fibrotic scars play important roles in tissue reconstruction and functional recovery in the late stage of nervous system injury. However, the...

    Xuemei Li, Qinghuan Yang, ... Qin Yang in Neurochemical Research
    Article Open access 21 February 2024
  9. The Key Regulator of Necroptosis, RIP1 Kinase, Contributes to the Formation of Astrogliosis and Glial Scar in Ischemic Stroke

    Necroptosis initiation relies on the receptor-interacting protein 1 kinase (RIP1K). We recently reported that genetic and pharmacological inhibition...

    Yong-Ming Zhu, Liang Lin, ... Hui-Ling Zhang in Translational Stroke Research
    Article Open access 24 February 2021
  10. Sirt1 Overexpression Inhibits Fibrous Scar Formation and Improves Functional Recovery After Cerebral Ischemic Injury Through the Deacetylation of 14–3-3ζ

    Cerebral ischemic stroke is one of the leading causes of human death. The fibrous scar is one of major factors influencing repair in central nervous...

    Yue Chen, Jiagui Huang, ... Qin Yang in Molecular Neurobiology
    Article 10 May 2023
  11. Salidroside Inhibits Reactive Astrogliosis and Glial Scar Formation in Late Cerebral Ischemia via the Akt/GSK-3β Pathway

    Cerebral ischemia leads to reactive astrogliosis and glial scar formation. Glial scarring can impede functional restoration during the recovery phase...

    Chengya Dong, Shaohong Wen, ... **angrong Liu in Neurochemical Research
    Article 03 January 2021
  12. Porous Three-Dimensional Polyurethane Scaffolds Promote Scar-Free Endogenous Regeneration After Acute Brain Hemorrhage

    Intracerebral hemorrhage (ICH) is the most lethal subtype of stroke and is associated with significant morbidity and mortality. Despite advances in...

    Qiao Zhang, **lin Chen, ... Hong Tan in Translational Stroke Research
    Article 23 November 2023
  13. MiR-155-5p Aggravated Astrocyte Activation and Glial Scarring in a Spinal Cord Injury Model by Inhibiting Ndfip1 Expression and PTEN Nuclear Translocation

    Central nervous injury and regeneration repair have always been a hot and difficult scientific questions in neuroscience, such as spinal cord injury...

    Liming He, Qiang Chang, ... Haoyu Feng in Neurochemical Research
    Article Open access 07 February 2023
  14. The TGFβ/Notch axis facilitates Müller cell-to-epithelial transition to ultimately form a chronic glial scar

    Background

    Contrasting with zebrafish, retinal regeneration from Müller cells (MCs) is largely limited in mammals, where they undergo reactive gliosis...

    Federica Maria Conedera, Ana Maria Quintela Pousa, ... Volker Enzmann in Molecular Neurodegeneration
    Article Open access 30 September 2021
  15. Adult Glial Cell Proliferation and Neurogenesis

    The nomenclature of stem and progenitor cells is reviewed. In the adult body, only glial cells and not neurons can proliferate. The glial cell with...
    Wolfgang Walz in The Gliocentric Brain
    Chapter 2023
  16. Loss-of-function manipulations to identify roles of diverse glia and stromal cells during CNS scar formation

    Scar formation is the replacement of parenchymal cells by stromal cells and fibrotic extracellular matrix. Until as recently as 25 years ago, little...

    Shalaka Wahane, Michael V. Sofroniew in Cell and Tissue Research
    Article Open access 24 June 2021
  17. Botulinum neurotoxin serotype A inhibited ocular angiogenesis through modulating glial activation via SOCS3

    Background

    Pathological angiogenesis causes significant vision loss in neovascular age-related macular degeneration and other retinopathies with...

    Austin T. Gregg, Tianxi Wang, ... Ye Sun in Angiogenesis
    Article Open access 26 June 2024
  18. Glial Cells: Neuroglia

    In the human brain glial cells are as abundant as neurons. The relative number of glial cells has increased with increasing complexity of the central...
    Helmut Kettenmann, Alexei Verkhratsky in Neuroscience in the 21st Century
    Reference work entry 2022
  19. Updated Understanding of the Glial-Vascular Unit in Central Nervous System Disorders

    The concept of the glial-vascular unit (GVU) was raised recently to emphasize the close associations between brain cells and cerebral vessels, and...

    Di Yao, Ruoying Zhang, ... Wei Wang in Neuroscience Bulletin
    Article 14 November 2022
  20. Glial Biology: A Historical Perspective

    In spite of the fact that the glial cells were discovered as “neuroglia” as far back as 1854 they remained to be further designated as astrocytes,...
    Chapter 2022
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