Literature DB >> 20599835

Predifferentiated embryonic stem cells promote functional recovery after spinal cord compressive injury.

Suelen Adriani Marques1, Fernanda Martins Almeida, Aline Marie Fernandes, Cleide dos Santos Souza, Daniel Veloso Cadilhe, Stevens Kastrup Rehen, Ana Maria Blanco Martinez.   

Abstract

We tested the effects of mouse embryonic stem cells (mES) grafts in mice spinal cord injury (SCI). Young adult female C57/Bl6 mice were subjected to laminectomy at T9 and 1-minute compression of the spinal cord with a vascular clip. Four groups were analyzed: laminectomy (Sham), injured (SCI), vehicle (DMEM), and mES-treated (EST). mES pre-differentiated with retinoic acid were injected (8 x 10(5) cells/2 microl) into the lesion epicenter, 10 min after SCI. Basso mouse scale (BMS) and Global mobility test (GMT) were assessed weekly up to 8 weeks, when morphological analyses were performed. GMT analysis showed that EST animals moved faster (10.73+/-0.9076, +/-SEM) than SCI (5.581+/-0.2905) and DMEM (5.705+/-0.2848), but slower than Sham animals (15.80+/-0.3887, p<0.001). By BMS, EST animals reached the final phase of locomotor recovery (3.872+/-0.7112, p<0.01), while animals of the SCI and DMEM groups improved to an intermediate phase (2.037+/-0.3994 and 2.111+/-0.3889, respectively). White matter area and number of myelinated nerve fibers were greater in EST (46.80+/-1.24 and 279.4+/-16.33, respectively) than the SCI group (39.97+/-0.925 and 81.39+/-8.078, p<0.05, respectively). EST group also presented better G-ratio values when compared with SCI group (p<0.001). Immunohistochemical revealed the differentiation of transplanted cells into astrocytes, oligodendrocytes, and Schwann cells, indicating an integration of transplanted cells with host tissue. Ultrastructural analysis showed, in the EST group, better tissue preservation and more remyelination by oligodendrocytes and Schwann cells than the other groups. Our results indicate that acute transplantation of predifferentiated mES into the injured spinal cord increased the spared white matter and number of nerve fibers, improving locomotor function. Copyright 2010 Elsevier B.V. All rights reserved.

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Year:  2010        PMID: 20599835     DOI: 10.1016/j.brainres.2010.06.028

Source DB:  PubMed          Journal:  Brain Res        ISSN: 0006-8993            Impact factor:   3.252


  14 in total

1.  Transplantation of M2-Deviated Microglia Promotes Recovery of Motor Function after Spinal Cord Injury in Mice.

Authors:  Shuhei Kobashi; Tomoya Terashima; Miwako Katagi; Yuki Nakae; Junko Okano; Yoshihisa Suzuki; Makoto Urushitani; Hideto Kojima
Journal:  Mol Ther       Date:  2019-09-10       Impact factor: 11.454

2.  Transplantation of neural stem cells clonally derived from embryonic stem cells promotes recovery after murine spinal cord injury.

Authors:  Ryan P Salewski; Robert A Mitchell; Carl Shen; Michael G Fehlings
Journal:  Stem Cells Dev       Date:  2015-01-01       Impact factor: 3.272

3.  Safety of epicenter versus intact parenchyma as a transplantation site for human neural stem cells for spinal cord injury therapy.

Authors:  Katja M Piltti; Desirée L Salazar; Nobuko Uchida; Brian J Cummings; Aileen J Anderson
Journal:  Stem Cells Transl Med       Date:  2013-02-14       Impact factor: 6.940

Review 4.  Molecular approaches for spinal cord injury treatment.

Authors:  Fernanda Martins de Almeida; Suelen Adriani Marques; Anne Caroline Rodrigues Dos Santos; Caio Andrade Prins; Fellipe Soares Dos Santos Cardoso; Luiza Dos Santos Heringer; Henrique Rocha Mendonça; Ana Maria Blanco Martinez
Journal:  Neural Regen Res       Date:  2023-01       Impact factor: 6.058

Review 5.  Neurotrauma and mesenchymal stem cells treatment: From experimental studies to clinical trials.

Authors:  Ana Maria Blanco Martinez; Camila de Oliveira Goulart; Bruna Dos Santos Ramalho; Júlia Teixeira Oliveira; Fernanda Martins Almeida
Journal:  World J Stem Cells       Date:  2014-04-26       Impact factor: 5.326

6.  Astrocytic YAP Promotes the Formation of Glia Scars and Neural Regeneration after Spinal Cord Injury.

Authors:  Changnan Xie; Xiya Shen; Xingxing Xu; Huitao Liu; Fayi Li; Sheng Lu; Ziran Gao; Jingjing Zhang; Qian Wu; Danlu Yang; Xiaomei Bao; Fan Zhang; Shiyang Wu; Zhaoting Lv; Minyu Zhu; Dingjun Xu; Peng Wang; Liying Cao; Wei Wang; Zengqiang Yuan; Ying Wang; Zhaoyun Li; Honglin Teng; Zhihui Huang
Journal:  J Neurosci       Date:  2020-02-17       Impact factor: 6.167

7.  Peptide-modified, hyaluronic acid-based hydrogels as a 3D culture platform for neural stem/progenitor cell engineering.

Authors:  Stephanie K Seidlits; Jesse Liang; Rebecca D Bierman; Alireza Sohrabi; Joshua Karam; Sandra M Holley; Carlos Cepeda; Christopher M Walthers
Journal:  J Biomed Mater Res A       Date:  2019-01-21       Impact factor: 4.396

Review 8.  Neural tissue engineering using embryonic and induced pluripotent stem cells.

Authors:  Stephanie M Willerth
Journal:  Stem Cell Res Ther       Date:  2011-04-15       Impact factor: 6.832

9.  Synergistic effects of Buyang Huanwu decoction and embryonic neural stem cell transplantation on the recovery of neurological function in a rat model of spinal cord injury.

Authors:  Min Zhang; Yong Chai; Tongshen Liu; Ning Xu; Cheng Yang
Journal:  Exp Ther Med       Date:  2015-02-02       Impact factor: 2.447

Review 10.  Cell therapy and delivery strategies for spinal cord injury.

Authors:  Bruna Dos S Ramalho; Fernanda M de Almeida; Ana M B Martinez
Journal:  Histol Histopathol       Date:  2021-06-10       Impact factor: 2.303

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