Literature DB >> 23998989

Transplantation of neural stem/progenitor cells at different locations in mice with spinal cord injury.

Hiroki Iwai1, Satoshi Nori, Soraya Nishimura, Akimasa Yasuda, Morito Takano, Osahiko Tsuji, Kanehiro Fujiyoshi, Yoshiaki Toyama, Hideyuki Okano, Masaya Nakamura.   

Abstract

Transplantation of neural stem/progenitor cells (NS/PCs) promotes functional recovery after spinal cord injury (SCI); however, few studies have examined the optimal site of NS/PC transplantation in the spinal cord. The purpose of this study was to determine the optimal transplantation site of NS/PCs for the treatment of SCI. Wild-type mice were generated with contusive SCI at the T10 level, and NS/PCs were derived from fetal transgenic mice. These NS/PCs ubiquitously expressed ffLuc-cp156 protein (Venus and luciferase fusion protein) and so could be detected by in vivo bioluminescence imaging 9 days postinjury. NS/PCs (low: 250,000 cells per mouse; high: 1 million cells per mouse) were grafted into the spinal cord at the lesion epicenter (E) or at rostral and caudal (RC) sites. Phosphate-buffered saline was injected into E as a control. Motor functional recovery was better in each of the transplantation groups (E-Low, E-High, RC-Low, and RC-High) than in the control group. The photon counts of the grafted NS/PCs were similar in each of the four transplantation groups, suggesting that the survival of NS/PCs was fairly uniform when more than a certain threshold number of cells were transplanted. Quantitative RT-PCR analyses demonstrated that brain-derived neurotropic factor expression was higher in the RC segment than in the E segment, and this may underlie why NS/PCs more readily differentiated into neurons than into astrocytes in the RC group. The location of the transplantation site did not affect the area of spared fibers, angiogenesis, or the expression of any other mediators. These findings indicated that the microenvironments of the E and RC sites are able to support NS/PCs transplanted during the subacute phase of SCI similarly. Optimally, a certain threshold number of NS/PCs should be grafted into the E segment to avoid damaging sites adjacent to the lesion during the injection procedure.

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Year:  2013        PMID: 23998989     DOI: 10.3727/096368913X670967

Source DB:  PubMed          Journal:  Cell Transplant        ISSN: 0963-6897            Impact factor:   4.064


  16 in total

1.  Allogeneic Neural Stem/Progenitor Cells Derived From Embryonic Stem Cells Promote Functional Recovery After Transplantation Into Injured Spinal Cord of Nonhuman Primates.

Authors:  Hiroki Iwai; Hiroko Shimada; Soraya Nishimura; Yoshiomi Kobayashi; Go Itakura; Keiko Hori; Keigo Hikishima; Hayao Ebise; Naoko Negishi; Shinsuke Shibata; Sonoko Habu; Yoshiaki Toyama; Masaya Nakamura; Hideyuki Okano
Journal:  Stem Cells Transl Med       Date:  2015-05-27       Impact factor: 6.940

2.  Combined Method of Neuronal Cell-Inducible Vector and Valproic Acid for Enhanced Gene Expression under Hypoxic Conditions.

Authors:  Yeomin Yun; Daye Baek; Dongsu Lee; Eunji Cheong; Janghwan Kim; Jinsoo Oh; Yoon Ha
Journal:  Tissue Eng Regen Med       Date:  2019-12-09       Impact factor: 4.169

3.  A Gene and Neural Stem Cell Therapy Platform Based on Neuronal Cell Type-Inducible Gene Overexpression.

Authors:  Jinsoo Oh; Youngsang You; Yeomin Yun; Hye-Lan Lee; Do Heum Yoon; Minhyung Lee; Yoon Ha
Journal:  Yonsei Med J       Date:  2015-07       Impact factor: 2.759

4.  Human-induced pluripotent stem cells generated from intervertebral disc cells improve neurologic functions in spinal cord injury.

Authors:  Jinsoo Oh; Kang-In Lee; Hyeong-Taek Kim; Youngsang You; Do Heum Yoon; Ki Yeong Song; Eunji Cheong; Yoon Ha; Dong-Youn Hwang
Journal:  Stem Cell Res Ther       Date:  2015-06-24       Impact factor: 6.832

5.  Functional Recovery from Neural Stem/Progenitor Cell Transplantation Combined with Treadmill Training in Mice with Chronic Spinal Cord Injury.

Authors:  Syoichi Tashiro; Soraya Nishimura; Hiroki Iwai; Keiko Sugai; Liang Zhang; Munehisa Shinozaki; Akio Iwanami; Yoshiaki Toyama; Meigen Liu; Hideyuki Okano; Masaya Nakamura
Journal:  Sci Rep       Date:  2016-08-03       Impact factor: 4.379

6.  Melatonin antagonizes interleukin-18-mediated inhibition on neural stem cell proliferation and differentiation.

Authors:  Zheng Li; Xingye Li; Matthew T V Chan; William Ka Kei Wu; DunXian Tan; Jianxiong Shen
Journal:  J Cell Mol Med       Date:  2017-04-21       Impact factor: 5.310

7.  Increasing Human Neural Stem Cell Transplantation Dose Alters Oligodendroglial and Neuronal Differentiation after Spinal Cord Injury.

Authors:  Katja M Piltti; Gabriella M Funes; Sabrina N Avakian; Ara A Salibian; Kevin I Huang; Krystal Carta; Noriko Kamei; Lisa A Flanagan; Edwin S Monuki; Nobuko Uchida; Brian J Cummings; Aileen J Anderson
Journal:  Stem Cell Reports       Date:  2017-05-04       Impact factor: 7.765

8.  Curcumin Increase the Expression of Neural Stem/Progenitor Cells and Improves Functional Recovery after Spinal Cord Injury.

Authors:  Woo-Seok Bang; Kyoung-Tae Kim; Ye Jin Seo; Dae-Chul Cho; Joo-Kyung Sung; Chi Heon Kim
Journal:  J Korean Neurosurg Soc       Date:  2017-12-29

9.  Neural Growth Factor Stimulates Proliferation of Spinal Cord Derived-Neural Precursor/Stem Cells.

Authors:  Youngmin Han; Kyoung-Tae Kim
Journal:  J Korean Neurosurg Soc       Date:  2016-09-08

10.  Low immunogenicity of mouse induced pluripotent stem cell-derived neural stem/progenitor cells.

Authors:  Go Itakura; Masahiro Ozaki; Narihito Nagoshi; Soya Kawabata; Yuichiro Nishiyama; Keiko Sugai; Tsuyoshi Iida; Rei Kashiwagi; Toshiki Ookubo; Kaori Yastake; Kohei Matsubayashi; Jun Kohyama; Akio Iwanami; Morio Matsumoto; Masaya Nakamura; Hideyuki Okano
Journal:  Sci Rep       Date:  2017-10-11       Impact factor: 4.379

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