Literature DB >> 21551902

Repair of the transected rat sciatic nerve: matrix formation within implanted silicone tubes.

Q Zhao1, L B Dahlin, M Kanje, G Lundborg.   

Abstract

Matrix formation within silicone tubes of different geometries implanted between the stumps of the transected rat sciatic nerve was studied. A matrix, composed of longitudinally oriented fibrin strands containing fibronectin, was formed within one day. The matrix then increased in size. The matrix contained macrophages and other inflammatory cells. Matrix size could be increased if the diameter of the tube was increased or if holes were made in the implanted tube. In contrast, matrix diameter decreased if the tube length was increased or if circulation was compromised in the inserts. The results suggest that the size, orientation and cellular components of the matrix have profound effects on the regenerative response of the transected nerve.

Entities:  

Year:  1993        PMID: 21551902     DOI: 10.3233/RNN-1993-5304

Source DB:  PubMed          Journal:  Restor Neurol Neurosci        ISSN: 0922-6028            Impact factor:   2.406


  11 in total

1.  Bridging defects in nerve continuity: influence of variations in synthetic fiber composition.

Authors:  L B Dahlin; G Lundborg
Journal:  J Mater Sci Mater Med       Date:  1999-09       Impact factor: 3.896

2.  Effect of surface pore structure of nerve guide conduit on peripheral nerve regeneration.

Authors:  Se Heang Oh; Jin Rae Kim; Gu Birm Kwon; Uk Namgung; Kyu Sang Song; Jin Ho Lee
Journal:  Tissue Eng Part C Methods       Date:  2012-09-13       Impact factor: 3.056

3.  Enhanced femoral nerve regeneration after tubulization with a tyrosine-derived polycarbonate terpolymer: effects of protein adsorption and independence of conduit porosity.

Authors:  Mindy Ezra; Jared Bushman; David Shreiber; Melitta Schachner; Joachim Kohn
Journal:  Tissue Eng Part A       Date:  2013-11-12       Impact factor: 3.845

4.  Salicylic acid-derived poly(anhydride-ester) electrospun fibers designed for regenerating the peripheral nervous system.

Authors:  Jeremy Griffin; Roberto Delgado-Rivera; Sally Meiners; Kathryn E Uhrich
Journal:  J Biomed Mater Res A       Date:  2011-03-25       Impact factor: 4.396

5.  Thin-film enhanced nerve guidance channels for peripheral nerve repair.

Authors:  Isaac P Clements; Young-tae Kim; Arthur W English; Xi Lu; Andy Chung; Ravi V Bellamkonda
Journal:  Biomaterials       Date:  2009-05-15       Impact factor: 12.479

6.  The effect of glycomimetic functionalized collagen on peripheral nerve repair.

Authors:  Shirley N Masand; Jian Chen; Isaac J Perron; Babette C Hammerling; Gabriele Loers; Melitta Schachner; David I Shreiber
Journal:  Biomaterials       Date:  2012-08-20       Impact factor: 12.479

7.  The role of macrophages in bioartificial nerve grafts based on resorbable guiding filament structures.

Authors:  N Terada; L M Bjursten; G Lundborg
Journal:  J Mater Sci Mater Med       Date:  1997-06       Impact factor: 3.896

Review 8.  Designing ideal conduits for peripheral nerve repair.

Authors:  Godard C W de Ruiter; Martijn J A Malessy; Michael J Yaszemski; Anthony J Windebank; Robert J Spinner
Journal:  Neurosurg Focus       Date:  2009-02       Impact factor: 4.047

Review 9.  Types of neural guides and using nanotechnology for peripheral nerve reconstruction.

Authors:  Esmaeil Biazar; M T Khorasani; Naser Montazeri; Khalil Pourshamsian; Morteza Daliri; Mostafa Rezaei; Mahmoud Jabarvand; Ahad Khoshzaban; Saeed Heidari; Mostafa Jafarpour; Ziba Roviemiab
Journal:  Int J Nanomedicine       Date:  2010-10-21

10.  Fibroblasts Colonizing Nerve Conduits Express High Levels of Soluble Neuregulin1, a Factor Promoting Schwann Cell Dedifferentiation.

Authors:  Benedetta E Fornasari; Marwa El Soury; Giulia Nato; Alessia Fucini; Giacomo Carta; Giulia Ronchi; Alessandro Crosio; Isabelle Perroteau; Stefano Geuna; Stefania Raimondo; Giovanna Gambarotta
Journal:  Cells       Date:  2020-06-01       Impact factor: 6.600

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