Literature DB >> 14697855

Tissue engineering of the meniscus.

P Buma1, N N Ramrattan, T G van Tienen, R P H Veth.   

Abstract

Meniscus lesions are among the most frequent injuries in orthopaedic practice and they will inevitably lead to degeneration of the knee articular cartilage. The fibro-cartilage-like tissue of the meniscus is notorious for its limited regenerative capacity. Tissue engineering could offer new treatment modalities for repair of meniscus tears and eventually will enable the replacement of a whole meniscus by a tissue-engineered construct. Many questions remain to be answered before the final goal, a tissue-engineered meniscus is available for clinical implementation. These questions are related to the selection of an optimal cell type, the source of the cells, the need to use growth factor(s) and the type of scaffold that can be used for stimulation of differentiation of cells into tissues with optimal phenotypes. Particularly in a loaded, highly complex environment of the knee, optimal mechanical properties of such a scaffold seem to be of utmost importance. With respect to cells, autologous meniscus cells seems the optimal cell source for tissue engineering of meniscus tissue, but their availability is limited. Therefore research should be stimulated to investigate the suitability of other cell sources for the creation of meniscus tissue. Bone marrow stroma cells could be useful since it is well known that they can differentiate into bone and cartilage cells. With respect to growth factors, TGF-beta could be a suitable growth factor to stimulate cells into a fibroblastic phenotype but the problems of TGF-beta introduced into a joint environment should then be solved. Polyurethane scaffolds with optimal mechanical properties and with optimal interconnective macro-porosity have been shown to facilitate ingrowth and differentiation of tissue into fibro-cartilage. However, even these materials cannot prevent cartilage degeneration in animal models. Surface modification and/or seeding of cells into the scaffolds before implantation may offer a solution for this problem in the future.This review focuses on a number of specific questions; what is the status of the development of procedures for lesion healing and how far are we from replacing the entire meniscus by a (tissue-engineered) prosthesis. Subquestions related to the type of scaffold used are: is the degree of tissue ingrowth and differentiation related to the initial mechanical properties and if so, what is the influence of those properties on the subsequent remodelling of the tissue into fibro-cartilage; what is the ideal pore geometry and what is the optimal degradation period to allow biological remodelling of the tissue in the scaffold. Finally, we will finish with our latest results of the effect of tear reconstruction and the insertion of prostheses on articular cartilage degradation.

Entities:  

Mesh:

Year:  2004        PMID: 14697855     DOI: 10.1016/s0142-9612(03)00499-x

Source DB:  PubMed          Journal:  Biomaterials        ISSN: 0142-9612            Impact factor:   12.479


  65 in total

1.  Multilayered silk scaffolds for meniscus tissue engineering.

Authors:  Biman B Mandal; Sang-Hyug Park; Eun S Gil; David L Kaplan
Journal:  Biomaterials       Date:  2010-10-06       Impact factor: 12.479

Review 2.  [Biomaterials in orthopedics].

Authors:  S Vogt; T Tischer; F Blanke
Journal:  Orthopade       Date:  2015-08       Impact factor: 1.087

3.  Comparative spatial and temporal localisation of perlecan, aggrecan and type I, II and IV collagen in the ovine meniscus: an ageing study.

Authors:  James Melrose; Susan Smith; Martin Cake; Richard Read; John Whitelock
Journal:  Histochem Cell Biol       Date:  2005-10-28       Impact factor: 4.304

4.  The effect of nanofiber alignment on the maturation of engineered meniscus constructs.

Authors:  Brendon M Baker; Robert L Mauck
Journal:  Biomaterials       Date:  2007-01-23       Impact factor: 12.479

5.  Stem cell delivery in tissue-specific hydrogel enabled meniscal repair in an orthotopic rat model.

Authors:  Xiaoning Yuan; Yiyong Wei; Aránzazu Villasante; Johnathan J D Ng; Derya E Arkonac; Pen-Hsiu Grace Chao; Gordana Vunjak-Novakovic
Journal:  Biomaterials       Date:  2017-04-04       Impact factor: 12.479

Review 6.  Engineering orthopedic tissue interfaces.

Authors:  Peter J Yang; Johnna S Temenoff
Journal:  Tissue Eng Part B Rev       Date:  2009-06       Impact factor: 6.389

7.  In vitro healing of avascular meniscal injuries with fresh and frozen plugs treated with TGF-beta1 and IGF-1 in sheep.

Authors:  Iñigo Izal; Purificación Ripalda; Carlos A Acosta; Francisco Forriol
Journal:  Int J Clin Exp Pathol       Date:  2008-01-01

8.  The use of blood vessel-derived stem cells for meniscal regeneration and repair.

Authors:  Aki Osawa; Christopher D Harner; Burhan Gharaibeh; Tomoyuki Matsumoto; Yutaka Mifune; Sebastian Kopf; Sheila J M Ingham; Verena Schreiber; Arvydas Usas; Johnny Huard
Journal:  Med Sci Sports Exerc       Date:  2013-05       Impact factor: 5.411

9.  Digital micromirror device projection printing system for meniscus tissue engineering.

Authors:  Shawn P Grogan; Peter H Chung; Pranav Soman; Peter Chen; Martin K Lotz; Shaochen Chen; Darryl D D'Lima
Journal:  Acta Biomater       Date:  2013-03-21       Impact factor: 8.947

10.  Characterization of esterified hyaluronan-gelatin polymer composites suitable for chondrogenic differentiation of mesenchymal stem cells.

Authors:  Peter Angele; Rainer Müller; Detlef Schumann; Carsten Englert; Johannes Zellner; Brian Johnstone; Jung Yoo; Joachim Hammer; Johann Fierlbeck; Martin K Angele; Michael Nerlich; Richard Kujat
Journal:  J Biomed Mater Res A       Date:  2009-11       Impact factor: 4.396

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