Literature DB >> 3356727

Durability of regenerated articular cartilage produced by free autogenous periosteal grafts in major full-thickness defects in joint surfaces under the influence of continuous passive motion. A follow-up report at one year.

S W O'Driscoll1, F W Keeley, R B Salter.   

Abstract

An autogenous graft of tibial periosteum was sutured (with its cambium layer facing into the joint) to the base of a five by ten-millimeter full-thickness defect in the patellar groove of each of forty-five adolescent rabbits. The rabbits were randomly treated postoperatively by either four weeks of immobilization in a cast, intermittent active motion in a cage, or two weeks of continuous passive motion. One year postoperatively, the regenerated tissue from each rabbit was analyzed macroscopically, histologically, histochemically, and biochemically. Gross degenerative changes were seen in 57 per cent of the rabbits that had been immobilized in a cast, in 73 per cent of the rabbits that had been allowed intermittent active motion, and in 22 per cent of the rabbits that had been subjected to continuous passive motion (p less than 0.05). Out of a possible score of 7.0 points for the nature of the regenerated tissue, the scores for the three groups were: immobilization in a cast, 4.1 points; intermittent active motion, 4.0 points; and continuous passive motion, 5.9 points (p greater than 0.05). Out of a possible perfect combined score of 10.0 points for the structural characteristics of the regenerated tissue, the cast-immobilization group scored 3.8 points; the intermittent active-motion group, 2.5 points; and the continuous passive-motion group, 6.4 points (p less than 0.001). The total scores for freedom from cellular changes of degeneration, a perfect score being 5.0 points, were: immobilization in a cast, 2.4 points; intermittent active motion, 2.3 points; and continuous passive motion, 3.9 points (p less than 0.01). Degenerative changes in the adjacent cartilage, which were noted in 42 and 46 per cent of the knees in the immobilization and intermittent active-motion groups, respectively, were not found in the knees that had been subjected to continuous passive motion (p less than 0.05). The total indices, which were derived by combining the scores for all categories (maximum, 24.0 points), revealed that the index for the continuous passive-motion group was significantly better than the index for either of the other two groups: immobilization in a cast, 12.9 points; intermittent active motion, 11.2 points; and continuous passive motion, 19.2 points (p less than 0.0005).(ABSTRACT TRUNCATED AT 400 WORDS)

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Year:  1988        PMID: 3356727

Source DB:  PubMed          Journal:  J Bone Joint Surg Am        ISSN: 0021-9355            Impact factor:   5.284


  93 in total

1.  Increased chondrocyte seeding density has no positive effect on cartilage repair in an MPEG-PLGA scaffold.

Authors:  Ole Møller Hansen; Casper Bindzus Foldager; Bjørn Borsøe Christensen; Hanne Everland; Martin Lind
Journal:  Knee Surg Sports Traumatol Arthrosc       Date:  2012-04-10       Impact factor: 4.342

2.  A comparison of the functionality and in vivo phenotypic stability of cartilaginous tissues engineered from different stem cell sources.

Authors:  Tatiana Vinardell; Eamon J Sheehy; Conor T Buckley; Daniel J Kelly
Journal:  Tissue Eng Part A       Date:  2012-04-27       Impact factor: 3.845

3.  An analysis of surface profile for cylindrical osteochondral grafts of the knee quantitative evaluation using a three-dimensional laser scanner.

Authors:  Daisuke Araki; Ryosuke Kuroda; Tomoyuki Matsumoto; Kouki Nagamune; Takehiko Matsushita; Seiji Kubo; Yasunari Oniki; Masahiro Kurosaka
Journal:  Knee Surg Sports Traumatol Arthrosc       Date:  2012-06-28       Impact factor: 4.342

4.  Tissue engineering of cartilage using poly-epsilon-caprolactone nanofiber scaffolds seeded in vivo with periosteal cells.

Authors:  M E Casper; J S Fitzsimmons; J J Stone; A O Meza; Y Huang; T J Ruesink; S W O'Driscoll; G G Reinholz
Journal:  Osteoarthritis Cartilage       Date:  2010-04-29       Impact factor: 6.576

5.  The use of autologous chondrocyte implantation following and combined with anterior cruciate ligament reconstruction.

Authors:  A A Amin; W Bartlett; C R Gooding; M Sood; J A Skinner; R W J Carrington; T W R Briggs; G Bentley
Journal:  Int Orthop       Date:  2005-12-01       Impact factor: 3.075

6.  Repair of osteochondral defects with biodegradable hydrogel composites encapsulating marrow mesenchymal stem cells in a rabbit model.

Authors:  Xuan Guo; Hansoo Park; Simon Young; James D Kretlow; Jeroen J van den Beucken; L Scott Baggett; Yasuhiko Tabata; F Kurtis Kasper; Antonios G Mikos; John A Jansen
Journal:  Acta Biomater       Date:  2009-08-04       Impact factor: 8.947

7.  The Effect of Growth Hormone on Chondral Defect Repair.

Authors:  Natalie R Danna; Bryan G Beutel; Austin J Ramme; Thorsten Kirsch; Oran D Kennedy; Eric Strauss
Journal:  Cartilage       Date:  2016-12-12       Impact factor: 4.634

Review 8.  Meniscal and chondral loss in the anterior cruciate ligament injured knee.

Authors:  Hugh P Jones; Richard C Appleyard; Sanjeev Mahajan; George A C Murrell
Journal:  Sports Med       Date:  2003       Impact factor: 11.136

9.  Periosteal transplantation to the rabbit patella.

Authors:  Lisbeth Brax Olofsson; Olle Svensson; Ronny Lorentzon; Inger Lindström; Håkan Alfredson
Journal:  Knee Surg Sports Traumatol Arthrosc       Date:  2006-10-28       Impact factor: 4.342

10.  Microstructural remodeling of articular cartilage following defect repair by osteochondral autograft transfer.

Authors:  C B Raub; S C Hsu; E F Chan; R Shirazi; A C Chen; E Chnari; E J Semler; R L Sah
Journal:  Osteoarthritis Cartilage       Date:  2013-03-22       Impact factor: 6.576

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