Title of article
Characterization of anterior cruciate ligament cells and bone marrow stromal cells on various biodegradable polymeric films
Author/Authors
Ouyang، نويسنده , , H.W. and Goh، نويسنده , , J.C.H. and Mo، نويسنده , , X.M and Teoh، نويسنده , , S.H. Tony Lee، نويسنده , , E.H.، نويسنده ,
Issue Information
روزنامه با شماره پیاپی سال 2002
Pages
7
From page
63
To page
69
Abstract
In this study, the adhesion, proliferation and morphology of rabbit anterior cruciate ligament (ACL) cells and bone marrow stromal cells (bMSCs) on synthetic biodegradable polymeric films were investigated. Tissue culture polystyrene (TCP) was used as control. Seven biodegradable polymers were used; they are as follows: poly(ε-caprolactone) (PCL), poly(dl-lactide) (d-PLA), poly(l-lactide) (l-PLA), PLA/PCL (50:50), PLA/PCL (75:25), high molecular weight (HMW) poly(dl-lactide–co-glycolide (PLGA50:50) and HMW PLGA75:25. Polymeric film substrates were manufactured using solvent spin-casting technique. After 8 h of cell culture, a high percentage of ACL cells was found attached to PLGA50:50 (38.6±8.4%) and TCP (39.3±6.1%) as compared to the other six polymeric films (p≤0.001). As for bMSCs, 76.4±10%, 76.3±16% and 76.1±19% of seeded bMSCs were adhered to TCP, PLGA50:50 and PLGA75:25, respectively. These were significantly more than those of the other five polymeric films (p<0.001). At Day 5, bMSCs were found to proliferate faster on TCP (by 7±0.8-fold of initial cell seeding number), d-PLA (by 5.6±1.6-fold), PLGA50:50 (by 9.3±1.3-fold) and PLGA75:25 (by 5.8±1.3-fold) than on PCL, PLLA and PCL/PLA (50:50, 25:75) (p<0.001). ACL cells had a greater fold expansion on TCP (by 3.5±0.2-fold), PLGA50:50 (by 3.1±0.4-fold) and PLGA75:25 (by 3.9±0.4-fold) than on the other five polymer substrates (p<0.001). From these results, HMW PLGA (50:50, 75:25) was shown more likely to allow bMSCs and ACL cells to attach and proliferate, and bMSCs attached and proliferated faster than ACL cells.
Keywords
cell adhesion , Cell morphology , BMSCs , Cell Proliferation , ACL , Biodegradable polymers
Journal title
Materials Science and Engineering C
Serial Year
2002
Journal title
Materials Science and Engineering C
Record number
2097817
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