BMSCs与PHBHHx骨支架材料生物相容性体外实验研究Experimental Study on Biocompatibility of BMSCs and PHBHHx Scaffold Materials in vitro
周诚,李竹,胡瑞洁,刘日光,叶川,贾湘谦,吴昌林,韩子翼
ZHOU Cheng,LI Zhu,HU Ruijie,LIU Riguang,YE Chuan,JIA Xiangqian,WU Changlin,HAN Ziyi
摘要(Abstract):
目的:研究人骨髓间充质干细胞(BMSCs)与3-羟基丁酸酯-3-羟基己酸酯共聚物(PHBHHx)的生物相容性。方法:将PHBHHx(实验组)及明胶海绵(对照组)与第7代BMSCs复合培养7 d,通过光镜和扫描电镜分别观察BMSCs的生长及分布情况。结果:联合培养7 d,在显微镜下均可见两组材料周围有大量细胞生长,而材料内部及表面的细胞生长情况不能观察;电镜下见PHBHHx材料表面及孔隙内均有大量细胞附着,细胞相互连接融合成片,充满材料孔隙与表面,细胞表面可见大量的微绒毛,表示细胞生长状态良好,而明胶海绵上未见明显细胞生长。结论:PHBHHx具有良好的BMSCs相容性,可以作为一种新型的生物材料应用于组织工程。
Objective: To study the biocompatibility of bone marrow mesenchymal stem cells( BMSCs) and 3-hydroxybutyrate-co-3-hydroxyhexanoate copolyesters( PHBHHx). Methods: The PHBHHx( experimental group) and gelatin sponge( control group) were cultured with BMSCs of the seventh generation for 7 days,and the growth and distribution condition of BMSCs were observed by light microscopy and scanning electron microscopy. Results: After cultured for 7 days,under the microscope there were a large number of cells around the two materials,while inside and outside the material the cell growth cannot be observed; under electron microscope,attachment of a large number of cells were visible on the surface and in the pores of PHBHHx material,cells connected and were full of surface and pores,There are a lot of microvilli on cell surface,which showed cells in good condition,but no obvious cell growth were found in gelatin sponge. Conclusion: PHBHHx membrane has good BMSCs compatibility,and it can be used as a new biological materials in tissue engineering.
关键词(KeyWords):
骨髓;间充质干细胞;组织工程;3-羟基丁酸酯-3-羟基己酸酯共聚物;明胶海绵;生物相容性
bone marrow;mesenchymal stem cells;tissue engineering;3-hydroxybutyrate-co-3-hydroxyhexanoate copolyesters;gelatin sponge;biocompatibility
基金项目(Foundation): 贵阳市科技局资助项目2014科技类计划[筑科合同(2014)100125号]
作者(Author):
周诚,李竹,胡瑞洁,刘日光,叶川,贾湘谦,吴昌林,韩子翼
ZHOU Cheng,LI Zhu,HU Ruijie,LIU Riguang,YE Chuan,JIA Xiangqian,WU Changlin,HAN Ziyi
DOI: 10.19367/j.cnki.1000-2707.2017.01.012
参考文献(References):
- [1]Zandonella C.Tissue engineering:the beat goes on[J].Nature,2003(421):884-886.
- [2]Jadlowiec JA,Celil AB,Hollinger JO.Bone Tissue engineering recent advancesand promising therapeutic agents[J].Expert Opin Biol Ther,2003(3):409-423.
- [3]Vacanti CA,Upton J.Tissue engineered morp Hogenesis of cartilage and bone by means of cell transplantation using synt Hetic biodegradable polymer matrices[J].Clin Plast Surg,1994(21):445-462.
- [4]Freed CE,Vunjak-novakovic G,Iron KJ.Biodegradable polymer scaffolds fortissue engineering[J].Biotec Hno Iogy NY,1994(7):689-692.
- [5]Kim BS,Mooney DJ.Development of biocompatible synt Hetic extracellular matrices fortissue engineering[J].Trends Biotec Hnol,1998(5):224-227.
- [6]Nerem RM,Eambanie A.Tissue engineering from biology to biological substitute[J].Tissue Eng,1995(1):3-13.
- [7]Sims CD,Butler PE,Casanova R,et al.Injectable cartilage using polyethylene oxide polymer surbstrates[J].Plast Reconstr Surg,1996(5):843-845.
- [8]Vacanti CA,Langer R,Schloo B,et al.Synthetic polymers seeded with chond-rocytes provide a template for new cartilage formation[J].Plast Reconstr Surg,1991(5):753-756.
- [9]Terada S,Sato M,Sevy A,et al.Tissue engineering in the twenty-first century[J].Currently Med J,2000(6):685-691.
- [10]Rivaid CH,Chaput C,Rhalmi S,et al.Bio-absorbable synthetic polyesters and tissue Regeneration:A study of three dimensional proliferation of ovine chond-rocytes and osteoblastes[J].Ann Chir,1998(8):651-653.
- [11]Speechia N,Pagnotta A,Greco E.Can porosity influence the ostroconductive properties ofsynthetic hydroxyapatite[J].Bioceramics,2000(3):355-358.
- [12]Bacsich P,Whbum GM.The significance of the mucoprotein content on the Survival of homografts of cartilage and cotnea[J].Proc Roy Soc Edinb B,1997(62):321-329.
- [13]Chung C,Mesa J,Miller GJ,et al.Effects of auricular chondrocyte expansion on neocartilage formation in photocrosslinked hyaluronic acid networks[J].Tissue Engineering,2006(12):2665-2673.
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- 骨髓
- 间充质干细胞
- 组织工程
- 3-羟基丁酸酯-3-羟基己酸酯共聚物
- 明胶海绵
- 生物相容性
bone marrow - mesenchymal stem cells
- tissue engineering
- 3-hydroxybutyrate-co-3-hydroxyhexanoate copolyesters
- gelatin sponge
- biocompatibility