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Офтальмохирургия. 2013; : 86-88

ТЕОРЕТИЧЕСКИЕ ПРЕДПОСЫЛКИ К ВЫБОРУ МАТЕРИАЛА ДЛЯ МАТРИЦЫ БИОИНЖЕНЕРНОЙ КОНСТРУКЦИИ ИСКУССТВЕННОЙ РОГОВИЦЫ

Борзенок С. А., Желтоножко А. А., Комах Ю. А., Сабурина И. Н., Агапов И. И., Богуш В. Г.

https://doi.org/undefined

Аннотация

Реферат

Работа посвящена аналитическому обзору биополимерных материалов, используемых в настоящее время для конструирования матриц биоинженерных конструкций тканей. Проанализированы полимерные материалы: альгинат, хитозан, коллаген, спидроин. Показаны положительные и отрицательные их стороны для конструирования матрицы биоинженерной конструкции искусственной роговицы. Наиболее перспективным и отвечающий требованиям для конструирования матриц искусственной роговицы, по нашему мнению, является биосинтетический аналог шелка паутинной нити – спидроин. Спидроин обладает выраженными механическими свойствами, высокой адгезивностью, биоинертностью, биосовместимостью, устойчивостью к условиям внешней среды, абсолютной прозрачностью, что делает его материалом выбора для создания 3D матрицы искусственной роговицы.

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Fyodorov Journal of Ophthalmic Surgery. 2013; : 86-88

THEORETICAL BACKGROUND TO THE CHOICE OF MATERIAL FOR MATRICES OF THE BIOENGINEERING CONSTRUCTION OF THE ARTIFICIAL CORNEA

Borzenok S. A., Zheltonozhko А. А., Komakh Y. A., Saburina I. N., Agapov I. I., Bogush V. G.

https://doi.org/undefined

Abstract

The article reviewed biopolymer materials to construct matrices of the bioengineered tissue structures used at present. Polymer materials such as alginate, chitozan, collagen, spidroin were analyzed. There were shown advantages and disadvantages of these materials to construct matrices of the bioengineering construction of the artificial cornea. Spidroin is a recombinant analog of dragline spider silk protein, and in our opinion it is the most promising and adequate to construct matrices of the bioengineering construction of the artificial cornea. Spidroin is the material of choice to construct 3D matrices of the bioengineering construction of the artificial cornea due to its properties such as high adhesive properties, pronounced mechanical properties, a biological inertness, a biocompatibility, a resistance to environmental conditions and an absolute transparency.

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31. Madihally S.V., Matthew H.W. Porous chitosan scaffolds for tissue engineering // Biomaterials.– 1999.– Vol. 20, № 12.– P. 1133-1142.

32. Orive G., Hernandez R.M., Gascon A.R. et al. Survival of different cell lines in alginate-agarose microcapsules // Eur. J. Pharm. Sci.– 2003.– Vol. 18, № 1.– P. 23-30.

33. Rowley J.A., Mooney D.J. Alginate type and RGD density control myoblast phenotype // J. Biomed. Mater. Res.– 2002.– Vol. 60, № 2.– P. 217- 223.

34. Ruberti J.W., Zieske J.D. Prelude to corneal tissue engineering – gaining control of collagen organization // Prog. Retin. Eye Res.– 2008.– Vol. 27.– P. 549-577.

35. Sachlos E., Czernuszka J.T. Making Tissue Engineering Scaffolds Work. Review: The application of solid freeform fabrication technology to the production of tissue engineering scaffolds // Eur. Cell Mater.– 2003.– Vol. 5.– P. 29-40.

36. Sevastianov V.I., Vasilets V.N., Agapov I.I. Biopolymer implants for high-technology assistance in the field of replacement and regenerative medicine // Rare Metals.– 2009.– Vol. 28.– P. 84-86.

37. Shah, A., Brugnano, J., Sun, S. The Development of a Tissue-Engineered Cornea: Biomaterials and Culture Methods // Pediatr. Res.– 2008.– Vol. 63, № 5.– P. 535-544.

38. Streuli C.H., Bissell M.J. Expression of extracellular matrix components is regulated by substratum // J. Cell. Biol.– 1990.– Vol. 110, № 4.– P. 1405-1415.

39. Suh J.K., Matthew H.W. Application of chitosan-based polysaccharide biomaterials in cartilage tissue engineering: A review // Biomaterials.– 2000.– Vol. 21, № 24.– P. 2589- 2598.

40. Tonsomboon K., Oyen M.L. Composite electrospun gelatin fiber-alginate gel scaffolds for mechanically robust tissue engineered cornea // J. Mech. Behav. Biomed. Mater.– 2013.– Vol. 21.– P. 185-194.

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42. Zhang M., Li X.H., Gong Y.D. et al. Properties and biocompatibility of chitosan films modified by blending with PEG // Biomaterials.– 2002.– Vol. 23.– № 13.– P. 2641-2648.