Ardhani, Retno and Ana, Ika Dewi and Tabata, Yasuhiko (2020) Gelatin hydrogel membrane containing carbonate hydroxyapatite for nerve regeneration scaffold. Journal of Biomedical Materials Research - Part A, 108 (12). 2491 – 2503. ISSN 15493296
Full text not available from this repository. (Request a copy)Abstract
A scaffold that mimics physicochemical structure of nerve and supplies calcium ions in axonal environment is an attractive alternative for nerve regeneration, especially when applied in critical nerve defect. Various scaffold material, design, including their combination with several growth-induced substances and cells application have been being investigated and used in the area of nerve tissue engineering. However, the development remains challenges today because they are still far from ideal concerning their stability, reproducibility, including complicated handling related to the poor mechanical strength. In view of the current basis, in this study, the introduction of carbonated hydroxyapatite (CHA) as promising candidate to increase mechanical properties of nerve scaffold is reported. The incorporation of CHA was not only expected to provide better mechanical properties of the scaffold. Under physiological condition, CHA is known to be the most stable phases of calcium phosphate compound. Therefore, CHA was expected to provide controlled release calcium for better axonal environment and promote fasten nerve regeneration. This study shows that CHA incorporated gelatin membrane has ideal microstructure to prevent fibrous tissue ingrowth into the injury site, while retaining its capability to survive nerve tissue by allowing adequate glucose and specific proteins diffusion. The provided Ca2+ release to the environment promoted neuronal growth, without suppressing acetylcholine esterase release activity. Neurite elongation was dramatically higher in the gelatin membrane incorporated with CHA. Introduction of CHA into gelatin membrane represents a new generation medical device for nerve reconstruction, with CHA was considered as a promising factor. © 2020 Wiley Periodicals, Inc.
Item Type: | Article |
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Additional Information: | Cited by: 17 |
Uncontrolled Keywords: | Animals; Carbonates; Durapatite; Gelatin; Hydrogels; Membranes, Artificial; Nerve Regeneration; Neurites; PC12 Cells; Rats; Rats, Wistar; Tissue Scaffolds; Biomechanics; Calcium carbide; Calcium phosphate; Cell engineering; Hydroxyapatite; Mechanical properties; Neurons; Tissue; acetylcholinesterase; calcium; calcium phosphate; carbonic acid; gelatin; glucose; hydrogel; hydroxyapatite; carbonic acid; gelatin; hydroxyapatite; Acetylcholine esterase; Calcium phosphate compounds; Carbonated hydroxyapatites; Controlled release; Nerve regeneration; Nerve tissue engineering; Physiological condition; Scaffold materials; animal cell; animal tissue; Article; biomechanics; calcium cell level; cell differentiation; controlled study; cytoplasm; enzyme activity; nerve regeneration; nervous tissue; neurite; neurite outgrowth; nonhuman; PC12 cell line (pheochromocytoma); permeability; physical chemistry; rat; tissue engineering; X ray diffraction; animal; artificial membrane; chemistry; drug effect; hydrogel; metabolism; nerve regeneration; PC12 cell line; pharmacology; tissue scaffold; Wistar rat; Scaffolds (biology) |
Subjects: | R Medicine > RK Dentistry |
Divisions: | Faculty of Dentistry > Doctoral Program in Dental Science |
Depositing User: | Sri JUNANDI |
Date Deposited: | 28 May 2025 05:03 |
Last Modified: | 28 May 2025 05:03 |
URI: | https://ir.lib.ugm.ac.id/id/eprint/16768 |