Permatasari, Hestining A and Sari, Mona and Aminatun, Aminatun and Suciati, Tri and Dahlan, Kiagus and Yusuf, Yusril (2021) Nano-carbonated hydroxyapatite precipitation from abalone shell (Haliotis asinina) waste as the bioceramics candidate for bone tissue engineering. Nanomaterials and Nanotechnology, 11. ISSN 18479804
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In this study, nano-carbonated hydroxyapatite (n-CHAp) was successfully synthesized with abalone shells (Halioitis asinina) as the calcium source using precipitation methods with aging time variations, namely, 0 (without the aging process), 24, and 48 h. Based on an analysis of X-ray diffraction characterization, the spectrum of the n-CHAp is shown for all sample variations in aging time. The results of the calculation of lattice parameter values confirm that the phase formed is the B-type CHAp phase with the increasing crystallinity degree, crystallite size, particle size, and polydispersity which is confirmed by the presence of the CO32- functional group at 1438 cm−1 and 878 cm−1, that is, the B-type carbonate substitution characteristic. The presence of the carbonate ions identified as smaller during the extension of aging time causes the decreasing value of the Ca/P mole ratio but still has a value greater than the HAp Ca/P value (1.67), which is 1.80–1.72. Based on the transmission electron microscopy analysis, the nanometer-size of B-type CHAp particles was successfully obtained. According to the criteria for nanostructures, crystallographic properties, carbonate content, and chemical processes, B-type CHAp samples based on abalone shells (Halioitis asinina) are one of the candidates in bioceramics for bone tissue engineering applications. © The Author(s) 2021.
Item Type: | Article |
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Additional Information: | Cited by: 8; All Open Access, Gold Open Access |
Uncontrolled Keywords: | Bioceramics; Carbonation; Crystallinity; Crystallite size; High resolution transmission electron microscopy; Hydroxyapatite; Particle size; Particle size analysis; Precipitation (chemical); Shellfish; Tissue; Bone tissue engineering; Carbonate content; Carbonate substitutions; Crystallinity degree; Crystallographic properties; Lattice parameter values; Precipitation methods; Transmission electron; Tissue engineering |
Subjects: | Q Science > QC Physics |
Divisions: | Faculty of Mathematics and Natural Sciences > Physics Department |
Depositing User: | Sri JUNANDI |
Date Deposited: | 06 Oct 2024 23:08 |
Last Modified: | 06 Oct 2024 23:08 |
URI: | https://ir.lib.ugm.ac.id/id/eprint/8717 |