A simple chemical method for conversion of Turritella terebra sea snail into nanobioceramics
2
조회
0
다운로드
0
인용
0
참고문헌
키워드
초록
In this study, a sea shell was converted into bioceramic phases at three different sintering temperatures (450 oC, 850 oC,1000 oC). Among the obtained bioceramic phases, a valuable β-TCP was produced via mechanochemical conversion methodfrom sea snail Turritella terebra at 1000 oC sintering temperature. For this reason, only the bioceramic sintered at 1000 oC wasconcentrated on and FT-IR, SEM/EDX, BET, XRD, ICP-OES analyses were carried out for the complete characterization ofβ-TCP phase. Biodegradation test in Tris-buffer solution, bioactivity tests in simulated body fluid (SBF) and cell studies wereconducted. Bioactivity test results were promising and high rate of cell viability was observed in MTT assay after 24 hoursand 7 days incubation. Results demonstrated that the produced β-TCP bioceramic is qualified for further consideration andexperimentation with its features of pore size and ability to support bone tissue growth and cell proliferation. This studysuggests an easy, economic method of nanobioceramic production.
Abstract
In this study, a sea shell was converted into bioceramic phases at three different sintering temperatures (450 oC, 850 oC,1000 oC). Among the obtained bioceramic phases, a valuable β-TCP was produced via mechanochemical conversion methodfrom sea snail Turritella terebra at 1000 oC sintering temperature. For this reason, only the bioceramic sintered at 1000 oC wasconcentrated on and FT-IR, SEM/EDX, BET, XRD, ICP-OES analyses were carried out for the complete characterization ofβ-TCP phase. Biodegradation test in Tris-buffer solution, bioactivity tests in simulated body fluid (SBF) and cell studies wereconducted. Bioactivity test results were promising and high rate of cell viability was observed in MTT assay after 24 hoursand 7 days incubation. Results demonstrated that the produced β-TCP bioceramic is qualified for further consideration andexperimentation with its features of pore size and ability to support bone tissue growth and cell proliferation. This studysuggests an easy, economic method of nanobioceramic production.
참고문헌 (16)
- F. N. Oktar, , Key Eng. Mater, 631, pp.137~142 (2014)
- O. Gündüz, , Journal Of The Mechanical Behavior Of Biomedical Materials, 35, pp.70~76 (2014)
- I. Karaca, , Journal of the Australian Ceramic Society, 54, pp.317~329 (2017)
- Y. M. Şahin, , Acta Physica Polonica A, 127(4), pp.1055~1058 (2015)
- J. H. G. Rocha, , Bone, 37(6), pp.850~857 (2005)
- K. -R. Kang, , Implant Dent, 26(3), pp.378~387 (2017)
- D. Kel, , Key Eng. Mater, 493-494, pp.287~292 (2011)
- S. Agathopoulos, , Key Eng. Mater, 493-494, pp.775~780 (2011)
- O. Gunduz, , J. Nanomater, 2014, pp.1~6 (2014)
- O. Gunduz, , Key Eng. Mater, 587, pp.80~85 (2013)
- T. Kokubo, , Biomaterials, 27(15), pp.2907~2915 (2006)
- Behzad Mehdikhani, "Synthesis nano bio-ceramic powder β-Ca2P2O7", Journal of Ceramic Processing Research, 16(3), pp.308~312 (2015), 청정에너지연구소[DOI]
- A. Sobczak-Kupiec, , Bull. Mater. Sci, 36(4), pp.755~764 (2013)
- A. Ibrahim, , Materials Letter, 110, pp.195~197 (2013)
- Bui, X. V., , ASEAN Journal on Science and Technology for Development, 33(2), pp.38~68 (2016)
- P. Sobierajska, , J. Alloys Compd, 748, pp.179~187 (2018)