Optimization of the structure of three-dimensional interconnected porous carbonate apatite bone grafts with spherical granules

A block-type of three-dimensional carbonate apatite bone graft (3D-CO<sub>3</sub>Ap) is demanded for applying large bone defects. Although we fabricated the 3D-CO<sub>3</sub>Ap with high mechanical strength by fusing polymer-bound spherical precursor, the optimized condition has not yet been found. In this study, we indicated the optimized condition for 3D-CO<sub>3</sub>Ap by controlling granular packing ratio (i.e., different compression ratios of the mold volume from 100% to 140%). 3D-CO<sub>3</sub>Ap was obtained in the condition from 110% to 130%, even though the block was collapsed in 100% and complete conversion to CO<sub>3</sub>Ap was not achieved in 140%. The highest compressive strength was achieved with 130% 3D-CO<sub>3</sub>Ap because the intergranular connection area was the most enhanced. Furthermore, when reconstructing bone defects, 130% 3D-CO<sub>3</sub>Ap prevented soft tissue penetration and showed good osteoconductivity because of their controlled intergranular pore size. The 130% compression was optimal for achieving both high mechanical strength and osteoconductivity.

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Publication Details

Journal
Dental Materials Journal
Published
2025-02-28
DOI
https://doi.org/10.4012/dmj.2024-325
Citations
2
Primary Topic
Bone Tissue Engineering Materials
Type
article
Field-Weighted Citation Impact
1.35

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article

Optimization of the structure of three-dimensional interconnected porous carbonate apatite bone grafts with spherical granules

Akira Tsuchiya, Kunio Ishikawa, Saki Takeda, Masafumi Moriyama
2 citations
Dental Materials Journal
Bone Tissue Engineering Materials
1.35
article

Optimization of the structure of three-dimensional interconnected porous carbonate apatite bone grafts with spherical granules

Akira Tsuchiya, Kunio Ishikawa, Saki Takeda, Masafumi Moriyama
article en
2 citations

Abstract

A block-type of three-dimensional carbonate apatite bone graft (3D-CO<sub>3</sub>Ap) is demanded for applying large bone defects. Although we fabricated the 3D-CO<sub>3</sub>Ap with high mechanical strength by fusing polymer-bound spherical precursor, the optimized condition has not yet been found. In this study, we indicated the optimized condition for 3D-CO<sub>3</sub>Ap by controlling granular packing ratio (i.e., different compression ratios of the mold volume from 100% to 140%). 3D-CO<sub>3</sub>Ap was obtained in the condition from 110% to 130%, even though the block was collapsed in 100% and complete conversion to CO<sub>3</sub>Ap was not achieved in 140%. The highest compressive strength was achieved with 130% 3D-CO<sub>3</sub>Ap because the intergranular connection area was the most enhanced. Furthermore, when reconstructing bone defects, 130% 3D-CO<sub>3</sub>Ap prevented soft tissue penetration and showed good osteoconductivity because of their controlled intergranular pore size. The 130% compression was optimal for achieving both high mechanical strength and osteoconductivity.

Dental Materials JournalVol. 44(2)
Kyushu University (JP), The University of Kitakyushu (JP)
Japan Agency for Medical Research and Development, Japan Society for the Promotion of Science
Openalex Percentile: Top 22%
Bone Tissue Engineering Materials
1.35
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Optimization of the structure of three-dimensional interconnected porous carbonate apatite bone grafts with spherical granules — Akira Tsuchiya, Kunio Ishikawa, et al. · Dental Materials Journal (2025) | TGRS Research Map | TGRS