Biomechanical analysis of axial-radial integrated functional gradient material implants in healthy and osteoporotic bones

People with osteoporosis, common among middle-aged and elderly individuals, often need dental implants. Titanium implants, though generally safe, can cause problems due to their stiffness, especially in osteoporotic bone, leading to fractures. This study aims to identify gradient types that offer improved biological adaptation. This was achieved by comparing the mechanical properties of four new two-dimensional functional gradient materials (FGMs) implants to those of conventional and one-dimensional FGM implants in healthy and osteoporotic bone models. The new FGM implants, with reduced stiffness at the bottom and outer parts, kept strain on cancellous bone within safe limits, reducing fracture risk. Notably, the FGM RA L-H implant maintained strain levels within the optimal range (1,500-3,000 µɛ), promoting bone healing and remodeling. By evaluating the stresses and strains, it was concluded that the FGM RA L-H implant is well adapted to significantly reduce stresses and improve bone recovery in healthy and osteoporotic bones.

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Publication Details

Journal
Dental Materials Journal
Published
2025-02-13
DOI
https://doi.org/10.4012/dmj.2024-222
Citations
2
Primary Topic
Bone Tissue Engineering Materials
Type
article
Field-Weighted Citation Impact
1.35
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article

Biomechanical analysis of axial-radial integrated functional gradient material implants in healthy and osteoporotic bones

Baohua Chen, Bin Yu, Kun Lyu, Yiqun Hu et al.
2 citations
Dental Materials Journal
Bone Tissue Engineering Materials
1.35
article

Biomechanical analysis of axial-radial integrated functional gradient material implants in healthy and osteoporotic bones

Baohua Chen, Bin Yu, Kun Lyu, Yiqun Hu, Jian Wu, Yanzhao Ma, Dong Chen, Kena Ma, Zu-Pei Yang
article en
2 citations

Abstract

People with osteoporosis, common among middle-aged and elderly individuals, often need dental implants. Titanium implants, though generally safe, can cause problems due to their stiffness, especially in osteoporotic bone, leading to fractures. This study aims to identify gradient types that offer improved biological adaptation. This was achieved by comparing the mechanical properties of four new two-dimensional functional gradient materials (FGMs) implants to those of conventional and one-dimensional FGM implants in healthy and osteoporotic bone models. The new FGM implants, with reduced stiffness at the bottom and outer parts, kept strain on cancellous bone within safe limits, reducing fracture risk. Notably, the FGM RA L-H implant maintained strain levels within the optimal range (1,500-3,000 µɛ), promoting bone healing and remodeling. By evaluating the stresses and strains, it was concluded that the FGM RA L-H implant is well adapted to significantly reduce stresses and improve bone recovery in healthy and osteoporotic bones.

Dental Materials JournalVol. 44(2)
Wuhan University (CN), Wuhan Ship Development & Design Institute (CN)
Zero hunger
Openalex Percentile: Top 22%
Bone Tissue Engineering Materials
1.35
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Biomechanical analysis of axial-radial integrated functional gradient material implants in healthy and osteoporotic bones — Baohua Chen, Bin Yu, et al. · Dental Materials Journal (2025) | TGRS Research Map | TGRS