Skip to main content
. 2023 Mar 26;10(4):414. doi: 10.3390/bioengineering10040414

Table 3.

The application of Sr compound with calcium phosphates ceramics and bone cements.

Year Team Materials Results
2018 Reitmaier et al. [92] Sr(II)-doted CPC scaffolds Increased bone formation
2019 Li et al. [91] Sr-hardystonite-gahnite bioactive ceramic scaffold Induced substantial bone formation and defect bridging
2020 Chen et al. [86] Sr-substituted biphasic calcium phosphate microspheres Increased proliferation and osteogenic inductivity of BMSCs
2020 Zeng et al. [87] Sr-substituted calcium phosphate silicate bioactive ceramic Increased proliferation and ALP activity of BMSCs, inhibited osteoclast differentiation
2020 Tohidnezhad et al. [88] Sr-composited β-tricalcium phosphate scaffold Increased bone fracture gap bridging
2020 Tao et al. [89] Aspirin-modified Sr-composited β-tricalcium phosphate Increased osteogenic viability of MC3T3-E1
2020 Wu et al. [31] Sr-reinforced calcium phosphate hybrid cement Increased ALP activity and osteogenic gene expression of BMSCs, and promoted bone regeneration
2021 Liu et al. [90] Sr-substituted calcium silicate ceramics Increased angiogenesis of BMSCs and accelerated bone regeneration

ALP: alkaline phosphatase, BMSCs: bone marrow mesenchymal stem cells, CPC: calcium phosphate cements.