Consolidation and characterization of Cu, Mg substituted hydroxyapatite by cold sintering

Cold sintering method is an effective route to consolidate powders at temperatures below 300°C. In this study, pure and (Cu, Mg) substituted hydroxyapatite were sintered at 250°C. Ultrapure and substituted hydroxyapatite powders were synthesized by wet precipitation method. Sintering pressure of 250...

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Main Authors: Hmood Firas J., Sabri Israa K., Najim Allaa S.
Format: Article
Language:English
Published: International Institute for the Science of Sintering, Beograd 2024-01-01
Series:Science of Sintering
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Online Access:https://doiserbia.nb.rs/img/doi/0350-820X/2024/0350-820X2400006H.pdf
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author Hmood Firas J.
Sabri Israa K.
Najim Allaa S.
author_facet Hmood Firas J.
Sabri Israa K.
Najim Allaa S.
author_sort Hmood Firas J.
collection DOAJ
description Cold sintering method is an effective route to consolidate powders at temperatures below 300°C. In this study, pure and (Cu, Mg) substituted hydroxyapatite were sintered at 250°C. Ultrapure and substituted hydroxyapatite powders were synthesized by wet precipitation method. Sintering pressure of 250 MPa was used to compact the powders while they were heated simultaneously. 10% (H3PO4) solution was used as a transsolvent for the ionic-substituted hydroxyapatite while distillated water was supplied to the pure one. The yield geometries were characterized for density, thermal stability, microstructure, and the biodegradation in Tris-HCl buffer. The findings indicate that the pure hydroxyapatite compacts has a density of 2.876 g/cm3 (86% TD). Owing to the low sintering temperature the resulting hydroxyapatites have not experienced thermal decomposition, besides no additional phases have appeared. Biologically, the sintered sample (Cu0.25Mg0.75Ca9(PO4)6(OH)2) showed larger degradability (0.0001 g/mm2) than to others after one day of immersion.
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publisher International Institute for the Science of Sintering, Beograd
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spelling doaj-art-fc4d79e83b2d471c82385f34299f61942025-01-30T06:46:26ZengInternational Institute for the Science of Sintering, BeogradScience of Sintering0350-820X1820-74132024-01-0156440541510.2298/SOS240306006H0350-820X2400006HConsolidation and characterization of Cu, Mg substituted hydroxyapatite by cold sinteringHmood Firas J.0Sabri Israa K.1Najim Allaa S.2Department of Ceramics Engineering and Building Materials, University of Babylon, Babylon, IraqDepartment of Ceramics Engineering and Building Materials, University of Babylon, Babylon, IraqDepartment of Ceramics Engineering and Building Materials, University of Babylon, Babylon, IraqCold sintering method is an effective route to consolidate powders at temperatures below 300°C. In this study, pure and (Cu, Mg) substituted hydroxyapatite were sintered at 250°C. Ultrapure and substituted hydroxyapatite powders were synthesized by wet precipitation method. Sintering pressure of 250 MPa was used to compact the powders while they were heated simultaneously. 10% (H3PO4) solution was used as a transsolvent for the ionic-substituted hydroxyapatite while distillated water was supplied to the pure one. The yield geometries were characterized for density, thermal stability, microstructure, and the biodegradation in Tris-HCl buffer. The findings indicate that the pure hydroxyapatite compacts has a density of 2.876 g/cm3 (86% TD). Owing to the low sintering temperature the resulting hydroxyapatites have not experienced thermal decomposition, besides no additional phases have appeared. Biologically, the sintered sample (Cu0.25Mg0.75Ca9(PO4)6(OH)2) showed larger degradability (0.0001 g/mm2) than to others after one day of immersion.https://doiserbia.nb.rs/img/doi/0350-820X/2024/0350-820X2400006H.pdfcold sinteringco-doped hydroxyapatitebiodegradation
spellingShingle Hmood Firas J.
Sabri Israa K.
Najim Allaa S.
Consolidation and characterization of Cu, Mg substituted hydroxyapatite by cold sintering
Science of Sintering
cold sintering
co-doped hydroxyapatite
biodegradation
title Consolidation and characterization of Cu, Mg substituted hydroxyapatite by cold sintering
title_full Consolidation and characterization of Cu, Mg substituted hydroxyapatite by cold sintering
title_fullStr Consolidation and characterization of Cu, Mg substituted hydroxyapatite by cold sintering
title_full_unstemmed Consolidation and characterization of Cu, Mg substituted hydroxyapatite by cold sintering
title_short Consolidation and characterization of Cu, Mg substituted hydroxyapatite by cold sintering
title_sort consolidation and characterization of cu mg substituted hydroxyapatite by cold sintering
topic cold sintering
co-doped hydroxyapatite
biodegradation
url https://doiserbia.nb.rs/img/doi/0350-820X/2024/0350-820X2400006H.pdf
work_keys_str_mv AT hmoodfirasj consolidationandcharacterizationofcumgsubstitutedhydroxyapatitebycoldsintering
AT sabriisraak consolidationandcharacterizationofcumgsubstitutedhydroxyapatitebycoldsintering
AT najimallaas consolidationandcharacterizationofcumgsubstitutedhydroxyapatitebycoldsintering