TiC-coated carbon particles as bioactive substrates for inducing of mineralization in bone healing

Soe, Hnin Nandar; Khangkhamano, Matthana; Sangkert, Supaporn; Meesane, Jirut; Kokoo, Rungrote

doi:10.1016/j.matlet.2018.06.125

Cited by 8 publications

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“…The overall fabrication process of TiC/TiO 2 /SrCO 3 ‐coated CB particles using CBs as both a reactant and template is schematically shown in Figure 5. Reaction mechanisms are suggested based on literatures 36–39 . To fabricate core–shell structure, the MSS of TiC coatings on CBs is a crucial step involved.…”

Section: Resultsmentioning

confidence: 99%

“…Reaction mechanisms are suggested based on literatures. [36][37][38][39] To fabricate core-shell structure, the MSS of TiC coatings on CBs is a crucial step involved. The formation of dense TiC nanocrystal coatings on CB surfaces concurrently with the undetected Ti phase on the XRD curve (Figure 1B).…”

Section: Formation Mechanism Of the Bioactive Core-shell Particlesmentioning

confidence: 99%

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Bioactive core–shell structure of TiC/TiO₂/SrCO₃ coating on carbon black particles for bone tissue formation: Fabrication, characterization, and biological functions

et al. 2022

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Although carbon‐based nanomaterials, such as carbon nanotubes, graphene, and carbon dots, have attracted much attention for bone tissue regeneration and engineering due to the advantages of being lightweight, mechanical stability, and remarkable ability for bone repair, their toxicity and dispersity are the most concern and greatly limiting their clinical uses. In this article, the surface modification of carbon black particles based on core–shell structure design as a promising candidate material for bone tissue engineering applications is presented. TiC/TiO2/SrCO3‐coated carbon black particles were prepared via molten salt synthesis and hydrothermal process at various temperatures to study the effects of temperature on crystal structure, morphologies, surface wettability, and biological functions. Phase composition, morphologies, and elemental distributions were studied by X‐ray diffraction, field‐emission scanning electron microscope, and energy‐dispersive X‐ray spectroscopy, respectively. Cell proliferation, cell viability, alkaline phosphatase (ALP) activity, and calcium deposition were also investigated. The investigation showed that the reaction temperature played an important role in the crystallinity, phase formation, nanotopography, and biological functions of the particles. The particles treated at 250°C offered favored surface properties of roughness, composition, crystallite size, and wettability for cell adhesion, proliferation, ALP activity, and calcium deposition. As a result, these bioactive core–shell particles would be a promising filler material for bone tissue engineering applications.

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Section: Resultsmentioning

confidence: 99%

Section: Formation Mechanism Of the Bioactive Core-shell Particlesmentioning

confidence: 99%

Bioactive core–shell structure of TiC/TiO₂/SrCO₃ coating on carbon black particles for bone tissue formation: Fabrication, characterization, and biological functions

et al. 2022

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Self-diffusion of Ti interstitial based point defects and complexes in TiC

et al. 2019

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Design and optimization of coating structure for plasma sprayed self-healing MgO coating via finite element method

Zhuang

Yuan

et al. 2021

Ceramics International

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TiC-coated carbon particles as bioactive substrates for inducing of mineralization in bone healing

Cited by 8 publications

References 10 publications

Bioactive core–shell structure of TiC/TiO₂/SrCO₃ coating on carbon black particles for bone tissue formation: Fabrication, characterization, and biological functions

Bioactive core–shell structure of TiC/TiO₂/SrCO₃ coating on carbon black particles for bone tissue formation: Fabrication, characterization, and biological functions

Self-diffusion of Ti interstitial based point defects and complexes in TiC

Design and optimization of coating structure for plasma sprayed self-healing MgO coating via finite element method

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TiC-coated carbon particles as bioactive substrates for inducing of mineralization in bone healing

Cited by 8 publications

References 10 publications

Bioactive core–shell structure of TiC/TiO2/SrCO3 coating on carbon black particles for bone tissue formation: Fabrication, characterization, and biological functions

Bioactive core–shell structure of TiC/TiO2/SrCO3 coating on carbon black particles for bone tissue formation: Fabrication, characterization, and biological functions

Self-diffusion of Ti interstitial based point defects and complexes in TiC

Design and optimization of coating structure for plasma sprayed self-healing MgO coating via finite element method

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Product

Resources

About

Bioactive core–shell structure of TiC/TiO₂/SrCO₃ coating on carbon black particles for bone tissue formation: Fabrication, characterization, and biological functions

Bioactive core–shell structure of TiC/TiO₂/SrCO₃ coating on carbon black particles for bone tissue formation: Fabrication, characterization, and biological functions