Open AccessEffects Bone Regeneration Using Nanotechnology – Calcium Silicate Nano-Composites.
Author(s) -
Vahid Kheiry Mollaqasem,
Masood Hafezi Ardakani,
Saeed Hesaraki
Publication year - 2019
Publication title -
journal of research in science, engineering and technology
Language(s) - English
Resource type - Journals
ISSN - 2693-8464
DOI - 10.24200/jrset.vol1iss04pp1-4
Subject(s) - ceramic , tetragonal crystal system , materials science , composite number , calcium , calcium silicate , silicate , phosphate , composite material , nano , chemical engineering , ion , regeneration (biology) , mineralogy , nanotechnology , crystal structure , chemistry , metallurgy , crystallography , organic chemistry , engineering , biology , microbiology and biotechnology
Calcium phosphate ceramics are rapidly degraded faster than the rate of tissue formation, which makes no Scaffolding enough strength and makes it unsuitable for applications that are bearing the load. Therefore, Bio-Ceramic a new generation of ceramics, with calcium silicate (Ca-Si) attention attracted to. Methodology: One way to improve the biochemical properties of these metal ions into their structure is Bio- Ceramic Add. Nowadays, along with approaching the normal structure of bones and making use of the properties of nanotechnology researchers to build Nano-composite scaffolds were driven. Results: The results of powder X-ray diffraction is shown in Figure 1. The pattern observed in this figure shows the corresponding Hardystonite reference card. Hardystonite powder pattern of tetragonal structure with a=7.8287 and c=5.0140 angstrom fixed network specifies. In addition, sharp peaks indicating the crystalline structure Hardystonite after heat treatment. Conclusion: Bioactive particles in the inner and outer composite is increased bioactivity. By placing the samples in a solution of calcium and phosphate ions in the SBF solution and those other elements on the surface sediment samples from the MAP images visible.