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31results about How to "Improve bone formation" patented technology

Dental Material And Composite Dental Material Formed By Using Hydroxy Apatite

It is intended to provide a dental material formed by using a hydroxy apatite, which is suitable for performing the guided bone regeneration (GBR) method in the implant therapy of dentistry. Also, it is intended to provide a composite dental material which is a bioabsorbable film provided integrally with hydroxy apatite, which is capable of rapidly attracting the osteoblast and blocking the fibroblast. The dental material is a membrane to be used for a guided bone regeneration method of guiding a bone formation by preventing invasion by anaplastic fibroblast by covering a bone developing site with a blocking membrane and filling the bone developing site with osteoblast, wherein a membrane main body of the blocking membrane is formed by using hydroxy apatite having osteoconductive capability of rapidly attracting osteoblast for the purpose of disposing the hydroxy apatite at a bone developing site side of the membrane main body. The composite dental material is a membrane to be used for a guided bone regeneration method of guiding a bone formation by preventing invasion by anaplastic fibroblast by covering a bone developing site with a blocking membrane and filling the bone developing site with osteoblast, wherein a membrane main body of the blocking membrane is formed by using a bioabsorbable membrane, and the bioabsorbable membrane is integrally provided with hydroxy apatite having osteoconductive capability of rapidly attracting osteoblast and a structure of being disposed at a bone developing site side of the membrane main body.
Owner:ISHIMOTO MITSUNORI +1

G-C3N4/ TiO2 coating with light-control and antibacterial functions and preparation method thereof

The present invention relates to a g-C3N4/ TiO2 coating with light-control and antibacterial functions and a preparation method thereof. The light-control antibacterial coating consists of TiO2 with athree-dimensional network structure and graphite-like phase carbon nitride (g-C3N4) deposited on the surface of the TiO2. The g-C3N4/ TiO2 coating with a three-dimensional network structure is combined with the surface of a titanium or titanium alloy substrate, rod-shaped nano-array sodium titanate is constructed on the surface of the substrate by a hydrothermal synthesis method, the nano-array sodium titanate is converted into titanium dioxide by a chemical vapor deposition technology, and the g-C3N4 is deposited at the same time. The preparation method comprises the following steps of: firstly, acquiring a rod-shaped nano-array sodium titanate biological coating on the surface of the substrate by adopting a hydrothermal synthesis method; and then converting the coating into titanium dioxide by using a high-temperature annealing technology, taking melamine as a raw material, and depositing g-C3N4 on the surface of the titanium dioxide through a chemical vapor deposition technology soas to finally obtain the g-C3N4/ TiO2 coating with the light-control and antibacterial functions.
Owner:SOUTHWEST UNIVERSITY

Degradable magnesium alloy bone nail with squamous bionic bone nanostructure coating and preparation method

The invention discloses a degradable magnesium alloy bone nail with a squamous bionic bone nanostructure coating and a preparation method thereof. The degradable bone nail consists of an AZ31B magnesium alloy bone nail matrix and a magnesium oxide bioceramic coating with a squamous bionic bone nanostructure loaded with PLGA-bone morphogenetic protein BMP. The magnesium oxide bioceramic coating with the squamous bionic bone nanostructure is combined with the surface of a metal matrix and the nano-sized squamous nanostructure is constructed on the surface of the matrix by using a micro-arc oxidation technology. The BMP is filled and loaded between magnesium oxide squamous bionic bone nanostructured laminates through centrifugal force and capillary action. The preparation method comprises thefollowing steps: firstly, selecting an AZ31B magnesium alloy and processing into the bone nail; then preparing the magnesium oxide ceramic coating with squamous bionic bone nanostructure characteristics on the surface of the matrix by adopting the micro-arc oxidation technology; finally, loading the PLGA-bone morphogenetic protein between the magnesium oxide squamous bionic bone nanostructured laminates by adopting a centrifugal load technology.
Owner:SOUTHWEST UNIVERSITY
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