Sheet-like nanodiamond(~70nm)

Sheet-like nanodiamond(~70nm)Product Name Name Sheet like nanodiamond~70nm? span> Product Overview Diamond has extremely high chemical stability and almost does not react with most chemical substances at normal temperature and pressure. Diamond nanosheets also have good chemical stability, mainly due to the strong covalent bonds between carbon atoms in their crystal structure. This chemical stability enables diamond nanosheets to maintain the stability of their structure and

Product Name

Name ：Sheet-like nanodiamond（~70nmï¼?/span>

Product Overview 

Diamond has extremely high chemical stability and almost does not react with most chemical substances at normal temperature and pressure. Diamond nanosheets also have good chemical stability, mainly due to the strong covalent bonds between carbon atoms in their crystal structure. This chemical stability enables diamond nanosheets to maintain the stability of their structure and properties in a variety of harsh chemical environments. For example, in corrosive media such as strong acids, strong alkalis or strong oxidants, diamond nanosheets are usually not easily corroded or decomposed. CVD is a common method for preparing diamond. In the CVD process, carbon-containing gases (such as methane, acetylene, etc.) are usually used as carbon sources, and under certain temperature, pressure and atmosphere conditions, diamond nanosheets are deposited on the substrate through chemical reactions. For example, in the hot wire CVD method, by heating a metal wire such as tungsten or tantalum wire to a high temperature (about 2000-2500 ° C), the carbon source gas is decomposed and diamond is deposited on the substrate.

By adjusting the parameters in the CVD process, such as the type and flow of carbon source gas, deposition temperature, pressure, substrate material, etc., the size, shape and quality of diamond nanosheets can be controlled. The liquid phase ultrasonic stripping method is a common method to prepare diamond nanosheets. The bulk diamond is dispersed in a suitable solvent, and then the diamond crystal is stripped in the solvent by ultrasonic treatment to form diamond nanosheets. Common solvents are surfactant aqueous solution, organic solvent and so on. In the ultrasonic process, the ultrasonic energy will produce a cavitation effect in the solvent, and the local high pressure and high temperature generated by this cavitation effect can destroy the interlayer force of the diamond crystal and promote the formation of nanosheets.

Technical Parameter 

Appearance：Mud-paste suspension

Sheet diameter：~70 nm 

Solid content：~10 wt%

Product Features

Excellent dispersion: by selecting the appropriate dispersant and dispersion medium, the uniform dispersion of diamond nanosheets in the dispersion liquid can be achieved to avoid particle agglomeration.

High stability: The nanoparticle particles in the dispersion solution can remain stable for a long time and are not easy to precipitate or stratify.

Unique physical and chemical properties: Diamond nanosheets have excellent mechanical, optical, electrical and chemical stability, which is retained and may be enhanced in the dispersion solution.

Application Fields

Composite strengthening: Adding diamond nanosheet dispersion to resin, ceramics and other substrates can significantly improve the mechanical properties and wear resistance of composite materials.

Biomedical: Diamond nanosheets have good biocompatibility and chemical stability, and can be used in biomedical fields such as drug delivery and biosensing.

Optical field:Diamond nanosheets have good optical properties, so there are many applications in the field of optics. In theory, it can be used as an optical window material with high transmittance in a wide band range from ultraviolet to infrared light, which is suitable for various optical instruments and devices.

Related Information

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