Hexagonal
boron nitride is a white powder with good lubrication properties, high
temperature resistance, corrosion resistance, high thermal conductivity, and
good insulation properties. HBN is called white graphite because it has a
similar layered crystal structure and physical and chemical properties similar
to graphite (good lubricity and thermal conductivity). It is commonly used as a
sintered ceramic material. In addition, due to its high thermal conductivity,
good electrical insulation properties, low thermal expansion coefficient and
non-thermal properties, h-BN structural ceramics have been widely used in high
temperature insulation components, atomic energy, metallurgy, aviation and
other fields. As a raw material for synthesizing cubic boron nitride, hexagonal
boron nitride is a theoretical low-temperature stable phase, and its excellent
performance is more attractive. Therefore, hexagonal boron nitride is commonly
used to synthesize cubic boron nitride.
Hexagonal boron nitride is powdery and has different particle sizes. H-BN with different particle sizes is suitable for manufacturing with different products.
HBN, about 5 microns in size, has smaller particle size and higher crystallinity, and is suitable for products with smaller particle size requirements, such as additives for thermal tapes and films; additives for thermal fiber products; used to prepare cubic boron nitride; and special ceramic raw materials.
HBN with a size of 5 to 15 microns has a small original particle size and a large agglomerated particle size. Because the particles are spherical, its role is to be used as a filler, mold release agent for injection molding and injection molding, and composite ceramics. It is also easy to hot-press.
15 ~ 30 micron hexagonal boron nitride has high crystallinity and large wafer size, reaching the advanced level of similar foreign products. High crystallinity hexagonal boron nitride is superior to ordinary products in terms of thermal conductivity, insulation, lubrication, high temperature resistance, and resistance to molten metal corrosion.
Both foundation powder eyeshadow lipsticks can be added with boron nitride to increase the lubricity and pearlescent effect. It is more appropriate to choose a hexagonal boron nitride of about 13 microns for powder foundations, and the effect is better. For lipstick, it is better to choose hexagonal boron nitride of about 3 microns to 5 microns.
Hexagonal boron nitride is powdery and has different particle sizes. H-BN with different particle sizes is suitable for manufacturing with different products.
HBN, about 5 microns in size, has smaller particle size and higher crystallinity, and is suitable for products with smaller particle size requirements, such as additives for thermal tapes and films; additives for thermal fiber products; used to prepare cubic boron nitride; and special ceramic raw materials.
HBN with a size of 5 to 15 microns has a small original particle size and a large agglomerated particle size. Because the particles are spherical, its role is to be used as a filler, mold release agent for injection molding and injection molding, and composite ceramics. It is also easy to hot-press.
15 ~ 30 micron hexagonal boron nitride has high crystallinity and large wafer size, reaching the advanced level of similar foreign products. High crystallinity hexagonal boron nitride is superior to ordinary products in terms of thermal conductivity, insulation, lubrication, high temperature resistance, and resistance to molten metal corrosion.
Both foundation powder eyeshadow lipsticks can be added with boron nitride to increase the lubricity and pearlescent effect. It is more appropriate to choose a hexagonal boron nitride of about 13 microns for powder foundations, and the effect is better. For lipstick, it is better to choose hexagonal boron nitride of about 3 microns to 5 microns.
Advanced Ceramic Materials (ACM)
Corporation supplies high-quality and consistent advanced ceramic products to
meet our customers’ R&D and production needs. Please visit https://www.preciseceramic.com/ for
more information.
Comments
Post a Comment