In the ceramic industries, Pyrolytic Boron Nitride (PBN), Aluminum Nitride (AlN) and 99.8% Aluminium Oxide (Alumina) are used commonly for the OLED industry.

​ Although 99.7% boron nitride is white and offers strong electrical insulation, its lubricating capabilities, effective thermal conduction, and ease of machining make it comparable to graphite. It can also hold most molten metals since they don't wet it. Applications involving abrupt temperature fluctuations can benefit from its exceptional resilience to thermal shock. It won't react or get wet w

The molybdenum-manganese process is the most widely used metallization technique for BeO ceramics. The process involves applying a paste-like mixture of metal oxides and pure metal powder (Mo, Mn) to the ceramic surface, followed by high-temperature heating in a furnace to create a metal layer.

When it comes to the horizontal continuous casting of nonferrous metals, SNBN (boron nitride+silicon nitride) composite ceramics perform exceptionally well. The rings are perfect for guaranteeing a steady and clear separation during metal flow since they are non-wetting to molten metal, oxidation-resistant, and chemically inert.

The process known as "hot isostatic pressing," or "HIP," is used to enhance the mechanical qualities and integrity of materials. It entails simultaneously applying high pressure and temperature to a material. In the HIP process, an inert gas is used to pressurize a material that is heated to a predetermined temperature inside a pressure vessel. High pressure and temperature work together to remove internal flaws in castings, like pores or voids, and solidify powder metallurgy materials into completely dense components.

In essence, hot press sintering is a high-temperature dry pressing procedure. Even while its precise shapes vary, the basic procedure is essentially the same: the powder is filled into a mold, pressure is applied to the powder using upper and lower punches while it is heated, and simultaneous forming and sintering is achieved.

Materials are sintered under high-pressure gas conditions in a process called gas pressure sintering, which enhances densification and material qualities. Materials with high melting points or those that are challenging to sinter using conventional techniques benefit most from it.

Pressureless sintering produces nearly fully dense silicon carbide products with superior mechanical qualities. This procedure has the benefit of enabling a variety of shaping techniques to create goods with a wide range of shapes, and the use of the right additives can result in products with exceptional strength and durability.

AlN powder, also known as aluminum nitride powder, is a white or light grey ceramic substance. Its electrical and thermal qualities are especially valued in the electronics and semiconductor industries.

Due to the exceptional abrasion resistance of the B4C, it is, in sintered form, an ideal material for blasting nozzles with uniform blasting power, minimal wear, and a longer service life even when used with very hard abrasive blasting agents like corundum and silicon carbide.