Magnesia-stabilized zirconia combines superior thermal shock resistance, high mechanical strength, and excellent chemical inertness, ensuring that precision electronic components remain uncontaminated and secure during the sintering process.

Terminating resistors absorb a lot of electricity and dissipate it as heat. BeO's irreplaceable features stem mostly from its remarkable overall performance.

MgO-ZrO2 nozzles are commonly employed in steel production for continuous casting ladles, converter tundishes, and converter taphole slag retention devices. They are mostly employed in the powder metallurgy business, which involves the smelting of ferrous and nonferrous metal powders such as nickel-based alloy powders, copper powders, stainless steel powders, iron powders, and other superalloy pow

Alumina ceramics are the chosen material for high-wear and chemically hostile situations due to theirs superior hardness, wear resistance, and chemical resilience. Mullite ceramics, on the other hand, have superior thermal stability and resilience to fast temperature swings, making them more suitable for high-temperature structural applications.

The process of Active Metal Brazing (AMB) is an advancement of DBC technology. In order to link the ceramic substrate with the metal layer, a small quantity of active elements like Ti, Zr, and Cr in the filler metal react with the ceramic to generate a reaction layer that can be wetted by the liquid filler metal. AMB substrate has a stronger bond and is more reliable since it is based on the chemical interaction of ceramic and active metal at a high temperature.

Silicon Carbide Barrels provide exceptional temperature stability, high-precision grinding results, and remarkable wear resistance. They are therefore the perfect investment for businesses trying to boost their competitiveness in the market and enhance their production procedures.

Break rings, a transitional element between the hot and cool zones of a continuous casting line, are made from hot-pressed boron nitride ceramics that have been machined. This is an important but frequently disregarded step in the casting process. The melt must be able to pass through the break ring and into the solidification zone without adhering. It must also be able to tolerate extreme temperature changes. Break ring failure can be quite expensive. For this reason, materials with low friction coefficients and strong thermal shock resistance are perfect. BN are excellent in this field.

Lanthanum hexaboride (lanthanum boride, or LaB6) is an inorganic nonmetallic compound made up of low-valence boron and the uncommon metal element lanthanum. It is a refractory ceramic that can survive extreme temperatures and hard conditions. Lanthanum hexaboride ceramic has many applications due to its superior thermal, chemical, and electrical characteristics.

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