While Si3N4 combines excellent thermal conductivity and mechanical performance. The thermal conductivity can be specified at 90 W/mK, and its fracture toughness is the highest among the compared ceramics. These characteristics suggest that Si3N4 will exhibit the highest reliability as a metalized substrate.

Boron nitride ceramics have remarkable strength and thermal performance that is remarkably stable, making them an ideal choice for making the nozzles that are used in the atomization of molten metal.

Boron Carbide (B4C) is a durable ceramic composed of Boron and carbon. Boron Carbide is one of the hardest substances known, ranking third behind cubic Boron nitride and diamond. It is a covalent material utilized in a variety of crucial applications, including tank armor, bulletproof vests, and engine sabotage powders. In fact, it is the preferred material for a variety of industrial applications

High thermal conductivity and low coefficient of thermal expansion. This combination of properties provides exceptional thermal shock resistance, making Silicon Carbide ceramics useful in a wide range of industries. It is also a semiconductor and its electrical properties make it suitable for a wide range of applications. It is also known for its extreme hardness and corrosion resistance.

Aluminum nitride possesses high thermal conductivity (170 W/mk, 200 W/mk, and 230 W/mk) as well as high volume resistivity and dielectric strength.

Thermal shock is frequently the primary cause of failure in high-temperature applications. It is made up of three components: thermal expansion, thermal conductivity, and strength. Rapid temperature changes, both up and down, cause temperature differentials within the part, similar to a crack caused by rubbing an ice cube against a hot glass. Because of varying expansion and contraction, movement

The automotive industry is keeping up with innovation by utilizing advanced technical ceramics to generate performance-improving changes in both its production processes and the specific components of new-generation vehicles.

Bearings and valves are two of the most common applications for silicon nitride ceramic balls. The production of silicon nitride balls utilizes a process that combines isostatic pressing with gas pressure sintering. The raw materials for this process are silicon nitride fine powder as well as sintering aids such as aluminum oxide and yttrium oxide.

There is a wide variety of advanced ceramics available today, including alumina, zirconia, beryllia, silicon nitride, boron nitride, aluminum nitride, silicon carbide, boron carbide, and many more. Each of these advanced ceramics has its own unique set of performance characteristics and advantages. In order to meet the challenges presented by ever-evolving applications, new materials are consisten

Zirconia is very strong because of its unique tetragonal crystal structure, which is usually mixed with Yttria. Zirconia's small grains make it possible for fabricators to make small details and sharp edges that can stand up to rough use.