Silicon carbide ceramic plate is a durable material with excellent mechanical, chemical, and thermal properties that makes it suitable for various industrial uses, including armor protection, ballistic protection tools, cutting tools, wear-resistant components and wear-resistance components.
Reaction bonded SiSIC plate boasts excellent anti-corrosion, wear resistance and temperature tolerance performances that make it suitable for use in applications involving grinding abrasives, classification processes, concentration concentration and dehydration in mining industry applications. It can withstand exposure to harsh environmental conditions while remaining durable against wear-and-tear. It can withstand temperature variations up to 200 oC for use as abrasive grinding wheel for grinding process in mining industry applications such as classification concentration dehydration.
High Strength
Silicon Carbide (SiC) is one of the lightest, hardest, and strongest technical ceramic materials with excellent thermal conductivity, acid resistance and low thermal expansion properties – similar to diamond and cubic boron nitride in its properties – making it an excellent candidate for ballistic protection applications requiring high strength and toughness.
Its material and strength make it capable of withstanding handgun and rifle caliber firearms while remaining light and comfortable to wear, while absorbing bullet impact kinetic energy by engulphing rather than ricocheting for additional damage. Tested at both NIJ- and DSTU-accredited laboratories have confirmed its reliable stopping power while remaining light enough and comfortable enough for everyday wear.
SiC plates can be formed using any number of processes, depending on their intended application. They are typically formed through hot pressing, hot isostatic pressing (HIP), or reaction-bonded sintering processes and come in various sizes and thicknesses that can be tailored specifically to meet customer specifications.
Reaction-Sintered Silicon Carbide Ceramic (SSIC), more commonly referred to by its acronym SISIC, is an ideal wear resistant material widely utilized by mining equipment makers for applications including material classification cyclones, desulfurization and dust removal systems, pneumatic conveying of coal slag etc. It has proven itself particularly popular within this sector of industry.
Excellent Corrosion Resistance
Silicon carbide ceramic plates are highly resistant to abrasion and corrosion, prolonging their lifespan. Furthermore, they boast chemically resistant surfaces which make them suitable for handling corrosive liquids or gases; this feature makes them especially valuable in fluid control systems that must withstand constant exposure to harsh chemicals.
Silicon carbide ceramic plate stands out for being extremely hard, boasting a Mohs scale hardness of 9.3. Furthermore, this material boasts excellent abrasion resistance and high tensile strength – qualities which make it suitable for industrial applications that demand durable material capable of withstanding extreme temperatures and stress levels.
Silicon carbide ceramics differ from other ceramics in that they do not easily break under vibration and shock, making it an excellent material choice for mechanical seals and pump parts. Their durability also make them great choices for aerospace components that must withstand vibration from high-speed aircraft engines.
Silicon carbide ceramics stand out from its peers with superior thermal conductivity and melting points of only 1600degC, as well as having an extremely low thermal expansion coefficient that minimizes deformation under temperature variations. As such, these properties make silicon carbide an ideal material to use in machines, metallurgy, mining ceramics iron steel electrical refractories refractory papers national defense applications among others.
Excellent Thermal Conductivity
Silicon carbide ceramic plate features high thermal conductivity that increases with its thickness due to the microporous structure of its ceramic material which allows heat to pass quickly through and be dissipated rapidly.
This characteristic makes this material ideal for applications where temperature control is critical, including high-temperature environments where damage or cracking could otherwise occur.
This material features an extremely low thermal expansion coefficient that contributes to its excellent temperature resistance, withstanding temperatures up to 1200 degC without warping or melting under these conditions. Furthermore, its durable surface remains free from corrosion from acids or alkalis exposure.
Shot blast nozzles and other industrial applications benefit from its excellent abrasion and erosion resistance, making it suitable for use with this material. Furthermore, its machineability makes machining effortless while its hardness rivals that of diamond.
Silicon carbide, composed of silicon and carbon, is an advanced ceramic material with excellent wear resistance properties. Found naturally as moissanite but synthetically produced since 1893 as an abrasive, silicon carbide offers lower production costs compared to tungsten carbide but stronger wear resistance properties and greater wear resistance – qualities essential in modern national defense, aerospace, automobiles, and energy technology applications.
Excellent Wear Resistance
Silicon carbide is a coveted ceramic material due to its excellent durability, thermal stability, and corrosion resistance properties. As an essential component in industrial processes such as high-temperature furnaces, semiconductor manufacturing, chemical machinery production and automotive components production. Silicon carbide also serves as an abrasive cut-off wheel material or grinding wheel surface material and is utilized as a refractory material component.
Silicon carbide is one of the toughest non-oxide ceramic materials, second only to diamond, cubic boron nitride and boron carbide in terms of hardness. This hardness makes silicon carbide extremely resistant to wear-and-tear damage from components used daily, extending their lifespan while decreasing maintenance costs. Furthermore, silicon carbide’s corrosion-resistance makes it suitable for fluid control systems which handle aggressive fluids or gases such as acid rain.
Silicon carbide boasts a low thermal expansion coefficient and remains stable even at extreme temperatures, helping prevent deformation under sudden changes in temperature. This guarantees consistent performance and precision when used for orifice plates.
Silicon carbide stands out among ceramic materials for ballistic protection due to its higher density, superior mechanical strength and thermal conductivity; making it more effective at stopping bullets or projectiles while remaining lightweight and less costly than its boron counterpart. Aluminum oxide nitride (AlN), by comparison, offers only modest wear resistance while providing electrical insulation properties – though due to its complex production process it cannot easily be utilized in most electronic devices.