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Silicon Nitride (SiN) Ceramic Sheet Precision Machining Ceramic

fine ceramics

Silicon Nitride (SiN) Ceramic Sheet Precision Machining Ceramic

Item Number : KM-DG04

Price varies based on specs and customizations


Material
Silicon nitride
Specification
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Application

Silicon nitride ceramic is an inorganic material that maintains its shape during sintering and has uniform properties at high temperatures. It is a commonly used ceramic material in the metallurgical industry. Silicon nitride plates have excellent thermal shock resistance due to their microstructure. Silicon nitride also has excellent creep and oxidation resistance, as well as its low thermal conductivity and high wear resistance, making it an excellent material capable of withstanding the conditions of most industrial applications.

  • Hybrid integrated circuit interconnection substrate: used as the substrate for the interconnection of electronic components in hybrid integrated circuits.
  • Microwave Devices: Silicon nitride substrates are used in the manufacture of microwave components.
  • Optoelectronic Communications: For the production of optoelectronic devices used in communication systems.
  • Sensing applications: Silicon nitride substrates are used to manufacture sensors in various industries.
  • Power electronics substrates: Silicon nitride's high flexural strength, fracture toughness and good thermal conductivity make it ideal for power electronics substrates.

Detail & Parts

Silicon nitride ceramic sheet detail 1Silicon nitride ceramic sheet detail 2

Silicon nitride ceramic sheet detail 3

Silicon nitride ceramic sheet detail 4

Technical specifications

10*10*0.35mm 20*20*0.35mm 140*190*0.32mm 114*114*0.35mm 114*114*0.75mm

The produce we show are available in different sizes and custom sizes are available on request.

Advantages

  • High mechanical strength at high temperature.
  • Excellent wear resistance and self-lubrication properties, including high load capacity and abrasive environments.
  • Low thermal expansion and high thermal conductivity ensure dimensional stability and efficient heat dissipation.
  • High fracture toughness, not easy to crack or break.
  • The high hardness makes silicon nitride one of the hardest substances known.
  • Good thermal shock resistance, enabling it to withstand sudden temperature changes without damage.
  • Good chemical and oxidation resistance, making it suitable for use in corrosive environments.

FAQ

What are engineering ceramics?

Engineering ceramics are advanced ceramic materials designed for specific mechanical, thermal, electrical, and chemical properties. They are used in applications requiring high performance under extreme conditions.

What are advanced ceramics?

Advanced ceramics are specialized ceramic materials with enhanced properties such as high strength, high temperature resistance, and excellent electrical conductivity. They are used in various industries due to their unique characteristics.

What are the main applications of fine ceramics?

Fine ceramics are used in various applications including tableware, cookware, wall tiles, and sanitaryware. They are also used in structural ceramics like bricks and roof tiles, refractories such as furnace and kiln insulation, metal crucibles, and in advanced technical ceramics for high-temperature applications.

Comparison of Si3N4 and other ceramics.

The main properties for power module insulation material selection are thermal conductivity, flexural strength and fracture toughness. High thermal conductivity is essential for fast heat dissipation of power modules. Flexural strength is important for the handling and usability of ceramic substrates during packaging, while fracture toughness is key to predicting reliability.The growing need for higher reliability has recently spurred the development of ZTA (zirconia-toughened alumina) ceramics. These ceramics exhibit significantly higher flexural strength and fracture toughness. Unfortunately, the thermal conductivity of ZTA ceramics is in the same range as that of standard Al2O3, so its use is limited in high power applications with the highest power densities.The comparison shows that Si3N4 combines high thermal conductivity with high mechanical properties. A thermal conductivity of 90 W/mK can be specified and it has the highest fracture toughness (6,5 – 7 [MPa / ]) among comparative ceramics. These properties lead to the expectation that Si3N4 will exhibit the highest reliability as a metallization substrate.

What are the main types of engineering ceramics?

The main types of engineering ceramics include alumina (Al₂O₃), zirconia (ZrO₂), silicon carbide (SiC), silicon nitride (Si₃N₄), and boron nitride (BN). Each type has unique properties tailored for different applications.

What are the main types of advanced ceramics?

The main types of advanced ceramics include alumina (Al₂O₃), zirconia (ZrO₂), silicon carbide (SiC), silicon nitride (Si₃N₄), aluminum nitride (AlN), and boron nitride (BN). Each type has specific properties suitable for different applications.

What are the main types of fine ceramics?

The main types of fine ceramics include alumina (Al2O3), zirconia, boron nitride (BN), silicon carbide (SiC), and silicon nitride (SiN). Each type has unique properties suitable for different applications.

What are high purity metals?

High purity metals are single element materials with minimal impurities, making them ideal for use in research, development, and production of advanced technologies. These metals are used in the creation of advanced ceramics, electronic sensors, high-precision lenses and optics, LEDs, lasers, thermal barrier coatings, plasma screens, and more. KINTEK offers a diverse range of high-purity metals and binary and ternary metal compounds in various forms, compositions, dispersions, particle sizes, and weights for research and commercial applications. Strategic special metals are used in high-tech applications and can be expensive due to their elaborate processing.

What are the applications of engineering ceramics?

Engineering ceramics are used in various industries such as aerospace, automotive, electronics, and metallurgy. Applications include wear-resistant parts, high-temperature components, electrical insulators, and heat sinks.

What are the applications of advanced ceramics?

Advanced ceramics are used in various fields such as aerospace, automotive, electronics, medical devices, and industrial machinery. They are valued for their high performance in extreme environments, including high temperatures and corrosive conditions.

What is the principle behind fine ceramics?

Fine ceramics are made through a process involving high-temperature sintering of raw materials to form dense, strong, and durable materials. The specific properties of each type of ceramic are determined by the chemical composition and microstructure achieved during the sintering process.

What are high purity metals used for?

High purity metals are used in various advanced technologies that require specific properties, performance and quality. They are used to create fluorescent lighting, plasma screens, LEDs, high-precision lenses and optics, electronic sensors, advanced ceramics, thermal barrier coatings, lasers, and more. These metals are also used in the production of high-quality magnetic, thermoelectric, phosphor and semiconducting materials. KINTEK offers a diverse portfolio of high-purity metals, binary and ternary metal compounds, magnetic alloys, metal oxides, nanomaterials, and organometallic precursors in various forms, compositions, dispersions, particle sizes and weights for all research and commercial applications.

How do engineering ceramics differ from traditional ceramics?

Engineering ceramics are designed for specific high-performance applications, offering superior mechanical strength, thermal resistance, and chemical stability. Traditional ceramics are more commonly used for decorative and household purposes.

How are advanced ceramics manufactured?

Advanced ceramics are typically manufactured through processes like sintering, hot pressing, or isostatic pressing. These methods ensure the formation of a dense, uniform structure with desired mechanical and thermal properties.

What are the advantages of using fine ceramics?

Fine ceramics offer several advantages including high temperature resistance, excellent electrical insulation, high hardness, wear resistance, chemical resistance, and low thermal expansion. These properties make them ideal for use in extreme environments and for specialized applications.

What are the benefits of using high-purity metals?

Using high-purity metals offers several benefits. First, they provide consistent and reliable performance due to the absence of impurities that can cause variations in material properties. Second, high-purity metals enable the production of high-quality and high-performance products, ensuring better functionality and durability. Third, their low impurity levels reduce the risk of contamination in sensitive applications. High-purity metals also exhibit improved electrical conductivity, thermal conductivity, and corrosion resistance. Additionally, they are often preferred for their enhanced adhesion properties, making them suitable for various coating and thin film deposition processes.

What are the advantages of using alumina ceramics?

Alumina ceramics are known for their high hardness, wear resistance, and excellent electrical insulation. They also have good thermal conductivity and chemical stability, making them suitable for high-temperature applications.

What are the advantages of using advanced ceramics?

The advantages of advanced ceramics include high hardness, wear resistance, excellent thermal and electrical insulation, high temperature resistance, and chemical stability. These properties make them ideal for demanding applications.

Which industries commonly use high-purity metals?

High-purity metals find application in a wide range of industries. The semiconductor and electronics industries extensively use high-purity metals for integrated circuits, microprocessors, and other electronic components. The aerospace industry relies on high-purity metals for their lightweight and high-strength properties. Optics and photovoltaic industries utilize high-purity metals for precision optics and solar cells. High-purity metals also play a significant role in medical devices, automotive components, research laboratories, and advanced manufacturing processes.

Why are zirconia ceramics preferred in certain applications?

Zirconia ceramics are preferred for their high strength, toughness, and thermal shock resistance. They are often used in applications requiring durability and reliability under high stress and temperature conditions.

What is the difference between alumina and zirconia ceramics?

Alumina ceramics are known for their good electrical conductivity, mechanical strength, and high temperature resistance. Zirconia ceramics, on the other hand, are valued for their high strength, high toughness, and excellent wear resistance.

What makes silicon carbide ceramics suitable for high-temperature applications?

Silicon carbide ceramics have excellent thermal conductivity and high-temperature stability, making them ideal for applications in furnaces, heat exchangers, and other high-temperature environments.

Why are silicon carbide ceramics used in high-temperature applications?

Silicon carbide (SiC) ceramics are used in high-temperature applications due to their high-strength, low-density, and excellent resistance to high temperatures. They are also resistant to chemical corrosion, making them suitable for harsh environments.

How are boron nitride ceramics used in electronics?

Boron nitride ceramics are used in electronics for their excellent electrical insulation and thermal conductivity. They help in dissipating heat from electronic components, preventing overheating and improving performance.

What makes boron nitride ceramics unique?

Boron nitride (BN) ceramics are unique due to their high melting point, high hardness, high thermal conductivity, and high electrical resistivity. Their crystal structure is similar to graphene and harder than diamond, making them suitable for high-performance applications.

What is the manufacturing process of engineering ceramics?

Engineering ceramics are typically manufactured through processes like sintering, hot pressing, or chemical vapor deposition. These processes ensure the formation of dense, strong, and durable ceramic materials.

How do advanced ceramics contribute to energy efficiency?

Advanced ceramics contribute to energy efficiency by providing materials that can withstand high temperatures and corrosive environments in energy production and conversion processes. They help in reducing energy losses and improving the overall efficiency of systems.

Can engineering ceramics be customized for specific applications?

Yes, engineering ceramics can be customized to meet specific application requirements. This includes tailoring their shape, size, and material composition to achieve desired mechanical, thermal, or electrical properties.
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PDF - Silicon Nitride (SiN) Ceramic Sheet Precision Machining Ceramic

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Catalog of Fine Ceramics

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Catalog of Engineering Ceramics

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Catalog of Advanced Ceramics

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Catalog of Fine Ceramics

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Catalog of High Pure Metals

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