APPLICATION OF Silicon Carbide

? Elements are used in a wide variety of furnace applications, from small laboratory furnaces to large industrial heating processes, in different atmospheres and temperature ranges.

In many applications including: glass, ceramics, electronics and metal industries, and also for re- search and development. Examples of some typical furnaces where QS SIC elements are the natural choice are illustrated below:

Applications

The single ended connection of QS SG&SGR? elements makes them ideally suited to various applications where standard elements cannot conveniently be used, such as where access would be difficult, or in any case where single ended connections are essential. ? ? ?QS? SG and SGR elements are used in a wide variety of furnace applications, from small laboratory furnaces to large industrial heating processes, in different atmospheres and temperature ranges. The elements allow great freedom in furnace design which, combined with simple installation and long operating life.

? ? ? makes them the preferred choice in many applications including: Glass, ceramics, electronics and metal industries and also for research and development.

? ? ? ?Examples of some typical furnaces where QS SG and SGR elements are the natural choice are illustrated below. High temperature laboratory furnaces ? ? ??Creep testing, MOR and DTA ? ? ?

?General purpose box and tube furnaces

Batch and continuous furnaces to 1600°C? (2910°F) ? ?

? ? Alumina ceramics ? ? ?

? Electronics components ? ?

? ? Tin oxide electrodes ? ?

? ? Luminous powders ? ?

? ? Powder metal sintering

Melting and holding of non ferrous metals ?

? ?? Crucible or reverberatory ?

? ? Immersion heater

applications ? ? QS? SG and? SGR elements are ideally suited to most types of high-temperature equip- ment, including: ? ?

? High-temperature laboratory furnaces ?

? Creep testing, MOR and DTA ? ? ?

General purpose box and tube furnaces ? ?

? Melting and holding of non ferrous metals Crucible or reverberatory

Immersion heater ? ?

? Glass feeders ? ?

? Batch and continuous furnaces to 1600°C (2910°F) Alumina ceramics ? ? ?Electronics components Tin oxide electrodes Luminous powders Powder metal sintering.

Silicon carbide (SiC) is a semiconductor material with unique properties that make it ideal for a wide range of applications, particularly in power electronics. SiC devices can operate at higher voltages, temperatures, and frequencies than silicon devices, while also offering lower power losses.

As a result, SiC is increasingly being used in a variety of power electronics applications, including:

• Electric vehicles (EVs): SiC devices can help EVs to achieve longer range, faster charging, and improved performance.
• Solar and wind power: SiC inverters can help to improve the efficiency and reliability of solar and wind power systems.
• Data centers: SiC power supplies can help data centers to reduce energy consumption and operating costs.
• Industrial automation: SiC motor drives and other industrial automation products can help to improve efficiency and productivity.
• Aerospace and defense: SiC devices are used in a variety of aerospace and defense applications, including aircraft engines, radar systems, and space vehicles.

In addition to power electronics, SiC is also used in a variety of other applications, including:

• Sensors: SiC sensors are used in a variety of harsh environments, such as automotive engines, aerospace systems, and chemical processing plants.
• Abrasives: SiC is a very hard material, and is often used in abrasive products such as grinding wheels and sandpaper.
• Structural components: SiC is also used in a variety of structural components, such as brake discs, ceramic plates, and aerospace engine components.

SiC is a relatively new material, but it is rapidly gaining acceptance in a wide range of applications. As the cost of SiC devices continues to decline, we can expect to see SiC used in even more applications in the future.