On April 23, 2025, during the 3rd Jiufengshan Forum (JFSC) and Compound Semiconductor Industry Expo (CSE), the Third Generation Semiconductor Industry Technology Innovation Strategic Alliance (CASA) officially released two standards for isostatic graphite used in silicon carbide (SiC) single crystal
Graphite is widely used in high-temperature and chemically aggressive environments due to its excellent thermal conductivity, low density, and ability to withstand extreme heat. However, graphite by itself is not without limitations.
In today’s advanced manufacturing and extreme industrial environments, materials are constantly tested by intense heat, chemical exposure, and mechanical stress. A material that thrives under such demanding conditions must combine structural robustness with chemical inertness and thermal stability.
Operating in environments that regularly exceed 1000°C is no small feat. High-temperature industrial processes such as metal smelting, powder metallurgy, glass production, and thermal treatment require materials that can not only survive but thrive under intense thermal stress, mechanical pressure,
Graphite is widely used in industries that operate under extreme conditions—high temperatures, aggressive chemicals, and heavy mechanical loads. Whether in vacuum furnaces, metallurgical molds, electrodes, or battery casings, graphite components are prized for their thermal conductivity, chemical inertness, and strength.
On April 23, 2025, during the 3rd Jiufengshan Forum (JFSC) and Compound Semiconductor Industry Expo (CSE), the Third Generation Semiconductor Industry Technology Innovation Strategic Alliance (CASA) officially released two standards for isostatic graphite used in silicon carbide (SiC) single crystal
In the era of cutting-edge technology, industries such as semiconductor fabrication and vacuum heat treatment face ever-growing demands for higher performance, precision, and cleanliness.
Graphite is widely used in high-temperature and chemically aggressive environments due to its excellent thermal conductivity, low density, and ability to withstand extreme heat. However, graphite by itself is not without limitations.
In today’s advanced manufacturing and extreme industrial environments, materials are constantly tested by intense heat, chemical exposure, and mechanical stress. A material that thrives under such demanding conditions must combine structural robustness with chemical inertness and thermal stability.
Operating in environments that regularly exceed 1000°C is no small feat. High-temperature industrial processes such as metal smelting, powder metallurgy, glass production, and thermal treatment require materials that can not only survive but thrive under intense thermal stress, mechanical pressure,
Graphite is an indispensable material in a wide range of industrial applications, particularly where extreme temperatures, corrosive environments, and high conductivity are present.
Graphite is widely used in industries that operate under extreme conditions—high temperatures, aggressive chemicals, and heavy mechanical loads. Whether in vacuum furnaces, metallurgical molds, electrodes, or battery casings, graphite components are prized for their thermal conductivity, chemical inertness, and strength.
