2200°C Laboratory CarbonizationFurnaces
CX-CF-Lab It is a vertical top-loading graphiteresistance heating furnace. It has a compact andintegrated design, with a maximum temperature of up to 2200°C.
3000℃ Laboratory Graphitization Furnaces
CX-GF-Lab is vertical top loading induction heating furnace.Compact and integrated design which is ideal for various research applications and new materials development.
1000-1800℃Carbon-Carbon & Carbon-Ceramic CVD Furnace
Carbon-Carbon/Carbon-Ceramic CVD Furnace enables precision chemical vapor deposition (CVD) to produce ultra-dense C/C and C/SiC composites...
1900℃ Vacuum Sintering Furnace For Carbides, Nitrides And Oxide Ceramics
CXinduction® Vacuum sintering furnaces use graphite as heating elements. They are specifically designed to sinter carbide, nitride, and oxide ceramics into products in a vacuum or protective atmosphere.
2000℃ Sintering furnace for metal powder
Sintering is a thermal process that causes the powdered materials, typically metals or ceramics, to bond without fully melting, resulting in a solid piece with enhanced strength, durability, and density. It is a critical step in powder metallurgy and is used to create various metal parts with complex shapes.
2300℃ Debinding Sintering furnace for Precision ceramics
Boron carbide ceramics, silicon carbide ceramics, recrystallized silicon carbide, aluminum nitride ceramics, high-performance ceramic substrates, precision ceramics, powder metallurgy, etc
Titanium Fiber Felt for Electroyzer Hydrogen
Titanium Fiber Felt is a porous material made by sintering fine titanium fibers into a felt-like, mesh structure. It combines the excellent corrosion resistance and lightweight properties of titanium with high porosity and surface area.
Carbon cloth, a new choice for high-end materials
Carbon cloth, with its all-round characteristics of "high strength, high modulus, resistance to high and low temperatures, and excellent electrical and thermal conductivity", redefines the application boundaries of high-end materials.
Carbon Paper: The Invisible Bridge of Energy Conversion
Carbon paper, with the advantages of "ultra-thin and dense, uniformly conductive, and low contact resistance", has become an "invisible bridge" for efficient energy conversion.