Alumina ceramics withstand higher temperatures than any other ceramic and are highly chemical resistant. Powder is often used in casting processes. Add it to slurries to create custom parts and tools such as crucibles, cutting tools, and laboratory ware.

Ideal for applications that must resist bending and wear as well as carry heavy loads, these rods and discs are often used for sleeve bearings and shafts instead of metal.

Often used to create prototype components, these ceramic sheets come semi-fired so they can be machined using conventional metalworking tools.

Often used as kiln shelves and refractory bricks, you can repeatedly move these mullite ceramic sheets between very hot and cold environments without deforming or cracking.

More resistant to deforming due to high and fluctuating temperatures than most other ceramics, add this mullite powder to a slurry to create crucibles, ladles, and other parts by casting them.

Over 99% pure, these rods have the strength of silicon carbide throughout, so they resist deforming under heavy loads at high temperatures (known as creep). They’re often used as supports in kilns.

Create bushings and other parts that will be exposed to abrasion, harsh chemicals, high heat, and rubbing with these rods. Sintering strengthens the bonds within silicon carbide, leaving it two times stronger than other versions of silicon carbide.

Extremely hard with excellent corrosion resistance, this silicon-carbide ceramic is often used for rubbing parts such as bearings and bushings in chemicalprocessing environments.

Made of nearly pure silicon carbide, these sheets resist creep more than other ceramics and are consistently strong throughout, so they won’t sag under heavy loads at high temperatures. Because they withstand extreme temperatures, they’re often used as kiln furniture and machined into structural furnace components.

Sintering creates strong inner bonds, making this version of silicon carbide more resistant to wear and chemicals than other forms of silicon carbide as well as most ceramics.

Drill and mill precisely shaped heat sinks and other electronic components that require thermal stability.

As fracture resistant and durable as metal, this temperature-resistant zirconia ceramic has been fired to obtain a high hardness and can be used in high-wear applications.

Turn and drill intricate components such as heat sinks, fixture parts, and other electronics parts where thermal stability is important.

To resist deforming, expanding, or cracking when compressed, bent, or exposed to quick temperature changes, these silicon-nitride ceramic discs have been pressed into ultra-dense discs. They’re just as strong and fracture resistant as zirconia ceramic, and hold their strength and shape at higher temperatures.

Often used as a protective shield in thermocouples and other conditions with drastic climate changes, these SiAlON ceramic tubes won't deform, expand, or crack when repeatedly exposed to large temperature changes.

Often used in filtering, this brittle, glass-like carbon has pores that allow fluid and air to flow through.

Already set on a silicon wafer, these highly conductive graphene sheets are ready for use in semiconductors, advanced sensors, and electrodes.

A stainless steel insert makes this material stronger than standard compressible graphite.

Machine complicated shapes and precision parts from these glass-mica ceramic sheets in a fraction of the time it would take using other types of fired ceramic.

Also known as Macor, these glass-mica ceramic rods withstand temperatures up to 1470° F.

Use for wrap-around insulation.

These mica tubes resist temperatures up to 930° F. Also called muscovite mica.