The addition of carbon gives this material the ability to divert static electricity faster than antistatic UHMW.

A glass-fiber filler gives this material increased rigidity over standard Delrin® acetal resin. Use it to machine manifolds, impellers, and other parts that require rigidity.

The addition of glass fibers to this polycarbonate increases tensile strength for use in structural applications.

Filled with carbon and graphite, this naturally slippery PTFE stands up to wear better than standard PTFE.

Graphite is added to this Garolite CE to provide a slippery surface that reduces friction and makes this material conductive.

Offering excellent arc and track resistance, this GPO3 fiberglass is often used for electrical applications in humid environments.

Known for its use in the aerospace industry, where a balance of weight and strength is critical, carbon fiber is now often machined into panels for structural framing, machinery components, and robotics.

A layer of foam is sandwiched between two pieces of carbon fiber to make a featherweight material that's even lighter than standard carbon fiber.

Often used to build frames and structures, these lightweight sheets combine the strength and stiffness of carbon fiber with the impact resistance of Kevlar.

Originally designed for the automotive and aerospace industries, these PAEK and carbon fiber sheets are a substitute for metal because they’re as light as aluminum and as strong as a nickel alloy.

A silicon carbide coating over a carbon foam base combines the hardness, chemical resistance, and high temperatures silicon carbide is known for with the lightweight versaitility of foam. It’s often used for cores in composite layers and to filter molten metals and corrosive liquids.

This graphite is denser and slightly stronger than standard conductive graphite because it has a smaller grain.

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

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

Also known as Pyrex and Schott glass, borosilicate sheets are heat resistant, clear, and have a super-smooth surface. They're used in a range of applications, from high-temperature viewports to 3D printing.

These sheets won't deform when exposed to temperatures up to 2100° F or from drastic temperature changes.

This glass bends like plastic but is eight times harder—it’s harder than tooth enamel but softer than quartz.

The PTFE coating makes these fiberglass sheets nonstick and chemical resistant.

With larger openings than porous fiberglass fabric, these sheets allow for more air circulation in drying applications.

Pores allow for air circulation, so these sheets are often used in drying applications.

In addition to being oil resistant, this fabric protects against molten metal spatter when used vertically. Use as a heat shield or a welding curtain.

Similar to plaster, these adhesive-impregnated sheets and strips become moldable when water is added and harden as they dry. They can be used in sealing, insulating, and covering applications.

Even when exposed for as long as 2 minutes to temperatures up to 2600° F, these sheets won't ignite or melt.

This material withstands temperatures up to 850° F and pressure up to 2,000 psi.

Made of flexible composite paper, these sheets won't shrink or lose shape in the high temperatures of air furnaces and hot water tanks.

This common insulation material is typically used on hot and cold water lines and in process piping.

Insulate rectangular ductwork.

Grommets along one side make it easy to install these sheets around your facility and quiet noisy areas. Made of vinyl-coated fiberglass, they resist abrasion, oil, dirt, moisture, and most solvents.

Reflect sound and block noise from traveling to other parts of your facility.

The most heat-resistant tarps we offer, these resist flames and molten metal splatter.