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

With a coating that reduces static electricity , these sheets are good for use in solder pallets, automated test equipment, electronic assembly workstations, and other applications where static buildup could damage your equipment.

Often used for terminal boards, electrical housings, end plates, and structural components in high temperatures, these sheets are a flame-retardant version of Garolite G-11. All are stronger and resist heat better than Garolite G-10/FR4.

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

Stronger than Garolite CE with better electrical-insulating properties, Garolite XX is often fabricated into low-cost electrical components.

Use Garolite G-10 in place of Garolite G-10/FR4 for applications that are sensitive to halogen, such as in nuclear plants. It's strong, machinable, and electrically insulating.

Using nothing more than standard high-speed steel tooling, Garolite LE can be machined into intricate parts.

A combination of high impact strength and extreme hardness makes Garolite E-glass very difficult to penetrate. It is often used for machine guards.

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.

Layers of fibers alternating in four directions makes this carbon fiber stiff at the corners and edges, so it stands up to twisting forces.

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.

This highly conductive graphene material is often used in electronic devices, such as cell phones, laptop computers, digital cameras, and LEDs.

Grown by chemical vapor deposition (CVD) on copper foil, this highly conductive graphene material can be transferred on to glass, silicone, and plastic film for use in proton exchange membranes, flexible electronics, and advanced sensors and electrodes.