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Also known as mild steel, low-carbon steel is easy to machine, form, and weld. It's widely fabricated into parts that don’t require high strength.
With a thickness that's precision ground to a tight tolerance, these bars are sometimes called flat stock.
These sheets and bars are zinc galvanized for good corrosion resistance.
Coated with an aluminum-silicon alloy, these sheets resist corrosion while withstanding long-term exposure to high temperatures. Use in drying ovens, furnaces, and smokestacks.
The galvannealed coating allows these steel sheets to be painted without prepping the surface. They're easier to weld and more scratch resistant than zinc-galvanized steel sheets. Use them for outdoor signs, cabinets, and doors.
A lead-free alternative to 12L14, 1215 carbon steel contains the same amount of sulfur and phosphorus for excellent machinability. It is often used for shaft couplings, studs, and pins.
The lead additive acts as a lubricant, which allows 12L14 carbon steel to withstand very fast machining. It's used to fabricate a wide variety of machine parts.
Stronger than low-carbon steel with equally good machinability, 1045 carbon steel is widely used for bolts, studs, and shafts.
Easy to forge, grind, and heat treat, these 1084 high-carbon steel bars offer high strength and resist wear and abrasion.
The nickel and molybdenum content gives AR400 carbon steel the ability to resist wear better than all other carbon steel. It's often used as wear strips, liners, and deflector plates.
Even in low temperatures, A516 carbon steel resists breaking upon impact. Also known as pressure-vessel-quality (PVQ) steel, it is mostly used for boilers, storage tanks, and pressure vessels.
Exceptional hardness makes AR500 carbon steel more resistant to wear and impact than other carbon steel.
This UHSS (ultra high-strength steel) allows you to fabricate high-strength parts using thinner material than you could with other types of steel. It is formable, weldable, and more economical than alloy steel.
These sheets and bars are hardened for increased abrasion and impact resistance. Also known as chrome-moly steel, 4140 alloy steel resists fracturing from repeated stress.
Also known as flat stock, the thickness on these sheets and bars is held to a tight tolerance.
Because the thickness is oversized, you can finish these bars to your exact requirements.
Also known as chrome-moly steel, this versatile 4140 alloy steel is used for a wide range of parts, such as gears, axles, shafts, collets, and die holders. It resists fracturing from repeated stress.
The thickness is oversized for finishing to your exact requirements.
4130 alloy steel has a low carbon content that provides good weldability. It's often used for structural applications.
4130 alloy steel has a low carbon content for good weldability. It's often used for gears, fasteners, and structural applications.
Combining strength with weldability and formability, A572 alloy steel is an economical choice for structural components, such as channels, beams, and framing. It has a low carbon content, making it easy to weld with a variety of welding methods.
Also known as weathering steel, this high-strength steel develops a thin layer of rust over time in outdoor environments that protects the inner steel from corrosion.
Heat treated for enhanced hardness and strength, A514 alloy steel is suitable for structural applications and supporting heavy loads.
Gray cast iron machines faster with less wear on cutting tools than most types of steel. It's often fabricated into gears, pulleys, and bushings.
The most widely used aluminum, 6061 is fabricated into everything from pipe fittings and containers to automotive and aerospace parts. It is strong and corrosion resistant, plus it's easy to machine and weld.
These sheets and bars are precision ground either on all six sides or just on the top and bottom.
The thickness is oversized to allow for finishing to exact requirements.
An anodized coating bonds to the aluminum surface to improve wear and corrosion resistance.
One side of these sheets and bars is polished to either a brushed finish or a mirror-like finish.
More corrosion resistant and easier to form than multipurpose 6061 aluminum, 6063 is primarily used for exterior railings, decorative trim, and door frames.
As the strongest multipurpose aluminum we offer, 6013 aluminum has the same good corrosion resistance, weldability, and machinability as 6061 with increased strength. 6013 is often fabricated into high-stress machine parts.
2011 has the best machinability of all the aluminum alloys. It is the most selected aluminum for screws, tube fittings, hose parts, and other items that require extensive machining.
While 2024 aluminum was initially designed for structural components in aircraft, it's now widely used when a high strength-to-weight ratio is needed, such as for gears, shafts, and fasteners. It offers similar performance to 7075 aluminum, but it’s not as strong.
Also known as flat stock, these sheets and bars are precision ground on the top and bottom.
These sheets are clad in 1230 aluminum for an added layer of corrosion resistance.
Choose between sheets and bars that are precision ground on all six sides or just on the top and bottom.
Originally developed for aircraft frames, uses for 7075 aluminum now include keys, gears, and other high-stress parts. It is often used as a replacement for 2024 aluminum because it’s stronger and provides similar performance in all other aspects.
Create molds for vacuum-forming and thermoforming applications. Metapor aluminum is porous to let air and moisture escape, which prevents bubbles and blemishes.
Designed for use as a production injection mold and blow mold, tk Ultra 7 is extremely strong with a hard surface and excellent thermal conductivity.
Substitute 7050 aluminum for 7075 in structural applications when high stress-corrosion resistance is required. It is the same material that's used for bulkheads and fuselage frames.
3000 series aluminum stands up to outdoor use, as well as exposure to chemicals. It offers a good combination of strength, formability, and weldability. It's often used for storage tanks, heat exchangers, garage doors, and general sheet metal work.
One side of these sheets is painted in your choice of gloss color, while the other side is painted gloss white.
The textured surface on these sheets increases rigidity and hides fingerprints and dents.
The honeycomb design provides a higher strength-to-weight ratio than solid sheets.
A honeycomb core is bonded between two aluminum sheets for rigidity.
Highly corrosion resistant, 5083 is largely used around salt water for building ships and oil rigs. It maintains its strength in extreme cold, so it's also used to make cryogenic pressure vessels and tanks.
Also known as armor plate, these 5083 aluminum sheets are hardened to an H131 temper for increased strength and impact resistance over standard 5083 sheets.
5086 aluminum is used on ships, oil rigs, tanks, and pressure vessels because of its excellent saltwater resistance and formability.
Known for being one of the easiest types of aluminum to weld, 5052 is also recognized for its ability to resist salt water. It's widely used for the bodies of boats, buses, trucks, and trailers, as well as for chemical drums.
Stronger than other marine-grade aluminum, 5456 is often used for pressure vessels and storage tanks in saltwater environments.
These sheets are tempered to a 1/2-hard or full-hard state to make them over twice as strong as standard 1100 aluminum.
A black, gold, or silver anodized finish protects this 5005 aluminum from wear and abrasion.
Made of 1000 series aluminum which is 99% pure, this aluminum offers superior formability, corrosion resistance, and electrical conductivity. It's frequently fabricated into raceways, decorative trim, and other parts where strength and hardness are not required.
Air is injected into the casting of this aluminum to reduce weight and create a crater-like appearance. This foam is often used for sound insulation and architectural facades.
MIC6 is cast from a high-strength 7000-series aluminum, then stress relieved to maintain dimensional stability during high-speed machining.
Made of 5083 aluminum, these cast tool and jig plates are more corrosion resistant and respond better to anodizing than MIC6. This material is comparable to Alca 5 and ATP 5.
From cookware to chemical-processing equipment, 304 stainless steel is a good all-around choice for a wide range of applications.
Polished to either a brushed or mirror-like finish, this material is often used to fabricate decorative enclosures and industrial workstations.
When compared to standard 304 stainless steel, this material can be machined faster with less wear on cutting tools. It's also called Prodec and Project 70+.
This material has tighter tolerances than standard 304 stainless steel.
Bend this wire and it will stay put. It’s frequently used as tying wire and locking wire.
The textured surface hides fingerprints and dents. This material is widely used in decorative applications, such as partitions and handrails.
This material has tighter tolerances than standard 303 stainless steel.
Widely used for fabricating fittings and fasteners, 303 stainless steel machines quickly without sticking to cutting tools.
Able to withstand repeated stress and wear, 301 stainless steel has the strength required for applications such as springs and fasteners.
One side of these sheets has a brushed finish with grain lines running in one direction to mask fingerprints.
Use 430 stainless steel in decorative and light structural applications, rather than outdoors or in extreme temperatures.
The addition of molybdenum gives 316 stainless steel excellent corrosion resistance. Use it in a variety of marine and chemical-processing applications.
This material machines faster with less wear on cutting tools than standard 316 stainless steel. It's also called Prodec and Project 70+.
This material is precision ground to offer tighter tolerances than standard 316 stainless steel.
One side of these sheets is polished to either a brushed or mirror-like finish.
2205 stainless steel resists cracking even when faced with a combination of tensile stress, corrosive chemicals, and heat. Also known as duplex stainless steel, it has twice the strength of 316 stainless steel. Use it for high-pressure applications in caustic environments.
One of the most machinable types of stainless steel available, 416 contains sulfur for fast machining without clogging cutting tools. It's used for gears, screws, and shafts.
The width and thickness are oversized for finishing to your exact requirements.
Precision ground on the top and bottom to a tight tolerance.
Often used for fasteners and valves, 410 stainless steel withstands wear caused by abrasion.
With excellent strength and wear resistance, S30V stainless steel is a preferred material for knives and cutlery.
This material is hardened for increased wear resistance over standard 420 stainless steel.
440A stainless steel resists damage from impact and abrasion. It's often used for cutlery and valve components.
With a higher chromium content than 15-5 PH stainless steel, this high-strength 17-4 PH offers better corrosion resistance. It is also known as 630 stainless steel.
This material is hardened for improved strength and wear resistance.
Each piece is precision ground to offer tighter tolerances than standard 17-4 PH stainless steel.
Widely used to fabricate fasteners and engine components, A286 will maintain its strength as temperatures rise.
As the most formable of all the PH-grade materials, 17-7 PH stainless steel is widely used in the aerospace industry for intricate parts. When hardened, this material strengthens to make it resist distortion.
13-8 PH stainless steel can be hardened at lower temperatures than other heat-treatable types of stainless steel. It is widely used for fittings, pins, and lock washers.
The titanium content of 321 stainless steel preserves corrosion resistance around weld points.
309/310 stainless steel has high levels of chromium and nickel to provide good corrosion resistance at elevated temperatures. It's often used in heat exchangers and furnaces.
Able to withstand temperatures up to 2100° F, 330 stainless steel is widely used as components for industrial furnaces, gas turbines, and boilers. It resists cracking when exposed to heating and cooling cycles.
These W1 bars have lower amounts of alloy elements than other tool steels for excellent machinability.
The thickness on these bars is precision ground to a tight tolerance.
Also known as flat stock, these bars have an oversized thickness, length, and width for finishing to your exact requirements.
These sheets and bars are precision ground to a tight thickness tolerance.
The thickness, length, and width are oversized for finishing to your exact requirements.
These precision-ground sheets and bars are held to a tight thickness tolerance.
With an oversized thickness, length, and width, these bars can be finished to your exact requirements.
Oversized for finishing to your exact requirements.
With the highest lead content of all the brass alloys, 360 offers the best machinability. Often called free-machining and free-cutting brass, it stands up to high-speed drilling, milling, and tapping operations with minimal wear on your tools. It’s commonly used for gears, pinions, and lock components.
Often called architectural bronze, 385 brass is easy to machine and has excellent formability when heated. It is typically used for handrails, ornamental trim, and hardware, such as hinges and lock bodies.
The most formable brass we offer, 260 offers better weldability than 300 series brass but it’s not as machinable. Sometimes called cartridge brass, it's commonly used for ammunition casings, radiator components, and decorative door hardware.
Polished on one side to a reflective, mirror-like finish.
A lead-free alternative to 485 brass, 464 brass offers good weldability, strength, and wear resistance. It’s widely used for marine hardware, pump and propeller shafts, and rivets.
353 brass is more formable than 385 brass while maintaining good machinability. Commonly called engraver’s brass, it’s well suited for fabrication processes such as knurling and threading. Use it to make nuts, gears, drawer pulls, and hinges.
Offering high electrical conductivity and formability, 110 copper is 99.9% pure. Also known as ETP copper, it's often used in electrical applications, such as for bus bars and wire connectors, as well as for flashing, gaskets, and rivets.
182 copper is stronger, harder, and more wear resistant than 110 copper. Also known as RWMA Class 2 chromium copper, it's commonly used in resistance welding, for circuit-breaker parts, and for molds to make plastic parts.
With 99.99% copper content, 101 copper has higher purity than 110 copper, resulting in superior electrical conductivity. It's commonly called OFE and OFHC copper. Use it in electrical applications, such as for coaxial cables and terminal lugs.
Make plates for offshore drilling platforms, water boxes, valves, and other marine equipment that withstands salt water. Also known as cupro nickel, these copper nickel sheets resist rusting better than stainless steel.
In addition to being conductive, these 17510 beryllium copper bars are non-sparking and non-magnetic, so they’re used in mines and oil rigs, as well as for navigational tools.
Thickness and width are oversized to allow for finishing.
Because 510 bronze is very strong and formable, it is the best choice for applications involving repetitive motion, such as springs and bellows.
Offering excellent formability, 220 bronze is known for its ability to withstand outdoor exposure. It's commonly called commercial bronze.
These bars are also known as flat stock.
Able to withstand greater heat than molybdenum and other high-temperature metal, this chemically pure tungsten is ultra dense for use in high-heat parts in vacuum furnaces, heat shields, and radiation shields.
Because Grade 2 titanium is 99% pure, it is more corrosion resistant than Grades 5 and 9 but not as strong. It has good formability and weldability. Common uses include chemical processing equipment, heat exchangers, and marine hardware.
Grade 5 is the strongest of all the titanium alloys thanks to its higher aluminum and vanadium content. It offers a versatile mix of good corrosion resistance, weldability, and formability. It's often used for turbine blades, fasteners, and spacer rings.
With a higher iron and oxygen content, Grade 4 titanium is the strongest of the commercially pure titanium alloys, Grades 1 through 4. Although not as strong as Grade 5 titanium, Grade 4 is more corrosion resistant, so it stands up to hydrochloric and sulfuric acids, sodium-hydroxide and ammonia alkalies, and chlorides.
This material has a minimum of 99.5% pure lead content. Applications for lead include radiation shields, sound barriers, and vibration dampers.
With 99.9% tin content, this material is considered commercially pure. It's commonly used to make gaskets and filters.
Considered commercially pure, this material is 99% zinc.
Even in temperatures up to 2000° F, Alloy X nickel sheets offer good strength and weldability, along with excellent oxidation resistance. They're often used for components in gas turbine engines and furnaces. This material is equivalent to Inconel HX and Hastelloy X.
This Alloy 22 nickel resists highly corrosive environments better than similar nickel alloys, including 625 and C-276.
From marine hardware to chemical-processing equipment, 400 nickel sheets and bars are widely used for their strength, weldability, and formability. Comparable to Monel, this nickel-copper alloy will stand up to highly corrosive environments, such as those involving salt water, sulfuric acid, and alkalies.
200 nickel sheets and bars are over 98% pure, so they offer corrosion resistance along with good formability, weldability, and electrical conductivity. They're often used in food-processing equipment and chemical shipping drums.
These nickel-iron-cobalt alloy sheets expand at the same rate as glass when heated. They offer better machinability than Invar 36 and are often used anywhere a dependable glass-to-metal seal is required, such as in diodes and microwave tubes.
A blend of nickel, chromium, and molybdenum gives these 625 nickel sheets the strength, weldability, and corrosion resistance necessary for use in expansion joints, exhaust systems, and marine components. They are comparable to Inconel 625 and Haynes 625.
C-276 nickel has excellent corrosion resistance against chemicals, including nitric acid, sulfuric acid, and hydrochloric acid.
Strong, corrosion-resistant, and stable for long-term use at up to 1800° F, these Haynes® 230 nickel sheets are often used in furnaces and heat-treatment facilities.
Often used for cryogenic tanks and fasteners, these 718 nickel sheets will maintain their high strength in temperatures from -300° to 1200° F, even after long-term exposure. They are comparable to Inconel 718.
Because Invar 36 holds its size and shape when temperatures rise, these nickel-iron alloy sheets are the go-to material when dimensional stability is required. They are commonly used when precision is a priority, such as for scientific instruments and optical devices.
In addition to a low-friction surface that prevents sticking and binding, this tough material is impact and wear resistant to handle the scuffs, scrapes, and strikes that other plastics can’t.
More sustainable than standard UHMW, these sheets and bars are made from partially recycled material, so they have a lower carbon footprint.
This material suppresses static charges to prevent dust from building up.
Made with carbon black, these recycled UHMW sheets are a sustainable alternative to standard UHMW sheets in applications where static electricity is a concern, such as in conveying equipment and chute liners.
The addition of carbon gives this material the ability to divert static electricity faster than antistatic UHMW.
The addition of glass fibers makes this material more abrasion resistant than standard UHMW. It’s also known as Tivar 88.
Also known as Tivar H.O.T., this material lasts up to 10 times longer in high-temperature applications than standard UHMW.
Compared to our standard UHMW polyethylene, these sheets and bars hold up better to scuffs and scrapes in high-speed, high-precision, and high-impact applications—such as conveyor equipment, chute liners, and machine guards. Also known as Tivar HPV.
If a chip of this material breaks off, it can be located by metal detectors to reduce contamination risks.
Prolonged outdoor exposure won’t discolor or degrade VHMW.
This oil-filled material is self-lubricating for an extra-slippery surface.
Often used to make gears and wear strips, these cast nylon 6 sheets and bars withstand higher temperatures and are easier to machine than standard nylon 6/6 sheets and bars.
This cast nylon 6 material is easier to machine than other types of nylon. It’s comparable to Nylatron and Nycast.
The addition of MDS results in a nylon with exceptional wear resistance as well as self-lubricating properties.
This nylon stays lubricated over time because it’s filled with oil. Use it to fabricate parts for hard-to-reach places where adding lubricants would be difficult.
Also known as nylon 6/6, this general purpose material is often used for bearings, gears, valve seats, and other high-wear parts.
With glass reinforcement, this nylon 6/6 material is stronger than standard nylon, plus it can withstand higher temperatures. It’s widely used in high-stress applications, such as caster wheels and automotive parts.
Because this 6/12 material absorbs less water than standard nylon 6/6, it holds its shape better. It’s often machined into hose fittings and valve components.
This nylon 6/6 material is modified with MDS for a self-lubricating surface that’s more slippery than standard nylon. It's often used in high-friction applications, such as gears and bearings.
Designed for extreme wear resistance, this Kevlar-filled nylon 6/6 material lasts up to 20 times longer than unfilled nylon. Also known as Hydlar Z, it is often used for parts that are continuously exposed to wear and abrasion, such as wear strips and bushings.
Because PVC resists many acids and alkalies, it’s widely used for tanks and in chemical-processing applications. Also known as PVC Type 1.
Offering greater impact resistance than standard PVC Type 1 with similar chemical resistance, this PVC Type 2 is widely used for parts that are subject to shock.
CPVC is just as chemical resistant as standard PVC Type 1 and can handle hotter temperatures up to 200° F.
Create signs and partitions with this easy to cut PVC foam.
Widely used for vehicle interiors and equipment housings, this blended material maintains its physical properties after thermoforming. It is comparable to Kydex.
Delrin® acetal resin, also known as acetal homopolymer, is stronger and stiffer than acetal copolymer.
The addition of PTFE provides a more slippery, wear-resistant surface than standard Delrin® acetal resin. It’s commonly fabricated into pump components, gears, and bearings.
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.
An economical alternative to Delrin® acetal resin, this acetal copolymer offers similar wear resistance.
This material prevents the buildup of static charges.
Practically nonabsorbent, HDPE won't swell when exposed to moisture. It is denser and more rigid than LDPE, plus it's more chemical resistant.
Also known as starboard, these sheets and bars won’t degrade when exposed to salt water, humidity, and UV light.
Made of recycled HDPE plastic, these sheets are more sustainable and economical than standard marine-grade moisture-resistant HDPE sheets.
Also known as pipe-grade HDPE, these sheets are about four times more impact resistant than standard HDPE and hold up outdoors, and in wet environments.
Polycarbonate maintains good impact resistance across a wide temperature range. It's comparable to Lexan, Hyzod, Tuffak, and Makrolon.
The addition of glass fibers to this polycarbonate increases tensile strength for use in structural applications.
Because ABS maintains its toughness even after thermoforming, it’s often made into storage cases, tote trays, equipment housings, and protective gear.
This blended material quickly diverts damaging static charges.
Because this polypropylene resists swelling when exposed to water, it’s often fabricated into containers and parts for laboratory equipment.
Package food, textiles, and other products in wet environments. This film won’t absorb or swell from water.
Widely used in semiconductor applications, this polypropylene meets UL flame-retardance standards.
Use Noryl PPO for electrical insulating applications where moisture is a concern. It remains dimensionally stable over time, even when temperatures fluctuate.
One of the softest and most flexible plastics we offer, LDPE is more formable than HDPE.
A layer of soft LDPE is sandwiched between two thin layers of aluminum for strength and rigidity.
When exposed to UV rays, these cores won’t become brittle or break down. Use them to add stiffness to composite sandwiches that may be used outdoors without adding a lot of weight.
Known for its electrical insulating properties, this polystyrene is often used for cable connectors, electrical housings, and in microwave applications. It is also known as Rexolite.
A satin texture on one side of these PETG sheets makes them semiclear. You can see light from the other side, but not detailed shapes. They are more resistant to scratching and glare than standard PETG.
The combination of high strength and water resistance, along with a variety of color choices, makes this opaque cast acrylic useful for outdoor signs and containers. It's also known as Lucite and Plexiglas® Acrylic.
These black polyester sheets protect from UV rays better than off-white polyester. Strong and semi-rigid, they won't swell in moist environments, so they're often made into pump components and spacers.
Often fabricated into signs, packaging, and light duty housings, polystyrene is easy to thermoform.
Polyester resists swelling in wet environments.
Made with Teflon® PTFE resins, these sheets and bars surpass most plastics when it comes to chemical resistance and performance in extreme temperatures.
Known for its naturally slippery surface, PTFE surpasses most plastics when it comes to chemical resistance and performance in extreme temperatures.
This film is made with virgin Teflon® PTFE resins. It can handle extreme temperatures and resists most solvents.
Protect sensitive equipment from damaging electrical static charges.
Manufactured from Rulon PTFE, a PTFE that's modified with filler material for a super-slippery, impact-resistant surface that resists wear.
Filled with carbon and graphite, this naturally slippery PTFE stands up to wear better than standard PTFE.
This glass-filled PTFE is more rigid than standard PTFE for increased durability in high-stress applications.
A layer of tin-plated steel adds structural support and makes this PTFE easy to form.
Among the strongest plastic materials we offer, Torlon PAI has a slippery surface that resists wear. Use it to make high-friction compressor parts, bearings, and seals.
Choose these sheets over standard Torlon PAI for their excellent electrical insulating properties.
Not only does PEEK provide superior wear resistance in repetitive processes, it is also resists wear caused by abrasion. PEEK can be used as a lightweight substitute for metal parts in chemical-processing applications.
Kapton® polyimide film is an excellent electrical insulator.
Often used for circuit-breaker housings, manifolds, and semiconductor components, Ultem PEI offers excellent electrical-insulating properties.
Stronger than PTFE, PVDF offers good chemical resistance. Comparable to Kynar and Solef, it’s widely used for pump parts, tank liners, and seals.
Just as chemical resistant as PTFE, yet FEP offers greater impact strength. Use it to make valve components and gaskets.
When excellent chemical resistance is combined with an ability to hold tight tolerances, the result is PPS—a material that’s widely machined into parts for chemical-processing applications. It is comparable to Techtron and Ryton.
This film conducts electricity to prevent the buildup of static charges.
Widely used to make parts that require autoclaving, polysulfone is a hard, rigid material that’s easy to machine and thermoform. It maintains its physical properties when heated, even when exposed to steam.
Common in food and pharmaceutical plants, these PEEK bars help you identify contaminated batches.
Because this film dissipates heat, it is often used for printed circuit boards and power supplies.
These PEEK sheets can be machined to tight tolerances for use in electrical and semiconductor parts, such as test sockets.
Cast acrylic is easier to machine than extruded acrylic. It's comparable to Lucite and Plexiglas® Acrylic.
When compared to uncoated cast acrylic, this clear-coated cast acrylic is 45 times more scratch resistant.
A static-dissipative coating on this cast acrylic prevents electrostatic discharge from damaging sensitive electronic equipment.
This extruded acrylic offers similar performance as cast acrylic at a lower cost.
Laminate or mold this plastic film onto credit card signing screens, signs, and other surfaces for a see-through protective layer that won’t scratch.
Modified for increased impact strength over other types of acrylic, this acrylic is often used for skylights and outdoor signs.
At only half the weight of glass, polycarbonate maintains excellent impact resistance across a wide temperature range. It's comparable to Lexan, Hyzod, Tuffak, and Makrolon.
With a clear coating that provides protection from abrasion, UV light, and harsh cleaners, this polycarbonate is often used to create transit shelters and equipment shields.
Often used in security doors and windows to protect against forced entry, this laminated polycarbonate is nearly impenetrable.
Enhanced UV resistance makes this polycarbonate better than standard polycarbonate for outdoor use.
This polycarbonate has a static-dissipative coating that prevents electrostatic discharge from damaging sensitive electronic equipment.
A static-dissipative coating on this polyester film prevents electrostatic discharge from damaging sensitive electronic equipment.
PETG can be formed into complex shapes without sacrificing durability.
Because PVC resists acids and alkalies, it is often used in tanks and chemical-processing applications where visibility is essential.
Stronger and more chemical resistant than FEP and PFA film, ETFE film resists cracking over time.
The slippery surface on this FEP film prevents sticking. Use it as a release film when making molded parts.
Packs include one 2” square of ABS, Delrin® acetal, LDPE, HDPE, UHMW, nylon, cast nylon, polyester, polystyrene, Rexolite polystyrene, and Noryl PPO.
These selector packs come with one 2” square of acrylic, cast acrylic, cellulose, PETG, and polycarbonate.
One 2” square of PEEK, PFA, polyimide, Torlon PAI, and Ultem PEI is included in these selector packs.
Each selector pack includes one 2” square of FEP, polypropylene, PPS, PVC, CPVC, PVDF, and Teflon® PTFE.
Resistant to scratches and scuffs, mirrored acrylic is an economical alternative to mirrored polycarbonate.
Mirrored polycarbonate resists damage caused by impact.
A good all-around choice, Garolite G-10/FR4 is strong, machinable, and electrically insulating. It meets UL 94 V-0 for flame retardance.
These rectangular tubes are flame retardant, machinable, and electrically insulating.
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.
Garolite G-7 withstands temperatures up to 425° F—higher than any other grade of Garolite. While not as strong as Garolite G-9 sheets, these sheets and bars offer better arc resistance in dry environments and a higher level of electrical insulation.
These Garolite CE sheets and bars are often fabricated into parts where high strength is not required.
Graphite is added to this Garolite CE to provide a slippery surface that reduces friction and makes this material conductive.
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.
Easily turn these rectangular tubes into parts for transformers and switchgears using high-speed tooling.
Resisting heavy impacts and temperatures up to 500° F, these Garolite sheets are used in machinery such as turbine bearings and downpipe gaskets.
Stronger than Garolite CE with better electrical-insulating properties, Garolite XX is often fabricated into low-cost electrical components.
Rated for temperatures down to -415° F, this Garolite G-10 CR performs better in cryogenic applications than other glass epoxies.
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.
Frequently called electrical-grade Garolite, this Garolite G-9 is strong, electrically insulating, and arc resistant in dry environments.
Offering higher strength and better heat resistance than Garolite G-10/FR4, Garolite G-11 is suitable for continuous use in elevated temperatures.
Using nothing more than standard high-speed steel tooling, Garolite LE can be machined into intricate parts.
An alternative to wood in structural applications, FRP fiberglass is strong and lightweight.
Route and insulate wire using these square fiberglass tubes, which fit better along edges and around corners than round tubes.
Offering excellent arc and track resistance, this GPO3 fiberglass is often used for electrical applications in humid environments.
Made with a flame-retardant resin, this FRP fiberglass meets ASTM E84 Class A.
This FRP fiberglass is made with a chemical-resistant resin that stands up to harsh environments.
SG-200 fiberglass withstands temperatures up to 410° F—higher than any of our other fiberglass raw materials. It’s also stronger than FRP fiberglass and easy to machine.
With more than twice the heat tolerance of standard FRP fiberglass, this material withstands temperatures up to 370° F.
As a strong, lightweight, and buoyant alternative to solid panels, these aramid honeycomb cores are used to make interior wall panels and floor boards in marine, structural, and industrial applications.
With an aramid honeycomb core sandwiched between carbon fiber or fiberglass for rigidity, these panels are strong, but lightweight, and won’t conduct heat. Often used as wall panels in structural and insulating applications, they’re a lightweight alternative to solid composite and aluminum honeycomb panels.
Mount these lightweight tubes to flat surfaces in place of aluminum to create structural frames, 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.
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.
Almost as stiff as steel and a fraction of the weight, these carbon fiber sheets are often used for structural framing, machinery components, and robotics.
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.
Also known as Macor, these glass-mica ceramic sheets and bars withstand temperatures up to 1470° F.
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.
Pressed into ultra-dense sheets, these silicon-nitride ceramic sheets resist deforming, expanding, or cracking when compressed, bent, or exposed to quick temperature changes. They’re just as strong and fracture resistant as zirconia ceramic, and hold their strength and shape at higher temperatures.
Instead of using metal, use these zirconia ceramic sheets to make wear pads, guides, barriers, and other parts that must resist bending and wear while maintaining strength under heavy loads.
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.
Drill and mill precisely shaped heat sinks and other electronic components that require thermal stability.
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.
One of the few known materials that both draw heat away from hot spots and block electrical currents, aluminum nitride ceramic sheets are great for heat sinks and other electronic components.
Often used to create prototype components, these ceramic sheets come semi-fired so they can be machined using conventional metalworking tools.
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.
These sheets are often used as shelves and supports in unsealed kilns or as a lining in metal processing equipment. They withstand high heat without sacrificing strength, thermal shock resistance, and chemical resistance.
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.
This graphite is denser and slightly stronger than standard conductive graphite because it has a smaller grain.
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.
A stainless steel insert makes this material stronger than standard compressible graphite.
Often used in filtering, this brittle, glass-like carbon has pores that allow fluid and air to flow through.
This highly conductive graphene material is often used in electronic devices, such as cell phones, laptop computers, digital cameras, and LEDs.
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.
Wire reinforcement and an acrylic coating increase this glass's impact resistance. It's often used in doors.
This glass bends like plastic but is eight times harder—it’s harder than tooth enamel but softer than quartz.
Combining the transparency of glass with the high heat resistance of ceramic, glass ceramic withstands temperatures up to 1255° F and resists rapid temperature changes.
Made of aluminosilicate that’s been chemically strengthened, this glass handles more wear and tear than other glass before scratching, cracking, or chipping. It’s often seen on mobile devices and enclosure display windows.
Often seen on mobile devices, human-machine interfaces, and other frequently touched surfaces, this aluminosilicate glass has been chemically strengthened and treated to resist bacteria, mold, mildew, algae, and fungi.
Made of a blend of neoprene and EDPM, these foam sheets and strips resist water, sunlight, and oxidation.
In addition to having good resistance to water, sunlight, and oxidation, these neoprene foam sheets and strips resist swelling when they come into contact with oil.
Durable enough to be used in seat cushions, this flexible polyurethane foam provides gentle cushioning support.
Good for tough vacuum-sealing and low closure-force applications, these polyurethane foam sheets and strips have open/closed cells to keep water, air, and gases from being absorbed when they are compressed at least 25%. Even after extended compression, all bounce back to shape faster than other foams we offer.
Even after extended compression, these high-performance polyurethane foam sheets and strips bounce back to shape faster than any other foam we offer. Also known as Poron urethane, they also stand up to wear caused by rubbing and scraping.
When these sheets and strips are exposed to flames, the surface chars to create a protective barrier that prevents melting, dripping, and the possibility of spreading fire.
Often used for impact pads, gaskets, and enclosure seals, these polyurethane foam sheets and strips absorb shock better than other resilient foam.
Commonly called memory foam and Confor, these sheets and strips have the best cushioning qualities of all the foam we offer.
These dual-material foam sheets and strips have ultra-soft polyurethane foam on one side and chemical-resistant polyethylene foam on the other. They are widely used in packaging applications to absorb shock and damp vibration.
Often used as padding in helmets, gloves, and boots, this super-strong EVA foam absorbs shock and resists tearing better than other types of foam.
Exceptionally strong, this lightweight ionomer foam offers excellent resistance to impact, UV light, and water. It stands up to wear caused by rubbing and scraping and is often used on bumpers and buoys.
Made of FDA-listed materials, these polyethylene foam sheets are often used as packaging for food products to absorb shock and damp vibration.
These sheets and strips are made of cross-linked polyethylene, so they are stronger and more chemical resistant than other types of polyethylene foam.
Use these foam half rounds as a cushioning bumper.
Also called plucking foam, these scored foam sheets allow you to pull out individual cubes for custom-shaped packaging.
These sheets and strips will bounce back to shape, even after extended compression.
Silicone maintains its flexibility across a wide range of temperatures.
A thin layer of aluminized fiberglass on this silicone foam reflects heat to protect sensitive equipment.
Prevent the spread of flames with these self-extinguishing silicone foam sheets and strips.
Even after extended compression, these sheets and strips will bounce back to shape.
Seal and damp vibration around high-temperature food-service equipment with these silicone foam sheets and strips.
Offering excellent resistance to corrosive environments, these Viton® fluoroelastomer foam sheets and strips stand up to a wide variety of chemicals, fuels, and oils.
An economical alternative to Viton® fluoroelastomer foam, these semi-rigid nylon foam sheets offer good resistance to a wide range of chemicals.
Cushion electronic components from impact as you protect them from electrostatic shocks during shipping and storing.
Know at a glance when a tool is missing from a toolbox with this dual-color foam.
Similar to a sponge, this open-cell foam absorbs and holds up to 30 times its weight in liquid.
Protect electronic components from electrostatic shocks and chemicals while safeguarding them from bumps and drops during shipping and storing.
Create posts of varying lengths.
Create strong structures by welding this framing together. Add metal panels to close off openings.
Rails are drilled with consistently spaced holes for multiple mounting options that do not require machining. Use this steel bolt-together framing to build guards, tables, and racks.
Half the weight of steel, this aluminum framing resists corrosion in wet environments.
This polyurethane combines the shock absorbing qualities of rubber with the tear resistance of plastic. Use it for high-tension applications such as conveyor belts, as well as for high-wear applications such as cutting surfaces, bumpers, and liners.
These natural rubber sheets and strips will stretch up to six times their length. Use them in dynamic applications, such as vibration isolators and shock mounts.
Use in food-processing environments for cutting surfaces, liners, and other high-wear applications. These sheets and strips are FDA compliant for direct contact with food.
Commonly used for tires, conveyor belts, and chutes, SBR (styrene butadiene rubber) is harder and offers better abrasion resistance than natural rubber.
Even after repetitive compression, these super-soft sheets and strips maintain their cushioning ability. Use them to dampen noise and isolate vibration.
With a thin metal backing, these sheets are good for use in bumpers, wear pads, machinery mounts, and other applications where some structural support is needed.
With one layer of polyester fabric for every 1/16” of thickness, these sheets and strips maintain their size and shape under heavy compression better than the nonreinforced abrasion-resistant SBR.
Create a barrier against fire and smoke. These sheets and strips meet FAR 25.856 and UL 94 V-0 for flame retardance.
Commonly used in electronics applications, these sheets transfer heat better than any other silicone we offer.
Greater strength than standard High-Temperature Silicone translates into better shock-absorbing qualities and longer life.
These platinum-cured silicone rubber sheets and strips meet the strict purity standards of USP Class VI.
Filled with carbon black, these sheets won’t generate static charges and divert existing ones away from electronics. Use them as a conductor to protect components from static discharge.
Made of FDA-listed materials, these sheets and strips are for use with food.
One layer of fiberglass cloth is inserted between two layers of silicone rubber to give these sheets and strips the strength to stand up to high stress and flex. Use them as flange gaskets and anywhere heavy compression would squeeze nonreinforced silicone rubber out of place.
This rubber has better shock absorbing qualities and will provide longer life than Standard Multipurpose Neoprene.
Neoprene is also known as chloroprene. It offers good oil and abrasion resistance.
Meeting transportation industry standards for flames, smoke, and toxicity, these neoprene sheets and strips are used as cushioning pads in panels to reduce vibration and noise.
While other black rubber can leave a mark after use, these specially formulated neoprene sheets leave no evidence behind.
This neoprene dissipates static electrical charge, which can damage or cause equipment to malfunction.
Stronger and more durable than High-Strength Multipurpose Neoprene, this rubber can handle high-tension applications such as belting.
Made from FDA-listed materials for use with food.
These sheets and strips have one layer of cotton/polyester fabric for every 1/16" of thickness, so they maintain their size and shape under heavy compression better than the standard nonreinforced multipurpose neoprene. Use them as gaskets.
With one layer of nylon fabric for every 1/16” of thickness, these sheets have the strength to be used as flange gaskets, diaphragm packing, and anywhere heavy compression would squeeze nonreinforced neoprene out of place.
For every 1/4" of thickness there is one layer of super-strong fiberglass cloth that stands up to high stress and flex. Use these sheets as flange gaskets, diaphragm packing, and anywhere heavy compression would squeeze nonreinforced neoprene out of place.
Jackets, seals, and insulation are just a few of the many uses for rubber tubes.
Even when temperatures rise to 445° F, these Kalrez sheets are resistant to virtually all classes of chemicals.
With equal chemical resistance to Viton® fluoroelastomer, Aflas provides a stronger, steam-tolerant alternative.
Offering higher tensile strength than standard Chemical-Resistant Viton® Fluoroelastomer, these sheets and strips provide greater tear resistance and longer life.
Resistant to the chemicals that are commonly used to clean and sterilize food-processing equipment, these sheets and strips are made from FDA-listed materials for use with food and beverage.
Viton® fluoroelastomer stands up to tough chemicals, such as nitric acid, ethylene glycol, and isopropyl alcohol.
Temperatures as low as –70° F have no effect on these fluorosilicone sheets and strips.
Made from FDA-compliant materials for use with food and beverage, these sheets and strips won’t degrade from animal and vegetable oils.
The addition of vinyl make these sheets the strongest Food Industry Oil-Resistant rubber we offer. Use them for high-tension applications, such as belting. They’re made from FDA-listed materials for use with food and offer good resistance to animal and vegetable oils.
To maintain their size and shape under heavy compression, these sheets have one layer of nylon fabric for every 1/16” of thickness. Use them as flange gaskets and diaphragm packing.
Greater tensile strength than standard Food-Grade Oil-Resistant Buna-N rubber gives these sheets and strips better shock-absorbing qualities and longer life. They’re made from FDA-listed materials for use with food and beverage and offer good resistance to animal and vegetable oils.
With the greatest tensile strength of all our oil-resistant rubber, these super-strong Buna-N sheets and strips can handle high-tension applications, such as belting.
These sheets and strips offer better shock-absorbing qualities and longer life than standard Oil-Resistant Buna-N.
Buna-N rubber resists fuel oil, hydraulic oil, ethylene glycol, and grease.
Applications for these tubes include jackets, seals, and insulation.
Because these sheets and strips are made from peroxide-cured Buna-N rubber, they have better heat resistance than standard Oil-Resistant Buna-N rubber sheets and strips.
Sunlight, ozone, and water won’t affect these sheets and strips.
Often used as inner tubes, butyl rubber won’t allow air, fumes, or gases to pass through.
These EPDM sheets and strips meet transportation industry standards for flammability, smoke, and toxicity. Use them as weather-resistant seals on windows and doors, pads to reduce vibration between panels, and exterior trim.
With greater strength than standard Weather-Resistant EPDM, these sheets and strips provide better shock-absorbing qualities and longer life.
For every 1/16" of thickness, there is one layer of super-strong fiberglass cloth that stands up to high stress and flex. Use these sheets and strips as flange gaskets and anywhere heavy compression would squeeze nonreinforced EPDM out of place.
Made from FDA-listed materials for use with food and beverage, these EPDM sheets and strips can be used in steamy environments.
A cross between plastic and rubber, Santoprene offers good resistance to weather and chemicals while retaining its stretchability.
This shim stock is color coded by thickness for easy identification. Cut it into custom shapes to fit your application.
Cut this stock into custom shapes to fit your application.
Cut this shim stock into custom shapes to fit your application. Stock is made of layers of material bonded with adhesive; remove layers with a utility knife until you get the thickness you need.
These thick shims are scored to make size adjustments easy—break off the excess shim for a custom fit around fasteners or corners. Use them to align cabinets, doors, and windows, or for other rough leveling.
The textured surface of these thick shims keeps them from sliding apart when stacked. Use them to align cabinets, doors, and windows, or for other rough leveling.
Cut this stock to length to create the machine key you need. Straight keys, with a square or rectangular cross section, are the most common type of key. Install in a keyway to transmit torque from shafts to gears and other components.
Grind these hardened steel blanks to the size and shape you need.
No need to prepare this material before machining parts in dovetail vises—the dovetails and locating slots are already cut in.
Use this urethane foam for a variety of prototyping applications.
In addition to withstanding temperatures up to 400° F or 450° F, these silicone rubber gasket sheets resist water and salts.
Made of American Bureau of Shipping Fire Safe approved graphite material, these sheets withstand temperatures up to 650° F and pressure up to 2,000 psi.
Able to withstand pressure up to 10,000 psi, this is our highest pressure-rated gasket material. It handles temperatures up to 850° F.
This material withstands temperatures up to 850° F and pressure up to 2,000 psi.
Stronger and able to withstand higher pressures than other types of aramid/Buna-N.
Each assortment includes a variety of materials to meet your gasketing needs.
This material is made with neoprene for resistance to refrigerants.