We will reply to your message within an hour.
Combine these general purpose drive shafts with gears, sprockets, and bearings to transmit rotary motion.
Combine with a machine key to transmit torque to gears, sprockets, and other power transmission components.
These shafts have keyways only on the ends, leaving a plain shaft in the center. Use the keyways with machine keys to transmit torque to gears, sprockets, and other keyed components. Use the middle of the shaft with bearings and other round-bore components.
In addition to diameter tolerances that are twice as tight as standard keyed shafts, these shafts include a traceable lot number and test report. Use them with machine keys to transmit torque to gears, sprockets, and other power transmission components.
A flat surface area allows set screws to dig into the shaft for securely mounting gears, sprockets, and bearings.
Thread these shafts into a tapped hole to support idler sprockets and pulleys in tensioning applications.
Good for hydraulic systems, machine tools, and other high-torque applications, these shafts have teeth that transmit high rotational loads.
Combine these general purpose shafts with a linear bearing and shaft support to create a basic linear motion system.
Lighter than solid shafts, hollow shafts reduce your total system weight and allow you to run various media such as electrical wiring, compressed air tubing, coolants, or lubricants through the center.
Keep a material certificate on hand for compliance and quality assurance needs. Certificates include a traceable lot number and material test report. These hollow shafts reduce system weight and allow you to run various media such as electrical wiring, compressed air tubing, coolants, or lubricants through the center.
For your compliance and quality assurance needs, these shafts come with a material certificate with a traceable lot number.
For a snug fit with a linear bearing in high-precision applications, these shafts are turned, ground, and polished to tight diameter and straightness tolerances.
With 2" of each end softened, it's easier to machine a custom end for mounting. The rest of the shaft is case-hardened, which increases hardness and wear resistance on the surface of the shaft while allowing the center to remain soft for absorbing stresses caused by shifting loads.
Replace worn shafts in two-piece support-rail shaft systems, or mate with a support rail to create your own. The tapped mounting holes match those on our Support Rails.
These shafts include a support rail for a stable setup that eliminates bending and prevents linear bearings from rotating.
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.
These rods are precision ground and held to a strict straightness tolerance, so they're ready for turning in a lathe.
The matte plating on these rods increases corrosion resistance and wear resistance.
Ready for turning in a lathe, these rods are precision ground and held to a strict straightness tolerance.
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.
Often called Stressproof, these rods are stress-relieved to minimize warping during machining.
These rods are precision ground and held to a strict straightness tolerance, so they're all set for turning applications in your lathe.
Also known as Fatigueproof, these rods have enhanced strength and resistance to breaking from repeated impact compared to High-Strength Easy-to-Machine 1144 Carbon Steel Rods.
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.
1117 carbon steel responds to surface-hardening heat treatment better than other easy-to-machine carbon steels. Use it to fabricate shaft couplings, studs, pins, and universal joints.
Stronger than low-carbon steel with equally good machinability, 1045 carbon steel is widely used for bolts, studs, and shafts.
The chrome plating on these rods increases corrosion resistance.
These rods are hardened for increased abrasion and impact resistance. Also known as chrome-moly steel, 4140 alloy steel resists fracturing from repeated stress.
Ready for turning in your lathe, these rods are precision ground and held to a strict straightness tolerance.
Often called ETD-150, these rods are made from a modified version of 4140 alloy steel and have been drawn at high temperatures for excellent strength.
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.
Use for power transmission and structural applications that involve extreme impact, heat, and wear.
A modified version of 4340 alloy steel, 300M is used in applications that require high yield strength, such as torsion bars and drive shafts.
4130 alloy steel has a low carbon content that provides good weldability. It's often used for gears, fasteners, and structural applications.
Also known as chrome steel, 52100 is an extremely hard and wear-resistant material. It’s used for parts such as bearings, bushings, and punches.
The addition of lead gives 41L40 the best machinability of all the alloy steel we offer.
Often used for gears, shafts, and ball screws, 4150 alloy steel resists wear from friction and abrasion.
A vacuum arc remelting (VAR) casting process gives 9310 superior strength, hardness, and fatigue resistance over other types of alloy steel. It's often machined into heavy duty gears, clutch parts, and ratchets.
An oversized diameter allows for finishing to your exact requirements.
From cookware to chemical-processing equipment, 304 stainless steel is a good all-around choice for a wide range of applications.
This material has tighter tolerances than standard 304 stainless steel.
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+.
Widely used for fabricating fittings and fasteners, 303 stainless steel machines quickly without sticking to cutting tools.
This material has tighter tolerances than standard 303 stainless steel.
Offering outstanding resistance to surface wear and corrosion, Nitronic 60 stainless steel is often used for shafts, fasteners, and valves.
Each piece is precision ground to offer tighter tolerances than standard 17-4 PH stainless steel.
Hardened for improved strength and wear resistance, these rods are precision ground to a strict diameter tolerance. Use them for turning applications in your lathe.
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.
Offering outstanding strength, 15-5 PH stainless steel is often used for gears and shafts.
The addition of molybdenum gives 316 stainless steel excellent corrosion resistance. Use it in a variety of marine and chemical-processing applications.
This material is precision ground to offer tighter tolerances than standard 316 stainless steel.
This material machines faster with less wear on cutting tools than standard 316 stainless steel. It's also called Prodec and Project 70+.
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.
A high nickel content allows Alloy 20 stainless steel to stand up to harsh chemicals in caustic environments. It's also known as Carpenter 20.
Hardened for superior wear resistance, these rods are precision ground to a tight diameter tolerance so they’re ready for turning in a lathe.
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.
Precision ground to a tight diameter tolerance, these rods are all set for turning applications in a lathe.
Ready for turning in your lathe, these rods are precision ground to a tight tolerance.
One of the hardest types of stainless steel after heat treating, 440C offers excellent wear and abrasion resistance. It's often used for bearings, valves, and knife blades.
Often used for fasteners and valves, 410 stainless steel withstands wear caused by abrasion.
Suitable for making molds, 420 stainless steel is a hard, wear-resistant material that can be finely polished to a very smooth surface.
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.
The titanium content of 321 stainless steel preserves corrosion resistance around weld points.
Made from powdered metal, M4 tool steel has a consistent microstructure that gives it outstanding resistance to wear and abrasion. It is comparable to CPM Rex M4.
Ready for turning in a lathe, these rods are precision ground to a tight diameter tolerance.
Ground and held to strict diameter and straightness tolerances, these rods are ready to be turned in a lathe.
Precision ground and held to a strict straightness tolerance, these rods are ready for turning in your lathe.
Furnished hardened, P20 tool steel is strong and easy to machine. It has the wear resistance and highly polishable surface needed to fabricate long-lasting molds and dies.
All set for turning in your lathe, these precision-ground rods are held to a strict straightness tolerance.
The diameter on these rods is precision ground while the straightness is held to a strict tolerance, so they're ready for turning in a lathe.
An oversized diameter on these rods allows for finishing to your exact requirements.
Resistant to wear, abrasion, and chipping, A11 is a hard material that is often made into punches and stamping tools.
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 rods and discs are precision ground to offer tighter tolerances than standard 6061 rods and discs.
Choose between rods that are polished to a brushed finish or a mirror-like finish.
An anodized coating forms a bond with the aluminum surface to improve wear and corrosion resistance.
More corrosion resistant and easier to form than multipurpose 6061 aluminum, 6063 is primarily used for exterior railings, decorative trim, and door frames.
Frequently used to make valve bodies, pistons, and hydraulic parts, 6020 aluminum is easier to machine and more corrosion resistant than 6061, but it is not as weldable.
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.
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.
These rods are precision ground and held to a strict straightness tolerance, so they’re ready for turning in a lathe.
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.
Precision ground and held to a strict straightness tolerance, these rods are ready for turning in a lathe.
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.
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.
Also known as high-leaded naval brass, 485 brass contains lead for good machinability. It is commonly used for marine hardware, valve stems, and screw machine products.
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.
Diameter is oversized to allow for finishing.
These rods are precision ground for a tight diameter tolerance of ±0.0005".
Powdered bronze is pressed and then impregnated with SAE 30 oil to make this material self-lubricating.
An excellent alternative to oil-filled bronze, graphite-filled bronze provides dry lubrication in temperatures as high as 700° F.
Known for its ability to resist stress cracking and fatigue, 544 bronze also offers good formability and excellent machinability. It's commonly called phosphor bronze.
954 bronze contains a minimum of 10% aluminum for strength and weldability. It is also known as aluminum bronze. It's widely used for bearings, bushings, valve bodies, and worm gears.
An easier-to-machine alternative to 932 bronze, 936 also has better corrosion resistance. It's also called modified SAE 64.
Frequently called manganese brass, 863 bronze can handle heavy loads and high speeds when properly lubricated.
AMPCO® 18 is a premium aluminum-bronze alloy that combines strength with superior wear resistance.
Also known as leaded commercial bronze, 316 contains lead for good machinability.
The addition of nickel gives 630 bronze high strength. It is also called aluminum-nickel-bronze.
Because 510 bronze is very strong and formable, it is the best choice for applications involving repetitive motion, such as springs and bellows.
Commonly called silicon-bronze, 655 bronze contains more silicon than other bronze alloys, making it suitable for all types of welding.
For a good combination of strength, machinability, and weldability, choose 955 bronze.
A low-lead alternative to 316 bronze, 642 bronze is just as machinable with higher strength. It is also called aluminum-silicon-bronze.
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.
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.
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.
Also called tellurium copper, 145 copper contains tellurium, which makes it more machinable than all other copper while maintaining good corrosion resistance and high electrical conductivity. It’s often used for transformer and circuit-breaker terminals, welding torch tips, and fasteners.
Even though they have similar performance properties to beryllium copper, these copper rods don't require special machining techniques.
Rated RWMA Class 4, 172 beryllium copper is the strongest beryllium copper alloy that is also electrically conductive and extremely wear resistant. It’s often used in inserts, die facings, and molds for plastic that need to withstand stress over repeated use.
From fasteners to ferrules to fittings—machine these rods into parts that stand up to salt water. Made of copper nickel, also called cupro nickel, they resist rusting better than stainless steel.
These 17510 beryllium copper rods are not only conductive, but also non-sparking and non-magnetic, making them suitable for mines, oil rigs, and navigational tools.
Also known as chatter-free tungsten, this material is used for boring bars and grinding tools that dampen noise and vibration while machining.
This tungsten alloy is strong, corrosion resistant, and extremely dense. It’s dense enough to use as a lead alternative to shield from radiation, a vibration dampener in small spaces for equipment such as helicopter blades, and as crankshaft weights.
Use these rods for electrodes in the electrical-discharge machining of dense material, such as tungsten carbide—they’re 75% tungsten for wear and arc-erosion resistance and 25% copper for electrical and thermal conductivity. They’re also known as Elkonite rods.
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.
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.
Purer than Grade 5 titanium, these long-lasting rods resist fracturing from use even when cracked.
C-276 nickel has excellent corrosion resistance against chemicals, including nitric acid, sulfuric acid, and hydrochloric acid.
A blend of nickel, chromium, and molybdenum gives these 625 nickel rods 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.
Often used for cryogenic tanks and fasteners, these 718 nickel rods will maintain their high strength in temperatures from -300° to 1200° F, even after long-term exposure. They are comparable to Inconel 718.
Even in temperatures up to 2000° F, Alloy X nickel rods 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.
The strongest nickel rods we sell, hardening makes these ultra-strong 718 rods stronger.
This Alloy 22 nickel resists highly corrosive environments better than other nickel alloys such as 625 and C-276.
Cut and thread discs and other parts that draw corrosion away from nearby metal in water tanks, heat exchangers, and marine applications.
These molybdenum rods conduct both heat and electricity, and they won’t deform at high temperatures.
Also known as single-start and self-locking lead screws and nuts, these have a single thread that runs the length of the screw. The nut travels only when the screw turns, so your system won't unexpectedly move when the lead screw is at rest.
Multiple thread channels (also known as thread starts) create faster linear travel than lead screws with a single thread start.
Also known as trapezoidal-thread lead screws and nuts.
Found in hand-powered clamps, vises, grates, doors, and work tables, lead screws and nuts have broad, square threads that are well suited for quick assembly, high clamping forces, and lifting and lowering heavy objects.
Delrin® acetal resin, also known as acetal homopolymer, is stronger and stiffer than acetal copolymer.
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 PTFE provides a more slippery, wear-resistant surface than standard Delrin® acetal resin. It’s commonly fabricated into pump components, gears, and bearings.
An economical alternative to Delrin® acetal resin, this acetal copolymer offers similar wear resistance.
A silicone additive gives this material a self-lubricating surface that reduces friction and extends the life of your parts.
Also known as nylon 6/6, this general purpose material is often used for bearings, gears, valve seats, and other high-wear 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.
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.
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.
Use these cast nylon 6 rods to make sheaves, bushings, and pulleys. All withstand higher temperatures and are easier to machine than standard nylon 6/6 rods.
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.
This material suppresses static charges to prevent dust from building up.
Often used in high-speed, high-precision, and high-impact applications, such as conveyor rollers and bearings, these rods stand up to scratches and scuffs better than our standard UHMW polyethylene rods. Also known as Tivar HPV.
This oil-filled material is self-lubricating for an extra-slippery surface.
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.
Because this polypropylene resists swelling when exposed to water, it’s often fabricated into containers and parts for laboratory equipment.
Practically nonabsorbent, HDPE won't swell when exposed to moisture. It is denser and more rigid than LDPE, plus it's more chemical resistant.
Because ABS maintains its toughness even after thermoforming, it’s often made into storage cases, tote trays, equipment housings, and protective gear.
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.
Use Noryl PPO for electrical insulating applications where moisture is a concern. It remains dimensionally stable over time, even when temperatures fluctuate.
Often fabricated into signs, packaging, and light duty housings, polystyrene is easy to thermoform.
One of the softest and most flexible plastics we offer, LDPE is more formable than HDPE.
These black polyester rods 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 valves, pump components, and spacers.
When moisture-resistant polyester is combined with PTFE, the result is this self-lubricating material. It’s also called Hydex and PBT.
Polyester resists swelling in wet environments.
Known for its naturally slippery surface, PTFE surpasses most plastics when it comes to chemical resistance and performance in extreme temperatures.
This glass-filled PTFE is more rigid than standard PTFE for increased durability in high-stress applications.
Also called reprocessed and mechanical-grade PTFE, this material is an economical alternative to standard PTFE.
Manufactured from Rulon PTFE, a PTFE that's modified with filler material for a super-slippery, impact-resistant surface that resists wear.
Vespel® polyimide offers excellent strength, even at extreme temperatures.
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.
A glass filler is added to this this PEEK material to offer increased durability over standard PEEK in high-stress structural applications.
Often used for circuit-breaker housings, manifolds, and semiconductor components, Ultem PEI offers excellent electrical-insulating properties.
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.
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.
Use these Torlon 4203 rods instead of standard Torlon PAI to create parts that not only withstand extreme temperatures, but also are electrical insulators.
Stronger than PTFE, PVDF offers good chemical resistance. Comparable to Kynar and Solef, it’s widely used for pump parts, tank liners, and seals.
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.
Offering excellent resistance to shock, PPSU is frequently fabricated into vehicle parts and machine components that are subject to vibration. It withstands higher temperatures than polysulfone and can handle repeated autoclaving cycles.
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.
This extruded acrylic offers similar performance as cast acrylic at a lower cost.
Cast acrylic is easier to machine than extruded acrylic. It's comparable to Lucite and Plexiglas® Acrylic.
PETG can be formed into complex shapes without sacrificing durability.
A good all-around choice, Garolite G-10/FR4 is strong, machinable, and electrically insulating. It meets UL 94 V-0 for flame retardance.
Garolite CE is often fabricated into parts where high strength is not required.
Offering higher strength and better heat resistance than Garolite G-10/FR4, Garolite G-11 is suitable for continuous use in elevated temperatures.
Stronger than Garolite CE with better electrical-insulating properties, Garolite XX is often fabricated into low-cost electrical components.
Using nothing more than standard high-speed steel tooling, Garolite LE can be machined into intricate parts.
Choose these Garolite G-7 rods for their high heat tolerance—they withstand temperatures up to 425° F. While not as strong as Garolite G-9, they offer better arc resistance in dry environments.
An alternative to wood in structural applications, FRP fiberglass is strong and lightweight.
Offering excellent arc and track resistance, this GPO3 fiberglass is often used for electrical applications in humid environments.
Often used to create prototype components, these ceramic rods and discs come semi-fired so they can be machined using conventional metalworking tools.
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.
Machine these rods into nozzles for acids, pins or supports for kilns, and other parts that require extreme hardness when exposed to quick temperature changes and chemicals. This nitride-bonded silicon carbide is better at transferring heat than most ceramics and expands without cracking when temperatures fluctuate.
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.
Also known as Macor, these glass-mica ceramic rods withstand temperatures up to 1470° F.