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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.
Combine these general purpose drive shafts with gears, sprockets, and bearings to transmit rotary motion.
Eight times straighter than standard rotary shafts, these tight-tolerance shafts minimize vibrations and reduce wear to bearings and other components. They also have diameter tolerances that are twice as tight as standard rotary shafts.
A flat surface area allows set screws to dig into the shaft for securely mounting gears, sprockets, and bearings.
Connect these internally threaded shafts directly to threaded components, or use a fastener to secure. They have a flat surface area that allows set screws to dig into the shaft for securely mounting gears, sprockets, and bearings.
Mount the flange to a machine or wall to support idler sprockets and pulleys in tensioning applications. They include washers and a nut to position your component and hold it in place.
Thread these shafts into a tapped hole to support idler sprockets and pulleys in tensioning applications. They have a retaining-ring groove, retaining ring, and spacers to position your component and hold it in place.
Good for hydraulic systems, machine tools, and other high-torque applications, these shafts have teeth that transmit high rotational loads.
Clip retaining rings into the grooves to separate and position gears, sprockets, and bearings.
A shoulder near the end of the shaft provides a stop for gears, sprockets, and bearings.
Attach threaded accessories, such as mixer propellers and fan blades, to the end of these shafts.
The diameter of these shafts is slightly smaller than listed, so precision ball bearings (ABEC-3 and above) slide on without any tools.
Connect these internally threaded shafts directly to threaded components, or use a fastener to secure.
Install these shaft covers on gear boxes, face-mount motors, and other areas where rotating shafts are exposed to protect the shaft from debris and prevent injury. When installed properly, they help comply with ANSI B11.19-2010 machinery guard standards.
Combine these general purpose shafts with a linear bearing and shaft support to create a basic linear motion system.
Internal threads allow you to mount these shafts onto threaded studs and fasteners, no shaft supports needed.
Mount these externally threaded shafts into tapped holes rather than using a shaft support, or attach a hex nut, shaft collar, or other threaded accessory.
For your compliance and quality assurance needs, these shafts come with a material certificate with a traceable lot number.
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 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.
Made with two pieces, these shaft supports secure your shaft parallel to your mounting surface and make it easy to access the shaft without having to slide it out or uninstall the support. Use these supports when working with light to medium loads where shaft alignment is not critical.
Slide the shaft in to install, then tighten to secure. For use with light to medium loads where shaft alignment is not critical, these shaft supports brace the end of a linear shaft along the ground or other flat surface.
Create a support that fits the exact dimensions of your shaft to brace it along a flat surface. Good for use with square- and hex-profile shafts, these aluminum supports also work with round shafts of any diameter up to 1". Use them for light-to-medium-load linear motion applications where shaft alignment is not critical.
Secure two linear motion shafts parallel to each other and the mounting surface to build a system that moves smoothly and doesn’t bind.
These shaft supports hold linear shafts perpendicular to the mounting surface.
A removable collar allows access to the shaft without unbolting the flange. For use with light to medium loads where shaft alignment is not critical, these supports allow you to hold linear shafts perpendicular to the mounting surface. Secure the shaft by tightening the clamping screw.
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.
At approximately one-third the height of standard versions, these rails provide linear shaft support in applications with low vertical clearance. They provide stability over the entire length of shaft, allow virtually unlimited travel lengths, and eliminate bending under moderate to heavy loads.
Position shafts an inch or two off the ground to maintain bearing and part clearance. Support rails provide stability over the entire length of shaft, allowing virtually unlimited travel lengths and eliminating bending under moderate to heavy loads.
Create a compact linear and rotary motion system for applications requiring complex, fast movements, such as robotics.
From one compact system, transmit linear or rotary motion or both at once (sometimes called spiral motion). Because of these different motions, these ball screw/splines and bearings create efficient, fluid movements in complex automated applications, such as pick-and-place robots.
Often used in wet and dirty environments, these sleeve splines and bearings create a compact linear and rotary motion system.
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.
These rods are zinc galvanized for good corrosion resistance.
Coated with PVC for corrosion resistance, this carbon steel wire will stand up to outdoor use.
Also known as black-annealed wire.
This wire is zinc galvanized for good corrosion 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.
Precision ground and held to a strict tightness tolerance, these rods are ready for turning in a lathe.
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 same steel used in automobile bodies, this AHSS (advanced 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.
Ready for turning in your lathe, these rods are precision ground and held to a strict straightness tolerance.
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.
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.
These hex bars are hardened for increased abrasion and impact resistance. They are also stress relieved to reduce the chance of warping during machining.
Also known as chrome-moly steel, this versatile 4140 alloy steel is used for a wide range of parts, such as axles, shafts, collets, and die holders. It resists fracturing from repeated stress.
4130 alloy steel has a low carbon content that provides good weldability. It's often used for gears, fasteners, and structural applications.
4130 alloy steel has a low carbon content that provides good weldability. It's often used for 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.
Also known as chrome steel, 52100 is an extremely hard and wear-resistant material. This wire is often used for small-diameter bearings, bushings, and punches.
Easier to machine than 52100 alloy steel rods, these extremely hard and wear-resistant tubes are often used to create bearings, bushings, and other cylindrical parts that are under constant stress. They’re also known as chrome steel.
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.
While the low carbon content makes 8620 alloy steel easy-to-weld, it's the nickel, chromium, and molybdenum content that provides wear resistance.
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.
Offering excellent resistance to cracking from impact and compression, C300 alloy steel is often used for dies and tooling. It is also known as maraging steel and VascoMax.
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.
Precision ground to a tight diameter tolerance, these rods are ready for turning in your lathe.
Gray cast iron machines faster with less wear on cutting tools than most types of steel. It's often fabricated into gears, pulleys, rollers, and bushings.
Ductile cast iron is strong, resilient, and able to handle repeated stress without breaking.
With a high amount of ferrite, these cast iron rods are easier to machine without cracking than other impact-resistant ductile cast iron rods. Use them to create bushings, gears, pulleys, and pistons.
This wire is coated with oil for corrosion resistance and lubricity. Use it for bundling and as tag wire.
Also known as music wire.
Always have the right size wire on hand with a 72-piece assortment.
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+.
This wire bounces back after bending. It’s often used to construct springs and wire rope.
Polished to either a brushed or mirror-like finish, this material is often used to fabricate decorative enclosures and industrial workstations.
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.
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.
When bent, this wire will stay in place. It's widely used as tying and locking wire.
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.
Also known as Project 70+, this material machines faster with less wear on cutting tools than standard 17-4 PH stainless steel.
Offering outstanding strength, 15-5 PH stainless steel is often used for gears and shafts.
Widely used to fabricate fasteners and engine components, A286 will maintain its strength as temperatures rise.
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 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.
These rods have been passivated for enhanced corrosion resistance.
This material machines faster with less wear on cutting tools than standard 316 stainless steel. It's also called Prodec and Project 70+.
Bend this wire and it will stay in place. It's widely used as tying and locking wire.
This wire will spring back after bending. It's often used to make springs and wire rope.
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.
Stronger and more corrosion resistant than 316 stainless steel, Nitronic 50 is especially well-suited for use as shafts and fixtures in marine 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.
With a diameter that’s held to a close tolerance, this material is hardened for increased wear and abrasion resistance.
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.
Bend this wire and it will stay in place. It's commonly used as tying and locking wire.
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.
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 rods, also known as drill blanks, have an undersized diameter for machining your own jobbers'-length drill bits.
These rod sets are supplied in a metal index case with fold-out panels.
Also known as reamer blanks, these rods are hardened for increased abrasion and impact resistance.
Ready for turning in a lathe, these precision-ground rods have a tight diameter tolerance and are held to a strict straightness tolerance.
Also known as cobalt steel, this M42 tool steel maintains its hardness in high-speed cutting applications that generate intense heat. Use it to make tools for cutting extremely hard materials.
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.
Hardened for increased abrasion and impact resistance, these precision-ground rods have a tight diameter tolerance and are ready for turning in your lathe.
Precision ground and held to a strict straightness tolerance, these rods are ready for turning in your lathe.
Hardened for increased abrasion and impact resistance, these rods are precision ground with a tight diameter tolerance.
Ground and held to strict diameter and straightness tolerances, these rods are ready to be turned in a lathe.
All set for turning in your lathe, these precision-ground rods are held to a strict straightness tolerance.
An oversized diameter on these rods allows for finishing to your exact requirements.
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.
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.
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.
The matte plating on these rods, sometimes called industrial chrome and hard chrome, creates a slippery surface that minimizes galling and prevents parts from seizing.
A hard-anodized coating forms a bond with the aluminum surface to improve wear and corrosion resistance.
Polished on the outside to a #8 reflective, mirror-like finish, these tubes have no visible grain lines.
An anodized coating forms a bond to the inside, outside, and ends of these tubes 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.
The outside of these tubes is anodized to improve wear and corrosion resistance.
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.
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.
These rods are precision ground and held to a strict straightness tolerance, so they’re 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.
Precision ground and held to a strict straightness tolerance, these rods are ready for turning in a lathe.
MIC6 is cast from a high-strength 7000-series aluminum, then stress relieved to maintain dimensional stability during high-speed machining.
3003 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, and general sheet metal work.
These tubes are sized so that each tube fits into the next larger size.
This wire has a soft temper and will stay in place when bent.
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.
5086 aluminum is used on ships, oil rigs, tanks, and pressure vessels because of its excellent saltwater resistance and formability.
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.
The diameter of these rods is held to a ±0.0002" tolerance.
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.
The most formable brass we offer, 260 offers better weldability than 300 series brass but it’s not as machinable. 260 brass is sometimes called cartridge brass. This wire has a soft temper and stays in place when bent.
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.
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.
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.
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.
Offering the highest yield strength of all our brass, 330 has a low lead content for a good balance of machinability and formability. It's used for fire station poles, pump cylinder lines, and plumbing accessories.
Diameter is oversized to allow for finishing.
These rods are precision ground for a tight diameter tolerance of ±0.0005".
Offering excellent antifriction qualities, 932 bronze also offers good strength and wear resistance. It's also known as SAE 660 and is often used for bearings, bushings, and thrust washers.
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.
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.
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. The strength of this material increases with heat treating.
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.
An easier-to-machine alternative to 932 bronze, 936 also has better corrosion resistance. It's also called modified SAE 64.
AMPCO® 18 is a premium aluminum-bronze alloy that combines strength with superior wear resistance.
Frequently called manganese brass, 863 bronze can handle heavy loads and high speeds when properly lubricated.
Because 510 bronze is very strong and formable, it is the best choice for applications involving repetitive motion, such as springs and bellows.
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.
A low-lead alternative to 316 bronze, 642 bronze is just as machinable with higher strength. It is also called aluminum-silicon-bronze.
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.
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.
This wire is polished to a mirror-like finish.
The tin coating provides a higher level of corrosion resistance and makes it easier to solder than Mirror-Like Multipurpose 110 Copper Wire.
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.
A thin layer of titanium is bonded to these copper rods for long life and dimensional stability in corrosive environments.
With the addition of lead, this beryllium copper alloy forms small chips that won’t clog machines when it’s drilled or cut, so it is ideal for automated production lines.
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.
Often used to make bearings and couplings in tough transportation, oil- and gas-drilling, and marine industries, these rods resist fatigue and corrosion. Also known as ToughMet™ 3 rods.
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.
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.
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.
The addition of phosphorus makes 122 copper easier to weld and braze than 110 copper. It has excellent resistance to corrosion caused by water, soil, and weather, making it the go-to material for plumbing and underground applications.
This copper wire is clad in nickel to provide excellent corrosion resistance at temperatures up to 1200° F while maintaining high electrical conductivity.
Commonly used in water treatment plants, these tubes withstand salt water and can be used to make shims, ferrules, and washers.
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.
Even though they have similar performance properties to beryllium copper, these copper rods don't require special machining techniques.
Also known as chatter-free tungsten, this material is used for boring bars and grinding tools that dampen noise and vibration while machining.
This wire will spring back after bending. It's often used in heating and electrical applications.
Ultra dense for use as electrodes, furnace support pillars, and screws and bolts, these chemically pure tungsten rods withstand greater heat than other high-temperature metal, such as molybdenum.
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.
This high-density tungsten alloy is thermally conductive, so it dissipates heat quickly without deforming at high temperatures.
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.
Bend this wire and it will stay in place.
These titanium rods are the strongest of the commercially pure titanium alloys, Grades 1 through 4, and resist corrosion better than Grade 5 titanium. However, they’re not as strong as Grade 5, and they won’t bend or form as easily as lower grades.
Purer than Grade 5 titanium, these long-lasting rods resist fracturing from use even when cracked.
Grade 9 titanium has less aluminum and vanadium than Grade 5, so it's easier to weld but not as strong.
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.
This nickel-chromium, often called Chromel C, provides effortless formability. Use it for heating elements, resistance windings, and hot-wire cutters.
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.
Commonly used for eyeglass frames and antennas, this wire bounces back to its original shape after bending, stretching, and twisting.
Bend this wire and it will hold its shape until you heat it. It is commonly used in automotive switches and latches.
These nickel-iron-cobalt alloy rods 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.
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.
Able to withstand temperatures up to 1000° F, 600 nickel is often used as safety lock wire in high-temperature applications. It is comparable to Inconel.
C-276 nickel has excellent corrosion resistance against chemicals, including nitric acid, sulfuric acid, and hydrochloric acid.
From marine hardware to chemical-processing equipment, 400 nickel rods 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.
Because Invar 36 holds its size and shape when temperatures rise, these nickel-iron alloy rods 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.
Bend this wire and it will stay in place. It is often used as safety lock wire.
200 nickel rods 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.
Containing titanium and aluminum for added hardness, K500 nickel has double the yield strength of 400 nickel, with the same excellent corrosion resistance.
This Alloy 22 nickel resists highly corrosive environments better than other nickel alloys such as 625 and C-276.
Also known as Haynes 6B, alloy 6B, and Stellite® 6B, Cobalt 6 is a tough and wear-resistant cobalt alloy. With a wrought material structure, it withstands rapid changes in temperature, resists abrasion, and is four times as impact resistant as other cast materials made from the same chemicals.
The vinyl coating prevents lead from leaving marks on surfaces.
Use these cast-lead discs as spacers, washers, and counterbalances.
Cut and thread discs and other parts that draw corrosion away from nearby metal in water tanks, heat exchangers, and marine applications.
Used to make electrical connectors that are exposed to air and corrosive conditions, this 99.99% pure gold wire remains highly conductive where other conductors would fail.
These molybdenum rods conduct both heat and electricity, and they won’t deform at high temperatures.
Able to handle high melting points and conduct heat and electricity, this 99.95% pure molybdenum wire is often used in lights to create a support for filaments.
Containing zirconium and titanium for additional strength in extreme temperatures, these rods are commonly used in vacuum furnaces and other high-stress environments.
99.95% pure, this platinum wire is used for applications that require a soft material that resists corrosion and oxidation and has a high melting point.
Harder than platinum and able to withstand higher temperatures than gold, this 99.98% pure tantalum wire also resists corrosion and conducts heat. It’s often used in heating elements for furnaces.
Use these metal dowel pins as pivots, hinges, shafts, jigs, and fixtures to locate or hold parts.
Plastic pins are a nonconductive and nonmagnetic alternative to metal dowel pins. Use them as pivots, hinges, shafts, jigs, and fixtures to locate or hold parts.
Slip these pins in and out during maintenance or prototyping—they’re undersized to make alignment easier.
Cut this 12" stock to the length you need.
Oversized to fit worn and enlarged holes, these pins work well as repair and replacement parts.
The flat side of these pins relieves trapped air, making them easier to insert in and remove from blind holes. To remove, thread a screw or tool into the tapped hole, then pull the pin out.
To remove these pins, thread a screw or tool into the tapped hole, then pull them out.
A spiral groove cut into these pins relieves trapped air but stays in 360° contact with the hole for a secure fit that's easy to insert in and remove from blind holes. To remove, thread a screw or tool into the tapped hole, then pull the pin out.
These pins make good hinges or pivots. The grooved half locks pins in position, while the smooth half can act as a pivot. Also known as type H pins.
Center-groove pins are often used in place of clevis pins or to create T-handles. The grooved center locks pins in position, while the smooth ends act as a pivot. Also known as type E pins.
These pins are commonly used as anchors for tension springs. The grooved half locks pins in position, and spring ends fit in to the notch. Also known as type G pins.
Grooves run the full length of these pins for a firm hold that won't spin. Use them in place of standard dowel, spring, and taper pins to fasten parts. Also known as type A pins.
Grooves hold these pins in place, and a round head gives them a finished appearance.
Quarter-groove pins are well suited for hinges or pivots. The grooved end locks pins in position, while the smooth portion can act as a pivot. Also known as type C pins.
The full length of these pins is knurled for a tight grip that won't spin.
Center-knurled pins are often used in place of clevis pins or to create T-handles. The knurled center locks pins in position, while the smooth ends act as a pivot.
Use these as pivot or hinge pins. The knurled half locks pins in position, while the smooth half acts as a pivot.
Join two pieces of wood with these dowel pins. When glued, they expand for a tight fit.
Pass wires and other components through these hollow pins.
Use these pins to fasten components made of soft materials such as plastic or aluminum. Opposing barbs bite into each piece, pulling them together for a tight, secure fit.
Barbs bite into plastics and soft metals such as aluminum for a strong hold, and a round head gives a finished appearance.
Comparable to Grade 8 steel, these threaded rods have a tensile strength of 150,000 psi, making them about 25% stronger than medium-strength steel rods.
These Class 10.9 steel threaded rods are about 25% stronger than medium-strength steel rods.
Class 12.9 rods are about 20% stronger than Class 10.9 threaded rods and are for use in heavy machinery.
Grade B7, these threaded rods have a tensile strength about one and a half times stronger than low-strength steel rods. They meet the pressure and temperature requirements of ASTM A193 and are often used to secure pressure tanks, valves, and flanges.
Made of Grade B7 steel, the tensile strength of these threaded rods is one and a half times higher than low-strength steel threaded rods. They also meet the pressure and temperature requirements of ASTM A193 and are often used to secure pressure tanks, valves, and flanges.
The tensile strength of these metric Grade B7 rods is about one and a half times higher than low-strength steel rods.
Drive and secure these threaded rods on both ends with the included nuts. They’re Grade B7, so their tensile strength is about one and half times higher than low-strength steel rods.
Tighten these threaded rods by turning them to the left; once fastened, they resist loosening from counterclockwise motion. Made from Grade B7 steel, their tensile strength is one and a half times higher than low-strength steel rods.
An economical alternative to Grade B7 and Grade B16 threaded rods, these metric Class 8.8 rods are suitable for fastening most machinery and equipment.
Grade B16 threaded rods maintain their strength at higher temperatures than Grade B7 threaded rods. They meet the pressure and temperature requirements of ASTM A193 and are often used to secure pressure tanks, valves, and flanges.
About half the strength of medium-strength steel threaded rods, use these for light duty hanging, mounting, and fastening.
These metric threaded rods are about half the strength of medium-strength steel threaded rods for light duty hanging, mounting, and fastening.
About half the strength of medium-strength steel threaded rods, use these metric fine-thread rods for light duty hanging, mounting, and fastening.
These metric threaded rods tighten when turned to the left; once fastened, they resist loosening from counterclockwise motion. About half the strength of medium-strength steel threaded rods, use them for light duty hanging, mounting, and fastening.
Tighten these threaded rods by turning them to the left; once fastened, they resist loosening from counterclockwise motion. About half the strength of medium-strength steel threaded rods, use them for light duty hanging, mounting, and fastening.
18-8 stainless steel threaded rods have good chemical resistance.
Available in metric sizes, these 18-8 stainless steel threaded rods have good chemical resistance.
Tighten these threaded rods by turning them to the left; once fastened, they resist loosening from counterclockwise motion.
Grade B8 threaded rods meet the pressure and temperature requirements of ASTM A193 and are often used to secure pressure tanks, valves, and flanges. They have good chemical resistance.
Stronger and more wear resistant than 18-8 stainless steel, these threaded rods are mildly chemical resistant. They meet the pressure and temperature requirements of ASTM A193 and are often used to secure pressure tanks, valves, and flanges.
More corrosion resistant than 18-8 and 410 stainless steel threaded rods, these 316 stainless steel rods have excellent resistance to chemicals and salt water.
These metric 316 stainless steel threaded rods are more corrosion resistant than 18-8 and 410 stainless steel threaded rods and have excellent resistance to chemicals and salt water.
Grade B8M threaded rods meet the pressure and temperature requirements of ASTM A193 and are often used to secure pressure tanks, valves, and flanges.
These hardened 316 stainless steel threaded rods are 40% stronger than standard Grade B8M threaded rods. They meet the pressure and temperature requirements of ASTM A193 and are often used to secure pressure tanks, valves, and flanges.
The most corrosion resistant stainless steel threaded rods we offer, these Alloy 20 stainless steel threaded rods contain nickel to withstand exposure to sulfuric, phosphoric, and nitric acids.
Made from nylon 6/6, these threaded rods resist oil, grease, and solvents. They’re nonconductive, making them good for use around sensitive electrical components.
These metric threaded rods are made from nylon 6/6 and resist oil, grease, and solvents. They’re nonconductive, making them good for use around sensitive electrical components.
Fiberglass threaded rods are stronger than nylon threaded rods. They resist acids, solvents, salt water, and oil.
Unlike metal rods, these metric threaded rods will not warp at extreme temperatures, making them ideal for heat treating and furnace fixtures.
Unlike metal rods, these threaded rods will not warp at extreme temperatures, making them ideal for heat treating and furnace fixtures.
PVC threaded rods resist acids, alkalies, salt solutions, and alcohol.
PTFE threaded rods withstand temperatures up to 250° F and resist oil, grease, detergents, and most mineral acids. They're the lowest friction plastic threaded rods we offer, so they thread on smoothly.
These acetal threaded rods won't absorb moisture like nylon and fiberglass rods, so they're good for use in wet environments. They resist alcohol, gasoline, and solvents.
Brass threaded rods are corrosion resistant in wet environments, electrically conductive, and nonmagnetic.
These metric brass threaded rods are corrosion resistant in wet environments, electrically conductive, and nonmagnetic.
One-third the weight of steel, aluminum threaded rods resist corrosion in wet environments.
Titanium threaded rods have a high strength-to-weight ratio and are resistant to acids and salt water.
Bronze threaded rods are stronger and more resistant to salt water than brass rods.
More corrosion resistant than 400 nickel threaded rods, these C276 nickel rods are often used in marine environments and chemical-processing plants.
Commonly used in valves, pumps, and shafts, these 400 nickel threaded rods resist salt water and caustic chemicals.
Ideal for environments that require frequent cleaning, such as food and pharmaceutical manufacturing, these rods have a removable cover that protects their threads from dirt and grime.
A hex drive on one end allows these rods to be turned with a hex key for ease of installation.
Screw these studs into a tapped hole and use them as a pivot point, hinge, shaft, or locator pin.
Screw the threaded end of these metric studs into a tapped hole and use the unthreaded end as a pivot point, hinge, shaft, or locator pin.
Also known as hood pins, these studs have a cotter pin lodged through a drilled hole in the unthreaded portion for light duty holding, such as securing access panels and locking other fasteners.
Known as setup studs, these studs withstand sideways forces better than fully threaded studs because they have a strong unthreaded middle.
Also known as setup studs, these studs withstand sideways forces better than fully threaded studs because they have an unthreaded middle that is stronger than the treaded ends.
Also known as tap-end, fixture, and setup studs, these studs have Class 5 friction-fit threads on one end to resist loosening and Class 2A standard threads on the other end for attaching a nut.
Also known as tap-end, fixture, and setup studs, these studs have Class SK6 friction-fit threads on one end to resist loosening and Class 6g standard threads on the other end for attaching a nut.
The shoulder’s diameter is slightly smaller than listed, so these studs fit most machinery and equipment.
These steel studs are zinc plated to resist corrosion in wet environments.
18-8 stainless steel studs have good chemical resistance.
These studs are also known as hanger bolts—use them to hang, mount, and fasten parts to wood structures.
These metric 316 stainless steel studs have excellent resistance to chemicals and salt water. Also known as hanger bolts, use them to hang, mount, and fasten parts to wood structures.
18-8 stainless steel studs have good chemical resistance and may be mildly magnetic. Also known as hanger bolts, use them to hang, mount, and fasten parts to wood structures.
Turn these studs with a hex key for ease of installation.
Pass these studs through a hole and weld them in place.
These studs have good chemical resistance. Weld them to stainless steel surfaces.
Weld these studs to uncoated steel surfaces.
A hollow center allows these studs to be used as an axle, a vent, or a passageway for wiring.
Connect and separate threaded rods, studs, and other components. These hollow rods have internal threads on both ends, so you can make connections and still pass wiring and other objects through the center of the rod.
316 stainless steel studs have excellent resistance to chemicals and salt water.
Stick these studs to nearly any surface for a strong bond and a watertight seal.
Also known as dowel screws, use these to join two pieces of wood.
Add a stud to thin material when you only have access to one side.
Dowel pins are commonly used as pivots, hinges, shafts, jigs, and fixtures to locate or hold parts. They're slightly oversized for a tight fit.
Designed for use with right-hand, internally threaded rod ends, these rods have right-hand threads on both ends. Use them for remote valve operators, throttle controllers, shifting mechanisms, and virtually any push/pull assembly.
Designed for use with right-hand, externally threaded rod ends, these rods have right-hand threads on both ends. Use them for remote valve operators, throttle controllers, shifting mechanisms, and virtually any push/pull assembly.
Similar to turnbuckles, these rods have right-hand threads on one end and left-hand threads on the other so you can make a linkage that adjusts for tension. Add right- and left-hand threaded rod ends to build your linkages.
Similar to turnbuckles, these rods have right-hand threads on one end and left-hand threads on the other so you can make a linkage that adjusts for tension.
Multiple thread channels (also known as thread starts) create faster linear travel than lead screws with a single thread start.
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.
Combine with an externally threaded acme nut to create a custom flange nut.
Also known as trapezoidal-thread lead screws and nuts.
Internal ball bearings provide smooth low-friction travel in applications that require high speeds, accurate positioning, and repeatable movement. Also known as single-start metric ball screws and nuts, these have a single thread that runs the length of the screw.
Also known as single-start ball screws and nuts, these have a single thread that runs the length of the screw. They operate with more torque than fast-travel ball screws and nuts.
Multiple thread channels (also known as thread starts) create faster linear travel than ball screws with a single thread start.
Keep your ball screw spinning without the ball nut damaging your system. When the ball nut reaches the stop pin at either end of the ball screw, it disengages and begins to idle.
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.
These metric lead screws and nuts have broad, square threads that are well suited for quick assembly, high clamping forces, and lifting and lowering heavy objects. They're commonly found in hand-powered clamps, vises, grates, doors, and work tables.
A set of ball bearings reduces friction and secures the end of a ball or lead screw.
A set of ball bearings reduces friction and secures the end of a metric ball or lead screw.
A crisscross thread pattern allows you to drive the nut back and forth without changing the lead screw's direction of rotation. When the nut reaches one end of the lead screw, it changes direction and travels back to the other end.
Install these nuts on a rotary shaft to create a linear positioning system without a lead screw. Instead of threads, a set of angled ball bearings drives the nut along a shaft as it spins.
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.
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.
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.
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.
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.
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.
A good choice for making sprockets and pulleys, these cast nylon 6 tubes withstand higher temperatures and are easier to machine than standard nylon 6/6 tubes.
This cast nylon 6 material is easier to machine than other types of nylon. It’s comparable to Nylatron and Nycast.
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.
The addition of MDS results in a nylon with exceptional wear resistance as well as self-lubricating properties.
The addition of MDS gives these tubes exceptional wear resistance along with a self-lubricating surface. They're made of cast nylon 6, making them easier to machine and better electrical insulators than other MDS-filled nylon tubes.
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.
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.
If a chip of this material breaks off, it can be located by metal detectors to reduce contamination risks.
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.
CPVC is just as chemical resistant as standard PVC Type 1 and can handle hotter temperatures up to 200° F.
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.
Because this polypropylene resists swelling when exposed to water, it’s often fabricated into containers and parts for laboratory equipment.
Because ABS maintains its toughness even after thermoforming, it’s often made into storage cases, tote trays, equipment housings, and protective gear.
Practically nonabsorbent, HDPE won't swell when exposed to moisture. It is denser and more rigid than LDPE, plus it's more chemical resistant.
Polyester resists swelling in wet environments.
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.
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.
Often fabricated into signs, packaging, and light duty housings, polystyrene is easy to thermoform.
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.
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.
Known for its naturally slippery surface, PTFE surpasses most plastics when it comes to chemical resistance and performance in extreme temperatures.
Also called reprocessed and mechanical-grade PTFE, this material is an economical alternative to standard PTFE.
This glass-filled PTFE is more rigid than standard PTFE for increased durability in high-stress applications.