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Use these corrosion-resistant fittings in a low-pressure pipe line.
Also known as Pressure Class 150 flanges, these corrosion-resistant flanges are designed for low-pressure pipe applications.
The male threads on these fittings have a sealant applied for extra leak protection.
These fittings are made to tighter tolerances than other stainless steel pipe fittings. They are also known as instrumentation fittings.
Use these fittings in extreme-pressure conditions up to 15,000 psi.
Use these heavy duty, corrosion-resistant fittings in high-pressure flow applications.
Typically used with medium- to high-pressure stainless steel threaded pipe fittings.
Choose these fittings when you want the same high-quality found in our low-pressure pipe fittings, but need more strength to handle higher pressures.
When space is at a premium choose these compact fittings.
Butt-weld fittings allow for a smooth, flush connection that provides maximum flow.
Bolt two same-size flanges together with a gasket to create an access point within a pipe line.
Press these fittings onto stainless steel pipe using a crimping tool for a permanent, leak-tight connection that's faster than threading or welding and doesn't require heat.
Also known as Schedule 10 fittings, these are thin, lightweight, and corrosion resistant.
Socket-connect fittings are easier to weld than butt-weld fittings because the fitting doesn't need to align perfectly to the pipe. Slip the pipe into the socket and weld.
Use these fittings for low-pressure applications in noncorrosive environments.
These flanges are for low-pressure applications in noncorrosive environments.
The galvanized finish on these fittings provides fair corrosion resistance. Fittings are for use in low-pressure applications.
These fittings can stand up to high-pressure applications. Use them in noncorrosive environments.
A galvanized finish gives these fittings better corrosion resistance than our plain steel high-pressure fittings. Also known as Pressure Class 3000 fittings.
Typically used with medium-pressure galvanized iron and steel threaded pipe fittings. Also known as Schedule 80.
A galvanized finish gives these fittings fair corrosion resistance. They have the strength to handle medium-pressure applications.
For use in noncorrosive environments, these fittings have better strength than our low-pressure iron and steel pipe fittings.
These fittings are strong enough to handle extreme pressures, yet small enough to fit into cramped spaces.
Made to tighter tolerances than other steel pipe fittings, these are also known as instrumentation fittings.
Crimp these fittings onto steel pipe to form a tightly sealed connection that’s faster than threading or welding and doesn’t require heat.
Socket-connect fittings are easier to weld than butt-weld fittings because the fitting doesn't need to align perfectly to the pipe. Slide the pipe into the socket and weld.
Bolt the flanged end of these fittings to another same-size flange, pump, or valve with a gasket to create an access point in a pipe line.
The grooved ends on these iron fittings connect to pipe with a clamp to easily install piping systems.
Also known as no-hub pipe fittings and soil pipe fittings, these fittings are for use in gravity-flow applications both above and below ground.
Use these fittings in low-pressure flow applications. They have good corrosion resistance.
The male threads on these brass fittings have a sealant applied for extra protection against leaks. Also known as Pressure Class 125 fittings, they are built for use in low-pressure applications.
Used in low-pressure pipe lines, these brass fittings have a plating that makes them shiny and improves corrosion resistance.
These brass fittings have the strength to handle high-pressure applications.
Not only do these brass fittings have the strength to handle high-pressure applications, the male threads have a sealant applied for extra protection against leaks.
Use these heavy-duty brass fittings for high-pressure drinking water applications.
The plating on these brass fittings creates a shiny finish and provides extra protection in corrosive environments. Fittings have the strength to handle high-pressure applications.
When space in your pipe line is limited, choose these miniature fittings that are one inch or less in length.
Extreme pressures are no problem for these heavy-duty brass fittings.
Also known as instrumentation fittings, these have the most precise threads and the tightest tolerances of all the brass pipe fittings we offer.
Plated with nickel, these brass fittings resist rust better than steel and unfinished brass fittings. Select them when you need more strength in corrosive environments to handle higher pressures than our low-pressure fittings.
Choose these fittings when you need better strength than our low-pressure brass and bronze pipe fittings.
In addition to being lightweight, these aluminum fittings offer good corrosion resistance. Use them in low-pressure flow applications.
Also known as Pressure Class 125 flanges, these are for use in low-pressure applications. Flanges are aluminum, which is lightweight with good corrosion resistance.
Their small size makes these miniature fittings a good choice for cramped, confined spaces.
Designed for medium-pressure applications, these fittings have better strength than our low-pressure aluminum pipe fittings.
Also known as Pressure Class 3000 fittings, these have the highest pressure rating of all the aluminum pipe fittings we offer.
Also known as Schedule 40 fittings, these have thicker walls than our thin-wall aluminum unthreaded pipe fittings.
Use these unthreaded flanges in low-pressure applications. Also known as Pressure Class 125 flanges.
Thick walls give these Schedule 80 fittings excellent strength.
Use these clamps to connect easy-access CPVC pipe fittings and pipe.
These adapters connect PVC waste pipe to cast iron pipe without adding bulk. Instead of securing pipes together from the outside like clamp-on couplings, these flexible adapters fit into cast iron pipe to create a tight compression seal.
Also known as no-hub couplings, these have a one-piece sleeve with a stop in the center, so you know your pipe is always aligned correctly.
Distribute air or fluid to multiple locations from a single supply source with these manifolds. They are also known as headers.
These manifolds have two separate sections inside, so you can run two different substances through them without worrying about them intermixing. Also known as headers.
Designed for ultra-clean environments, these manifolds are cleaned, dried, and vacuum sealed in plastic to prevent dirt and moisture from contaminating the inside. Use them to distribute air or fluid to multiple locations from a single supply source. Also known as headers.
Unlike other manifolds, which have an inlet on either end, these have one inlet on the opposite side from the outlets. This design allows air or fluid to follow a straight path, improving flow through your system. Also known as headers.
Mount these manifolds on the end of a hose line to distribute air, water, or hydraulic fluid to three locations from a single supply source.
When you’re short on vertical space, these manifolds are a good fit—they have outlets on the side instead of on top, so they have a lower profile than rectangular manifolds. Use them to distribute air or fluid to five locations from a single supply source.
A great solution when space is at a premium, these manifolds are less than an inch in height, yet allow you to supply up to 12 lines from one distribution point.
With outlets on the side instead of on top, these manifolds have a lower profile than rectangular manifolds and fit well in cramped spaces. Use them to distribute air or fluid to three locations from a single supply source.
Use these manifolds with molding equipment to circulate hot and cold water through your line. They have a red side for hot water and a blue side for cold water.
The smooth finish inside these stainless steel quick-clamp fittings makes it easy to remove product residue.
Polished to a 20 Ra finish, these fittings have an extra-smooth interior that prevents product buildup and inhibits bacteria growth.
Also known as KF, QF, and NW fittings, these fittings are for high-vacuum applications, such as vacuum coating and heat treating, leak testing, and analyzing gases.
Use these fittings at pressures up to 9,700 psi. Also known as instrumentation fittings, they are made to tight tolerances for use in high-precision applications. They are compatible with Swagelok®, Let-Lok, and Parker A-Lok fittings.
The threads on the tube end of these fittings are Class 3A or 3B and adhere to tighter tolerances than other 37° flared fittings.
A PTFE seal on the tube end of these fittings allows for an extra-strong connection in high-vibration applications.
Also known as JIC (Joint Industrial Council) fittings, these provide a tight metal-to-metal seal on stainless steel tubing that is flared to 37°.
Connect stainless steel tubing on one end and plastic tubing on the other end.
Solder these fittings to tubing for a permanent, leak-tight connection. They are also known as sweat fittings.
When cleanliness is crucial to your application, choose these fittings that are individually cleaned and bagged to prevent contamination.
Crimp these fittings to copper tubing with a crimping tool for a leak-tight connection that doesn’t require heat or soldering. They are comparable to Viega ProPress fittings.
Choose these metal fittings when you need better durability than our plastic push-to-connect fittings.
Made of plastic, these fittings are lightweight compared to our brass push-to-connect fittings.
No sleeve is required to assemble these fittings, which makes for a faster, more convenient installation compared to 37° flared fittings. They are also known as refrigeration and SAE fittings.
Also known as instrumentation fittings, these are made to tighter tolerances than standard compression fittings. They are compatible with Parker CPI fittings.
These fittings have two sleeves for extra gripping power. They bite into steel tubing as you tighten the nut to form a strong seal.
Use these fittings in an air vacuum system to avoid the hassle of brazing and welding. Insert two fittings into a clamp and tighten to form a secure seal in steel tubing.
Fittings have good corrosion resistance.
Aluminum fittings have good corrosion resistance, but are lighter in weight than brass.
The nickel plating on these fittings provides better corrosion resistance than unplated brass fittings.
Color-code fittings for easy identification. These aluminum fittings have good corrosion resistance, but are lighter in weight than brass.
Made of stainless steel, these fittings have better corrosion resistance than brass fittings.
You don't need a clamp to secure these fittings to tubing. They have a nut on the barbed end that tightens to holds the tubing in place.
Made of nickel-plated brass, these fittings have better corrosion resistance than unplated brass fittings.
A 316 stainless steel body gives these fittings the best corrosion resistance of all our metal push-to-connect tube fittings.
Made of brass, these fittings have good corrosion resistance.
A single sleeve (ferrule) compresses the tubing as you tighten the nut on these fittings, creating a strong seal. They are brass for good corrosion resistance.
A built-in tube support slips inside the tubing to prevent collapsing and provides a sturdy connection for an extra-tight seal.
Made of stainless steel, these fittings are more durable than plastic barbed tube fittings for food and beverage.
Fittings are 316 stainless steel, which has excellent chemical resistance and is more durable than plastic.
Fittings have a barb that grips onto tubing. Use in applications up to 150 psi.
Metal hose fittings have better durability than plastic barbed hose fittings.
Connect these fittings to air tools for pneumatic applications.
Metal cam-and-groove couplings have better durability than plastic cam-and-groove couplings.
The industry standard for quick-disconnect couplings, these are also known as industrial interchange couplings. Compatible with Industrial-shape plugs and sockets.
Connect these fittings to fire hydrants and washdown equipment.
The rocker lugs on these fittings allow for easy gripping, so you can quickly connect to fire hydrants and washdown equipment.
The pin lugs on these fittings allow for easy gripping, so you can quickly connect to fire hydrants and washdown equipment.
Fittings are threaded on both ends so you can connect them directly to a threaded hose or to pumps, cylinders, and other equipment in your hydraulic system. Use in high-pressure applications up to 6,000 psi
Couplings are metal, which has better durability than plastic cam-and-groove hose couplings. They consist of a plug and a socket that connect and disconnect quickly. Use them if you need frequent access to a line. To connect, insert the plug into the socket and push the levers down.
These metal hose fittings have better durability than plastic barbed hose fittings. They are 316 stainless steel for excellent corrosion and chemical resistance. Slide the barbed end into hose and secure with a clamp.
Connect male- and female-threaded parts of different thread types and sizes, while allowing air, liquids, wire, or other thin materials to pass through.
The through hole allows you to connect float rods to float valves.
Change thread sizes or types, such as fine to coarse threads, on parts without changing gender.
In addition to joining male- and female-threaded parts, these adapters can increase or decrease metric thread sizes and change the thread pitch.
Change inch threads to metric with these adapters, or swap metric threads for inch. An external hex lets you tighten or loosen them with a wrench.
Join two female-threaded parts of various thread types and sizes, while allowing air, liquids, wire, or other thin materials to pass through.
Need to join two female-threaded parts, such as coupling nuts, with dissimilar inch thread sizes? Attach them to these adapters and tighten the exterior hex nut for a secure connection.
Twist these adapters onto female metric threads to change pitch or switch thread sizes.
One side inch, one side metric, and a hex in the middle—these handy fasteners connect two female-threaded parts, such as coupling nuts, adapting from inch threads to metric. Tighten with a standard wrench.
Connect two differently sized male-threaded parts, such as threaded rods, and tighten with a standard wrench.
Increase or decrease metric thread size from one male-threaded part to another. Commonly used to connect two differently sized threaded rods, they have a hex-shaped body, so you can tighten them with a standard wrench.
Adapt threaded rods from inch to metric. These adapters connect two male-threaded fasteners, so you can change the gender of a mating part or increase or decrease its thread size. The hex-shaped body fits into the head of a standard wrench.
Made of 18-8 stainless steel, these inserts have better corrosion resistance than black-phosphate steel.
A black-phosphate finish provides mild corrosion resistance.
These inserts are the most corrosion-resistant thread-locking inserts we offer.
These assortments include various sizes of thread-locking inserts.
A closed-end tap, drill bit, and installation bit are included with these inserts.
Adhesive on both the internal and external threads keeps these inserts in place and holds screws tight.
Made of 18-8 stainless steel, these inserts have good corrosion resistance.
These inserts are made to stringent military specifications.
The strongest key-locking inserts we offer, these inserts are made to stringent military specifications.
These inserts come with an installation tool. Drive the keys into the surrounding material for a more secure hold than thread-locking inserts.
Forming the strongest hold of any of our threaded inserts, these inserts have a distorted internal thread to lock screws into place and keys that drive into surrounding material to prevent slipping and rotating.
Made of Nitronic 60 stainless steel, these inserts prevent the screw from binding or sticking without any coating or lubricant that could contaminate particle-free environments.
A dry film keeps the screw from sticking or binding in these inserts during installation.
Eliminating the need for primer, these inserts are coated to resist corrosion when installed in different materials.
These inserts have a high strength-to-weight ratio and resist acids and salt water better than nickel alloy and stainless steel inserts.
Made of nickel alloy, these inserts are more resistant to acids and salt water than stainless steel inserts.
A distorted thread grips the screw to resist loosening.
Without a prong to break off and retrieve, these inserts are often used where debris could cause damage.
Inserts come with a through-hole tap and installation tool.
Assortments include various sizes of helical inserts and a tap, a drill bit, and an installation tool for each thread size.
These kits have short-, normal-, and long-reach inserts, an installation tool, and a tap.
Kits include helical inserts, a tap, and an installation tool.
These inserts cut their own threads in soft metals such as aluminum, so there's no need to tap the hole. Also known as Tap-Lok inserts.
The knurled body holds these inserts in place in aluminum and other soft metals. Use an arbor press to install them in untapped holes.
Made from brass, these inserts are nonmagnetic, corrosion resistant, and electrically conductive.
These 18-8 stainless steel inserts have better corrosion resistance than brass inserts and may be mildly magnetic.
These aluminum inserts are 70% lighter than brass inserts, electrically conductive, and nonmagnetic. They have good corrosion resistance, which is comparable to brass but not as good as stainless steel.
Made from brass, these inserts are electrically conductive, nonmagnetic, and have good corrosion resistance.
The flange keeps these inserts from pulling through a hole. Press them in from the underside of material, and install a screw from the top of material.
70% lighter than stainless steel, these aluminum inserts are mildly corrosion resistant and nonmagnetic.
These 18-8 stainless steel inserts have better corrosion resistance than aluminum inserts and may be mildly magnetic.
The barbed sides keep these securely in place even before a screw is installed.
Push down on the inside of these inserts with an installation tool and they expand to hold firm in surrounding material.
Use these inserts to install fine-thread screws in existing holes.
The tapered shape makes it easier to guide these inserts into a hole during installation. Use a drill bit to create a straight hole, then taper the top half.
Assortments include various sizes of inserts, a soldering iron, a ceramic insulation tube, and installation tips.
Install these inserts into plastic parts to create a secure base for fasteners.
Also known as Trisert inserts, these cut threads into plastic and have better holding power than press-fit inserts.
The flange keeps these inserts from being pulled through a hole and provides a load bearing surface.
Steel inserts have high strength for durability.
These 18-8 stainless steel inserts have excellent resistance to chemicals and may be mildly magnetic.
Made from brass, these inserts are nonmagnetic, mildly corrosion resistant, and electrically conductive.
Assortments include various sizes of tapping inserts for hardwood.
Large threads cut into softwood such as particleboard for a strong hold.
Assortments include various sizes of tapping inserts for softwood.
These 18-8 stainless steel tee nut inserts have better corrosion resistance than zinc-plated steel tee nut inserts.
The most corrosion resistant tee nut inserts we offer, these inserts stand up to chemicals and salt water.
Ridges on the barrel of these inserts make them less likely to split hardwood than inserts with prongs. They're often used in wood that has been cut across the growth rings.
Fewer prongs than other tee nut inserts reduce the risk of splitting hardwood—these inserts have three short prongs.
Six prongs around the barrel of these inserts provide a strong hold and prevent them from loosening and twisting.
Hooked prongs give these inserts excellent holding power even when removing screws.
Use where vibration is a concern—these tee nut inserts have distorted threads that lock screws in place.
An open end allows long screws and bolts to pass through the insert.
A closed end seals out elements and protects the threads on these inserts from debris.
Mount these inserts flush or below the material's surface.
Knurls hold these inserts in hardwoods such as oak, maple, and walnut to prevent twisting.
A wide flange distributes the load over a large area. Hammer these inserts into a drilled hole.
Press these inserts into a drilled hole and the flexible metal teeth anchor them in the material. Use them with carbon fiber, fiberglass, and garolite.
18-8 stainless steel spacers have good corrosion resistance.
An economical alternative to standard unthreaded spacers.
About twice as strong as aluminum rivet nuts, these steel rivet nuts are zinc plated for mild corrosion resistance.
The most corrosion resistant twist-resistant rivet nuts we offer, these stand up to chemicals.
These aluminum rivet nuts are one-third the weight of steel rivet nuts and have mild corrosion resistance.
A hex-shaped body provides the highest twist resistance of any rivet nut.
Wedges under the flange lock the nut in place in soft materials such as brass and aluminum.
A nonconductive rubber coating insulates the nut from electricity, seals out moisture, and damps vibration.
These kits include one size of low-profile rivet nuts.
About twice as strong as aluminum rivet nuts, these low-profile rivet nuts have a cadmium or tin-zinc plating for corrosion resistance.
These low-profile rivet nuts are one-third the weight of steel and have mild corrosion resistance.
The most corrosion resistant low-profile rivet nuts we offer, these stand up to chemicals.
A PVC coating minimizes the chance of scratching the surface of your material. These rivet nuts are more corrosion resistant than zinc-plated steel rivet nuts.
These rivet nuts are mildly corrosion resistant.
The coated flange seals out moisture and prevents corrosion.
A PVC foam seal under the flange keeps liquids and gasses from leaking between the nut and the surrounding material.
About twice as strong as aluminum rivet nuts, these rivet nuts are zinc plated for mild corrosion resistance.
Threads float inside the nut so you can install a screw at a slight angle to align with off-center parts. They’re also known as Riv-Float nuts.
The thread area is enclosed, which prevents leakage past the threads from either side of your application.
Once installed these rivet nuts have a large back flange that distributes the load across a broad area for a strong hold in plastic and composites.
Stronger than stainless steel, these nuts are comparable in strength to Grade 9 bolts.
These screw-mount nuts are often used to attach glides and levels to wood.
A zinc-plated finish gives these steel inserts mild corrosion resistance.
Protect bolts from sideways (shear) pressure.
A ribbed-shaped body holds the nut in place so it won't move when tightening a screw. Assortments contain rivet nuts, mandrels, nosepieces, and a plier-style installation tool.
Use these rivet nuts for light duty fastening in low-clearance applications. Assortments include rivet nuts, mandrels, and an installation tool.
These rivet nuts have a smooth body and fit in smaller holes than twist-resistant rivet nuts. Assortments include rivet nuts, mandrels, nosepieces, and a plier-style installation tool.
Add a stud to thin material when you only have access to one side.
Join different sizes of conduit.
Reduce the knockout size in an outlet box or enclosure so you can attach a different size of conduit to it.
Seal out moisture while reducing the knockout size in an outlet box or enclosure so you can attach a different size of conduit to it.
Transition between conduit sizes and types.
Mount right-angle speed reducers to machinery or other surfaces where access from the bottom is not possible.
Convert from one square drive size to another.
A magnet holds the socket, making changes quicker.
Pivot the head to access fasteners from an angle.
Pull the collar to quickly attach and remove sockets.
Prevent overtightening that can damage fasteners. These adapters spring back slightly when the set torque is reached.
Push the square drive through the adapter to change size.
These adapters are insulated to protect against accidental contact with live electrical circuits. They are tested to 1,000 volts to meet IEC 60900.
Change a standard wrench handle into a ratcheting wrench.
Turn sockets with a bit screwdriver.
Set a desired torque within the range.
Adapters are set to a specific torque and cannot be adjusted.
Use sockets with tools that accept hex shanks, such as impact drivers and power drills.
Make maximum contact on all sides of a fastener to reduce slipping. These sockets are also known as torque adapters.
No need for clamps or connectors—duct and fittings have a male end that is slightly smaller than its female end for simple assembly.
A spiral seam gives this duct greater strength and rigidity than standard duct.
Join duct and fittings with quick-release clamps for faster disassembly and cleanout than other duct systems.
Fittings have gaskets which create a tight seal—you don't need to seal joints with coating or tape.
Often used in tight spaces, such as in walls and ceilings, rectangular duct allows you to select larger sizes without increasing duct height.
These noise reducers mount directly to spiral duct to decrease noise by as much as 50%.
Designed to grip evenly around your shaft, these couplings provide more holding power than set screw couplings without marring the shaft.
Each hub includes a set screw, which bites into your shaft to hold the coupling in place.
Also called double-loop couplings, these have a flexible center that reduces vibration and compensates for high parallel and angular shaft misalignment.
Tighten the set screws to fasten these couplings to your shaft. Set screws bite into the shaft to hold the couplings in place.
Able to handle high twisting forces as well as misalignment, these couplings are good for high-performance servomotor applications.
Specially designed ridges allow these bellows couplings to compensate for more misalignment than other precision couplings—useful for low-torque, high-precision applications such as instrumentation and motion control.
With a bellows between two hubs, these couplings handle all types of misalignment and are good for precision stepper and encoder motion-control applications.
Connect shafts and ball screws to high-speed servomotors and stepper motors—these shaft couplings handle four times more speed than standard servomotor couplings.
An acetal plastic spacer at the center of these couplings insulates bearings, encoders, and other shaft components from stray electric current. Use them with servomotors, which sometimes generate current that travels down the shaft and can damage circuit boards, interfere with readings, and cause wear on bearing raceways.
Each hub includes a set screw (unless noted), which bites into your shaft to hold the coupling in place.
The thick split spider on these couplings takes on twice as much torque as standard split spiders, while a set screw holds the hubs in place on your shaft. Also known as jaw couplings, use them to connect motors to pumps, mixers, and other high-torque equipment.
Customize the bore of these flexible couplings to align uncommon shaft sizes as well as shafts that have become undersized from wear or oversized from coatings.
Often used in electronics manufacturing facilities and other extra-clean environments, these shaft couplings are cleaned and individually bagged to keep out contaminants.
A strip of flexible spring steel wraps around the teeth of both hubs to absorb sharp, momentary load increases that can come from motor startups, emergency braking, or sudden impact with hard objects.
Safely connect slightly misaligned shafts near food lines—the spider on these couplings contains metal, so it’ll trigger a metal detector if a piece frays off and contaminates your batch.
Also known as Schmidt couplings, these handle higher angular misalignment than other three-piece couplings. Good for applications with varying shaft misalignment, they're commonly used with conveyor rollers and roller feeds in printing and packaging machines.
With a rugged roller-chain design, these couplings provide excellent torque and angular misalignment capacities.
With a rigid gear design, these steel couplings transmit more torque than other couplings of the same size.
Made with lightweight nylon sleeves, these gear couplings require less energy to move than other high-torque flexible couplings. They compensate for parallel, angular, and axial misalignment.
A flexible tire on these couplings safeguards components on your shafts by reducing vibration and shock.
Magnetic force transfers torque from one half of these couplings to the other; there’s no contact between the parts, so they won’t wear. Couplings compensate for angular and parallel misalignment.
Use these gear-shaped couplings for high-speed and high-torque applications.
These couplings have the gripping strength to handle higher torque than most other couplings.
When one of your shafts is undersized from wear, oversized from coatings, or uncommonly sized, machine one end of these couplings to fit. They clamp around your shafts for a secure hold that won’t cause damage.
Designed to grip evenly around your shaft, clamping couplings provide more holding power than set screw couplings without marring the shaft.
Set screws bite into your shaft to hold these couplings in place.
When you need a strong hold and even grip on shafts that are oversized due to finishes, undersized from wear, or uncommonly sized, we’ll make a coupling for you that fits just right. These couplings clamp around your shafts to prevent marring them.
Install and remove these shaft couplings without disconnecting the shafts, motors, and other attached components—they’re made in two pieces so you don’t need to slide them onto shaft ends. They’re also useful when you have limited access to the ends of the shafts.
Machine the pilot hole in these couplings to whatever size you need. Often used for shafts that are undersized from wear or oversized from coatings. These couplings are two-piece, so you can remove and reinstall them without moving your shafts.
For hard-to-access shafts that are oversized from coatings or undersized from wear, we’ll get you a coupling in the right size that clamps on as two pieces, so you don’t need to move your shafts or installed components.
When your shafts are not close enough to use standard couplings, these have the length to bridge the gap.
Connect splined shafts to keyed shafts. These couplings are commonly used to connect hydraulic pumps, compressors, and other heavy duty equipment, which often have splined shafts, to electric motors and other components that often have keyed shafts.
For use with splined shafts, which are commonly found in gearboxes and pumps, these couplings are capable of transmitting more torque than couplings for round and keyed shafts.
Reduce the diameter of your shaft while adding length.
Increase the diameter of your shaft while also making it longer.
Adapt your shaft to a threaded end without having to machine threads onto your shaft.
Protect your machinery if there is a jam, emergency stop, or other overload by cutting off torque between shafts when a maximum torque is reached.
To protect power-transmission components from damage, these couplings will shear or tear in overtorque conditions (approximately 10-20 times the maximum rated torque) to sever connections between shafts.
One side is unfinished for milling custom pulleys, threaded hubs, sprockets, collars, knobs, sensor targets, or just about anything imaginable; the other side is a one-piece clamping coupling for mounting whatever you’ve created to your shaft.
Instead of replacing your shaft or keeping components, such as couplings, with various bore diameters on hand, these reducers adapt the bore of a component to a smaller size.
Reduce the ID of sprockets, pulleys, and gears in low-torque applications.
A toothed slot lets these bushings contract for insertion into the bore of your sprocket or pulley and then expand for a snug fit.
Reduce the arbor hole size on a wheel brush so that it fits the shaft on your tool.
Convert a diamond arbor hole to a round arbor hole.
Reduce the diameter of a blade's arbor hole to fit your saw's arbor.
Decrease the ID of your rod end to allow approximately 60° of misalignment.
Reduce the inside diameter of a bearing to fit a particular axle size. Also known as spanner bushings.
Save on shipping costs—cut boxes down to size.
Control the unwanted noise that comes from vibrating panels and support structures. This aluminum foil tape reduces vibration by converting it into a small amount of heat.