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Position components in assemblies, as well as separate or connect parts with these standoffs.
These standoffs are made to NAS specifications.
A nylon patch bonded to the threads adds friction, preventing these standoffs from loosening from vibration.
Choose these standoffs for their adherence to NAS 1831 specifications.
Mount components onto food processing lines, walls, and sanitary equipment while leaving space to clean in between.
Protect components from electrical charges.
The magnetic end of these standoffs makes it easy to temporarily mount or reposition components on magnetic surfaces.
A nickel-chrome plating gives these standoffs a mirror-like finish.
Also known as captive standoffs, a recess under the hex clinches the panel for a strong hold that won't push, pull, or twist out. When mounted, the hex sits flush with the surface and the closed end creates a neat, finished appearance.
A recess under the hex clinches a panel for a strong hold that won't push, pull, or twist out. When mounted with a lever press, the hex sits flush with the surface and the open end creates a through hole.
These standoffs are designed to fit in the limited space of compact electronics such as laptops and hand-held devices.
Once the end is clinched in place, panels with keyholes easily slide on and off these supports.
With the end clinched in place, the prongs allow you to quickly snap a panel on and off these supports.
Thread the male connection into a tapped hole and snap the other end into a panel for a secure hold that can be released for repairs and upgrades.
Stick these supports to surfaces where you don't want to drill a hole. The snap-in end can be released for repairs and upgrades.
The ends of these removable supports snap in and compress between panels to reduce vibration of miniature cooling fans in compact electronics.
Both ends snap and lock in place for a permanent connection.
Wings add tension to strengthen the hold in a hole. The other end is releasable for repairs and upgrades.
Secure the self-tapping female connection with a screw; the other end snaps snugly into a panel, yet can be released for repairs and upgrades.
Designed for multi-level printed circuit board applications, these self-aligning, through-hole supports have a chamfered female end for stacking. The other end snaps and locks in place for a permanent connection.
The flat top supports boards without drilling a hole while wings on the other end add tension for a secure hold in a hole.
Also known as captive spacers, the splines on these bite into a panel for a permanent hold.
In enclosures and other places where you don’t want to drill a hole, mount circuit boards and other thin panels with these supports.
Often called swage standoffs because you permanently crimp them into a panel.
Use these barrels with a screw you already have or pair with a different type of screw to create a custom fastener. Made from 18-8 stainless steel, they are chemical resistant.
These include a barrel and a screw.
Pair these screws with a barrel you already have or couple with a different barrel to create a custom fastener. Made from 18-8 stainless steel, they are chemical resistant.
Use these barrels with a screw you already have or pair with a different type of screw to create a custom fastener. Made from 316 stainless steel, they have excellent chemical resistance and can be used in saltwater environments.
These include a barrel and a screw with an extra-wide (truss) head. Made from 316 stainless steel, they have excellent chemical resistance and can be used in saltwater environments.
Pair with a barrel you already have or couple with a different barrel to create a custom fastener. Made from 316 stainless steel, they have excellent chemical resistance and can be used in saltwater environments.
Use these barrels with a screw you already have or pair with a different type of screw to create a custom fastener. They're zinc plated to resist corrosion in wet environments.
Designed with a shoulder for the strength to handle side and shear loads.
Shorter than shoulder screws for use in thin material.
Use these hex drive screws and binding barrels as a low-profile alternative to standard nut and bolt combinations.
An unthreaded barrel allows quick assembly with a press or a hammer.
Add length to a binding barrel.
One-third the weight of steel, aluminum binding barrels and screws resist corrosion in wet environments.
Stainless steel binding barrels and screws have excellent corrosion resistance in most environments.
Brass binding barrels and screws are corrosion resistant in wet environments and electrically conductive.
Plastic binding barrels and caps are chemical resistant, nonconductive, and lightweight.
These barrels and caps are corrosion resistant in wet environments.
Angled under the head for a flush finish in countersunk holes.
Create strong joints in wood and wood composite.
More corrosion resistant than 18-8 stainless steel binding barrels and screws, these have excellent resistance to chemicals and salt water.
These binding barrels and screws have good chemical resistance.
A tamper-resistant Torx driver is required for installation and removal.
Install these binding barrels and screws with a standard slotted screwdriver. They require a special tool to remove.
Sealed with PVC foam under the head to prevent leaks and keep contaminants out.
Comparable in strength to Grade 8 steel. These screws have inch thread sizes.
Comparable to Class 12.9 steel.
With threads the same diameter as the shoulder, these inch-sized screws can handle heavy loads. They’re comparable to Grade 8 steel.
The metric-sized threads on these screws are the same diameter as the shoulder. Comparable in strength to Class 12.9 steel.
Use these screws in thin materials; they have a shorter threaded portion than our standard shoulder screws. They’re comparable in strength to Grade 8 steel.
These shoulder screws come with a traceable lot number and material test report. Similar in strength to Grade 8 steel.
More corrosion resistant than 18-8 stainless steel shoulder screws, these have excellent resistance to chemicals and salt water. These screws have inch thread sizes.
For metric thread sizes with excellent resistance to chemicals and salt water, choose these 316 stainless steel shoulder screws.
These screws have metric thread sizes. They are 18-8 stainless steel for good chemical resistance.
Made from 18-8 stainless steel, these inch-sized shoulder screws have good chemical resistance.
With inch-sized threads the same diameter as the shoulder, these screws can handle heavy loads. They’re 18-8 stainless steel for good chemical resistance.
Shoulder screws made of 17-4 PH stainless steel are nearly twice as strong as 18-8 stainless steel and have the same corrosion resistance. These screws have inch thread sizes.
Nickel alloy shoulder screws are more resistant to acids and salt water than stainless steel shoulder screws.
Titanium shoulder screws have a high strength-to-weight ratio and are more resistant to acids and salt water than nickel shoulder screws.
One-third the weight of steel, aluminum shoulder screws are lightweight and have good corrosion resistance.
These shoulder screws are chemical resistant, nonconductive, and lightweight.
Screw these shoulders onto a stud.
These shoulder screws have good chemical resistance.
More corrosion resistant than 18-8 stainless steel shoulder screws, these have excellent resistance to chemicals and salt water.
With a hex socket at the tip as well as the head, you can fasten these shoulder screws from the tip when the head cannot be reached.
A zinc plating provides mild corrosion resistance.
These have a head height about one-third the head height of a standard shoulder screw.
Available in metric sizes, these screws have a locking element on the threads that adds friction to resist loosening. Comparable to Grade 8 steel, they are the strongest screws we offer.
Also known as wheel and axle bolts, these metric screws have an unthreaded shoulder that acts as a shaft, so material attached to the threaded end can rotate.
Tighten these shoulder screws by turning them to the left; once fastened, they resist loosening from counterclockwise motion.
A locking element on the threads adds friction to resist loosening. Comparable to Grade 8 steel, these alloy steel shoulder screws are the strongest we offer.
With a reduced head size and an unthreaded shoulder, use these screws as a shaft or dowel pin for small rotating parts in low-clearance applications.
The head height of these screws is about two-thirds the head height of a standard shoulder screw. Use them in low-clearance applications such as inside machines.
These metric screws have a head height that's about two-thirds the head height of a standard shoulder screw. Use them in low-clearance applications such as inside machines.
Stainless steel shoulder screws have excellent corrosion resistance in most environments.
These shoulder screws are angled under the head to sit flush in countersunk holes.
Without a head to get in the way, these screws fit in tight spaces where standard shoulder screws cannot. Either thread them in a countersunk hole for a flush mount, or install them with the shoulder sticking out to use them as pins or dowels for aligning and locating components.
Comparable to Grade 8 steel, these screws are the strongest precision shoulder screws we offer.
These shoulder screws come with a traceable lot number and material test report.
With a shoulder that’s twice as precise as standard shoulder screws, these metric shoulder screws act as a shaft or axle for bearings and other moving parts in applications that require smooth and accurate movement, such as measuring and lab equipment. Made of 18-8 stainless steel, they’re nearly as strong as steel but won’t rust in outdoor or washdown environments.
Install and remove these shoulder screws by hand or with a hex key.
Install and remove these metric shoulder screws by hand or with a hex key.
These metric 316 stainless steel shoulder screws are more corrosion resistant than 18-8 stainless steel shoulder screws. They also have excellent resistance to chemicals and salt water.
Made of 416 stainless steel, these shoulder screws are almost twice as strong as 18-8 stainless steel and have the same corrosion resistance.
Offered in metric sizes, these brass shoulder screws are electrically conductive, nonmagnetic, and have good corrosion resistance.
Brass shoulder screws are electrically conductive, nonmagnetic, and have good corrosion resistance.
These screws have a head height about one-third the head height of a standard shoulder screw. Use them in low-clearance applications such as inside machines.
These slotted screws have a head height about one-third the head height of a standard shoulder screw. Use them in low-clearance applications such as inside machines.
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.
Change thread sizes or types, such as fine to coarse threads, on parts without changing gender.
The through hole allows you to connect float rods to float valves.
Connect male- and female-threaded parts of different thread types and sizes, while allowing air, liquids, wire, or other thin materials to pass through.
Often called sleeve nuts, these thread adapters fasten parts with right-hand threads to parts with left-hand threads.
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.
Twist these adapters onto female metric threads to change pitch or switch thread sizes.
Join two female-threaded parts of various thread types and sizes, while allowing air, liquids, wire, or other thin materials to pass through.
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.
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.
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.
These studs are 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.
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.
Turn these studs with a hex key for ease of installation.
These steel studs are zinc plated to resist corrosion in wet environments.
18-8 stainless steel studs have good chemical resistance.
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.
Add a stud to thin material when you only have access to one side.
Pass these studs through a hole and weld them in place.
Also known as dowel screws, use these to join two pieces of wood.
A hollow center allows these studs to be used as an axle, a vent, or a passageway for wiring.
These studs have good chemical resistance. Weld them to stainless steel surfaces.
The shoulder’s diameter is slightly smaller than listed, so these studs fit most machinery and equipment.
Weld these studs to uncoated steel surfaces.
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.
Oversized to fit worn and enlarged holes, these pins work well as repair and replacement parts.
Slip these pins in and out during maintenance or prototyping—they’re undersized to make alignment easier.
To remove these pins, thread a screw or tool into the tapped hole, then pull them out.
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.
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.
Use these as pivot or hinge pins. The knurled half locks pins in position, while the smooth half acts as a pivot.
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.
Join two pieces of wood with these dowel pins. When glued, they expand for a tight fit.
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.
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.
Grooves hold these pins in place, and a round head gives them a finished appearance.
Pass wires and other components through these hollow 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.
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.
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.
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.
Shoulder screws have a cylindrical shoulder under the head that allows parts to rotate around or slide along its length. They have a standard shoulder with an undersized tolerance to fit most machinery and equipment.
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.
Keep a variety of standoffs in different lengths and thread sizes on hand.
This solid plastic bollard resists oil and chemicals and won’t rot from outdoor exposure.
Restrict and grant access to an area—these bollards act as a strong physical barrier and have a hinge to fold flat against the ground in either direction.
These bollards flex slightly when bumped by a vehicle to prevent dents and dings.
Combine rails, posts, and gates to make a custom guardrail system.
Start with two bases and then stack rails to the desired height.
During light collisions, these guardrails tilt to absorb impact and minimize damage to a vehicle.
These are the same guardrails you see along roadways.
These guardrails sit low to the ground to protect racks and equipment without restricting access.
Instead of a post, use these rings to hang chain between metal surfaces.
Mix-and-match posts and chain to create a barrier that suits your needs.
Provide an end point for a belt barrier.
To make a complete unit, team one or more belt barriers with a wall receptacle or receiver post.
Mark equipment at risk of being hit by vehicles.
Modular mix-and-match components allow flexible railing configurations.
Connect rails and posts with included slip-on fittings to quickly assemble a railing.
Slip these posts and rails together for a complete railing—no fittings required.
No assembly required with these one-piece railings.
Combine bases, rails, gates, and toeboards to create a barrier customized to your needs. Base is weighted to allow installation without drilling holes.
Weighted bases allow you to install these railings without drilling holes.
Secure and hold up fencing with these posts.
Stand panels up to create enclosures without sinking posts into the ground.
Use these posts to securely mount mailboxes into the ground or concrete.
Support trench walls when installing pipes, cables, and other buried equipment.
Cut through soil to create a smooth, round hole.
Provide safety and support for users with limited mobility.
Drive these posts into the ground or use them with a base.
These posts include a base that's portable, but hard to knock over.
Use these bases to hold a sign post.
Reduce damage to signs, parking lot surfaces, and vehicles, these posts rebound after contact.
A plastic guard reduces damage from impact and protects vehicles.
Drive these stakes into the ground and then slide a foam or corrugated plastic sign over the top.
These holders come with a cover to protect signs from smudging and wear.
Communicate two- or four-way stops with one freestanding stop sign.
Reflectors are visible from both sides for areas where traffic moves in two directions.
These flexible reflectors return to the upright position after contact. They are visible from both sides for areas where traffic moves in two directions.
Use these cones for quick material identification, inventory control, and pallet staging.
Rails are drilled with consistently spaced holes for multiple mounting options that do not require machining. Use this steel bolt-together framing to build guards, tables, and racks.
Half the weight of steel, this aluminum framing resists corrosion in wet environments.
Create posts of varying lengths.
To provide corrosion resistance in wet environments, this framing is galvanized.
Stronger than plastic and aluminum, this is the lightest weight framing we offer. It has good resistance to chemicals and salt water.
Made of 316 stainless steel, this framing has excellent resistance to chemicals and salt water.
In addition to being lightweight and strong, this plastic framing is nonconductive with good resistance to chemicals and salt water.
Before making a permanent connection, use these connectors to test a circuit. Also known as binding posts, they mount through panels to create a connection point.
Stack multiple ring or spade terminals on the stud terminal; the current flows through the stacked terminals.
Distribute up to 150 amps from the center stud terminal to the eight screw terminals around it.
Raise your enclosure to access switches, gauges, screens, and other parts at a comfortable working height.
Convert one battery terminal style to another.
Replace battery terminal hardware.
Support beams and joists.
Add safety and convenience to your wall and tank ladders. Posts extend above the ladder top and lock in place to guide you and provide stability.
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.
Internal threads allow you to mount these shafts onto threaded studs and fasteners, no shaft supports needed.
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 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.
For your compliance and quality assurance needs, these shafts come with a material certificate with a traceable lot number.
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.
Connect these internally threaded shafts directly to threaded components, or use a fastener to secure.
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.
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.
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.
A flat surface area allows set screws to dig into the shaft for securely mounting gears, sprockets, and bearings.
Combine these general purpose drive shafts with gears, sprockets, and bearings to transmit rotary motion.
Good for hydraulic systems, machine tools, and other high-torque applications, these shafts have teeth that transmit high rotational loads.
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.
Combine with a machine key to transmit torque to gears, sprockets, and other power transmission components.
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.
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.
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.
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.
Use four brackets to support the top and bottom edges of panels without drilling holes in them.
A V-groove enables these holders to grip round-shank as well as square-shank tools.
A built-in drill chuck allows quick installation of drill bits, taps, and other round- or hex-shank tools into a quick-change tool post.
Grip square-shank lathe tools.
Four flat head screws lock down round-shank tools in a precision-ground bore for increased rigidity over other round-shank tool holders.
Two slide-in dovetail mounts on the tool posts allow you to quickly change from one tool holder to another.
These holders work with any 5C collet to rigidly grip drill bits, taps, end mills, and other tools.
Mount any tool with a Morse taper shank to a quick-change tool post.
Securely hold cutoff blades in a quick-change tool post.
Give open-ended standoffs a finished look and protect them from dirt and debris.
A thin head means these caps sit nearly flush with your surface for a clean look.
Pin holes on the side of these caps let you insert an installation tool for increased leverage when tightening, making them difficult to remove.
Weld these caps and targets to the ends of posts to create stackable shelving and racking systems.
The shoulder provides a consistent height reference point and keeps the pin from being pressed through the fixture.
Install these pins in a plate or table and mate with holes in a workpiece for precise alignment.
Maintain consistent alignment in mating parts by installing a pin in one part and a liner in the other.
A slightly undersized shank makes these pins easy to install and replace. Also known as slip-fit and lock-screw locating pins, they are held in place by a separate lock screw.
Encase these pins while molding plastic or composite parts. Once set, the knurls resist movement, letting you align the workpiece with precision on a plate or table.
Screw the shank into a threaded hole for quick installation and removal.
The head on these pins slides side-to-side in one direction. Use one of these pins and one standard round-head pin to prevent jamming when loading and unloading workpieces with inconsistent hole spacing.
Place a cutoff blade into one of these holders to keep it in place in the lathe.
Replace a table leg or make a table with your own tabletop.
Use these legs to make or repair a folding table.
Convert drum openings with metric or BSPP threads to a 2 NPT pipe size.
Birch is softer than maple and oak and has a smooth surface.
Maple is heavy and wear resistant like oak but with a smoother surface.
Oak is a heavy wood with high wear resistance. Its surface is rougher than birch and maple.
Use adapters on the ends of forcing screws and face-grip puller legs when pulling shafts, bearing caps, and pinions.
Convert output drives from female to male.