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Open these rings, pass them over the end of a shaft, and release to spring into the groove.
Thicker than standard external retaining rings, these rings withstand greater force.
These rings meet military specification MS 16624.
No groove is required for these rings—their thick profile helps them grip the shaft.
For a smooth profile and better clearance than standard external retaining rings, the lugs on these rings point inward.
The curved design of these rings works like a spring, taking up play for a tight hold.
Also known as E-style rings.
Also known as C-style and crescent rings, these rings have a small shoulder to fit in tight spaces.
These rings are reinforced to withstand faster rotation than other side‐mount retaining rings. Also known as reinforced E‐style rings.
Also known as poodle rings, these thick rings have "ears" that form a large retaining surface to withstand stronger forces than other side-mount retaining rings.
Also known as bowed E-style rings, these have a curved design that works like a spring, taking up play for a tight hold.
Thicker than standard spiral rings, these rings withstand greater forces.
These coiled rings can be wound into place on a shaft without tools.
Slide these rings into place with one twist—no tools required—for applications with high thrust loads.
No groove required—press these rings onto the end of a shaft for a firm grip.
Use these caps to hold components in place and protect shaft ends.
Also known as flat-style speed nuts, these have a large surface to distribute loads better than standard and flanged external push rings.
The wide flange provides better load distribution than standard external push rings and can be used to cover oversized holes. Also known as thread cutting nuts.
Often used with small engines, heavy equipment, and power transmission, these external retaining rings have speared ends to help you install and remove them.
Also known as constant-section rings, these rings have open ends and a profile that does not taper like other external retaining rings. Use them with linear bearings on support rail shafts.
Also known as X-washers, place these rings into the groove and squeeze tight with pliers to form a 360° closure.
Slide these rings into a groove near the end of the shaft and the tab locks them in place.
Squeeze these rings to place them in the groove inside a bore or housing.
For a smooth bore and better clearance than standard internal retaining rings, the lugs on these rings face outward.
With teeth along the inside, these retaining rings hold chamfered shafts inside the housing of your equipment.
Thicker and stronger than standard internal retaining rings, these withstand greater thrust loads.
Slide these rings into place by hand with a single twist for applications with high thrust loads.
These coiled rings can be wound into place inside a bore or housing without tools.
No groove required—these rings have teeth that firmly grip the bore.
Also known as key rings, twist these rings into place to secure clevis pins, connect components, or add a pull handle. They don't have the sharp ends of other cotter pins.
Twist these rings on to lock pins in place. They don't have the sharp ends of other cotter pins.
The smooth ring handle on these pins won't catch on parts. A spring-loaded, nonlocking retaining ball pops out when the pin is pushed through a hole, and retracts when the pin is pulled out.
The smooth ring handle on these pins won't catch on parts. The shoulder keeps a portion of the pin outside the hole and makes them easy to grab.
Two spring-loaded balls give these pins more holding power than quick-release pins with only one retaining ball. The balls pop out when the pin is pushed into a hole, and retract when the pin is pulled out.
For a more secure hold than standard quick-release pins, these pins lock in place until you push the button to release the spring-loaded retaining balls.
Use these pins for visibility or to color-code processes. For a more secure hold than standard quick-release pins, they lock in place until you push the button to release the spring-loaded retaining balls.
When there isn't enough room for a T-handle, an L-handle saves space but is still easy to grip. For a more secure hold than standard quick-release pins, these pins lock in place until you push the button to release the spring-loaded retaining balls.
The extra height and smaller width of the grip make the button more accessible in tight spaces. For a more secure hold than standard quick-release pins, these pins lock in place until you push the button to release the spring-loaded retaining balls.
A T-handle makes these pins easy to grip. Made entirely of stainless steel, they stand up to corrosive enviroments. Pins lock in place until you push the button to release the spring-loaded retaining balls.
Four spring-loaded retaining balls provide extra holding power. Made entirely of stainless steel, these pins stand up to corrosive enviroments. They lock in place until you push the button to release the spring-loaded retaining balls.
These pins lock in place until you push the button to release the spring-loaded retaining balls, and can also be secured with a cotter pin for longer-term holding. Two-step locking prevents accidental removal.
Also known as double-acting pins, these pins lock in place until you push or pull the handle to release the spring-loaded retaining balls. The T-handle is easy to grip.
Also known as double-acting pins, these pins lock in place until you push the button or pull the ring to release the spring-loaded retaining balls. The smooth ring handle won't catch on parts.
Assortments include pliers to install external and internal rings.
These assortments include pliers to install external and internal rings.
Wind these retaining rings into a groove—no tools required for installation.
Also known as E-Style and C-style rings, slide these into the groove from the side of the shaft. They provide a wider shoulder than other external retaining rings for a larger retaining surface.
Pull these rings open with retaining ring pliers, pass over the end of a shaft, and release to spring into a groove.
Assortments include pliers to install external rings.
Pull ring ends together with retaining ring pliers and place into the bore of a shaft or housing.
Choose from twisting, threading, cinching, and other locking mechanisms.
Loop these rings onto tags.
Includes a black, blue, green, purple, and red tag ring.
Quickly connect and disconnect these carabiners—they don’t lock.
The most secure carabiner we offer, these carabiners won’t accidentally open when rope slides because you need to unscrew the latch to unlock them.
Hold rope more securely than nonlocking and slide-release carabiners. While these carabiners are not as secure as screw-locking carabiners, they are easier to open.
Prevent twisting in your rope or line with these swiveling carabiners. To open, pull the latch down, twist 90° and push in.
Slide the lock down to open the latch and release it to lock these carabiners.
These snaps have an eye that rotates for easy positioning.
Create fast connections with items, such as rope, chain, and straps.
The force of the load helps keep the arms closed. Press the trigger for quick connection and disconnection.
Lock the bolt with wire or a cable tie for a secure connection.
Squeeze the trigger to quickly release the latch.
A wide opening accepts large diameters of rope and pipe. Squeeze the trigger to release.
For a more secure connection than standard trigger-locking snaps, squeeze the trigger and slide the latch grip down to release.
Extend keys from the holder when needed and a cable automatically retracts them when you're done.
These holders come in a variety of colors for easy key identification.
Choose these holders if you need several holders that open with the same key.
Choose these holders if you need holders that each open with a different key.
These rings pivot to secure loads in various directions.
The ring pivots to secure loads in various directions.