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.

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.

No groove required—these rings have teeth that firmly grip the bore.

These metric push nuts can be used as a standalone for light-duty applications or as a jam nut.

A hex- or square-shaped barrel allows these clip-on nuts to be gripped with a wrench to hold them in place when tightening a screw. They have multiple threads for more thread engagement than low-profile clip-on nuts.

These metric nuts have a barrel with multiple threads for secure thread engagement. Also known as U-style clip-on nuts.

Use these light-duty clip-on nuts in low-clearance applications.

These nuts firmly clip onto the edge of panels and stay secure.

Slide these nuts on the edge of a panel and position them by hand. Also known as G-style clip-on nuts.

Weld these nuts to stainless steel surfaces.

Use these metric nuts in channels and tight spaces where round-base weld nuts won't fit.

Weld these nuts to uncoated steel surfaces.

A smooth base provides more contact with the mating surface than weld nuts with projections.

Projections on the base concentrate the weld and provide room for heat to dissipate.

Threads float inside the retainer of these metric nuts so you can install a bolt at a slight angle to align with off center parts.

Weld these nuts to flat and uneven uncoated steel surfaces for a strong permanent hold.

You can weld these metric nuts to flat and uneven uncoated stainless steel surfaces for a strong permanent hold.

Snap these nuts into square holes in thin materials.

Use these tube-end weld nuts with left-hand threaded fasteners.

Install these thumb-screw-head screws through a hole and thread on a retainer to keep secure—no special tools are required.

Place one of these retainers around a hex head screw or nut, then attach wire to lock the screw or nut in place and keep it from loosening.

Made of stainless steel, these springs are more corrosion resistant than steel springs. Use them on shafts, bolts, and the ends of valves to maintain tension and separate components.

Keep pipe flange connections sealed during demanding applications. When installed under flange bolt heads, these springs compensate for shock loads, vibration, and thermal expansion and contraction.

Made of stainless steel, these springs are more corrosion resistant than steel wave disc springs.

Made of stainless steel, these springs are more corrosion resistant than steel springs.

Raised tabs, known as fingers, enable these springs to compress without widening, so they won't bind or deform in housings with little clearance. Use with ball bearings in precision and high-speed drive assemblies to reduce noise, vibration, and wear.

Apply these threadlockers on fasteners that are already installed—their thin consistency allows them to flow into small gaps.

These threadlockers meet NSF/ANSI 61 for drinking water.

Use these threadlockers on fasteners that require occasional fine-tuning, such as set screws.

Prevent threaded fasteners from loosening due to shock and vibration.

This gel clings to fasteners to prevent drips.

Withstand demanding, high-vibration applications such as motor and pump housings with these threadlockers.