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Use these springs in noncorrosive environments.
These springs are more corrosion resistant than standard compression springs.
Use these steel springs in noncorrosive environments.
Made of stainless steel, these springs are more corrosion resistant than steel compression springs.
A lightweight, nonmagnetic, and nonconductive alternative to metal springs, these plastic springs are better for corrosive environments and applications where metal springs cannot be used, such as in sensitive imaging equipment and machines where stray electrical current may cause damage.
If you're designing something unique or can't find the exact size spring you need, we'll get it for you.
These springs meet MS24585 and come with a traceable lot number and material test report.
Install these springs in tight spots. When pushed together, the coils nest within each other.
Flanges on the ends of these springs provide a flat mounting surface.
These springs handle higher loads than standard fastener-mount compression springs. Secure by inserting a fastener through the hole at the base.
Differently sized mounting holes on either side allow for mounting flexibility.
For the heaviest loads, these springs have more than double the load capacity of High-Load Fastener-Mount Compression Springs. Secure by inserting a fastener through the hole at the base.
Made of stainless steel, these springs are more corrosion resistant than steel extension springs.
These steel springs meet MS 24586 and come with a traceable lot number and material test report.
For specialty applications and connections, these springs have unique end types.
These fabric-covered rubber springs stretch to up to three times their original length—much farther than traditional extension springs, tie downs, and shock cords.
These zinc-plated steel springs have mild corrosion resistance.
Use these high-carbon steel springs in noncorrosive environments.
Made of stainless steel, these springs are more corrosion resistant than steel wave disc springs.
A gap allows these springs to compress without widening, so they won't bind or deform when used inside a housing with tight clearance.
These springs withstand temperatures from -400° to 1100° F. All are 718 nickel, a high-strength, corrosion-resistant alloy that's also known as Inconel.
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.
These springs meet MIL-W-12133.
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.
Install these springs, also known as bearing preload washers, against ball bearings to reduce noise and unwanted movement along the shaft.
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.
Made of stainless steel, these springs are more corrosion resistant than steel springs.
These flat rubber springs handle heavy loads, similar to Belleville disc springs, and resist oxidation, oil, and abrasion.
Notches make these springs more flexible than Belleville disc springs and allow liquid to flow around the spring, even while it's in use.
These springs follow the Raymond die spring color code.
Colors and sizes follow ISO 10243 for metric die springs.
Use these spring-tempered steel die springs for low-cycle applications such as trimming and stamping.
A quieter, more vibration-resistant alternative to traditional steel die springs, these polyurethane springs resist oxidation, oil, and abrasion in high-load, high-pressure applications.
Wind these springs to store power, then release them to create rotary motion—similar to winding a wristwatch. Also known as clock springs and power springs.
No matter how far you extend them, these springs pull back with the same amount of force.
Unlike constant-force springs, the farther you pull these, the harder they are to pull. Use them for applications where the load becomes lighter as the spring contracts, such as in automated dispensing machines.
Clip the end onto a flat surface to install—no fasteners needed. Once installed, these springs pull back with the same amount of force no matter how far you extend them.
With ends that are connected to form a circle, these garter springs exert strong radial (towards the center) forces from all directions to maintain pressure on shafts or in seals.
Similar to disc springs, these linear springs are good for absorbing vibration and filling in gaps along the length of an object.
A temperature-resistant seal allows these gas springs to withstand heat up to 392°F.
Mechanical operation means these springs have no seals to fail or gas to leak.
With no gas to leak out and a corrosion-resistant 316 stainless steel construction, these mechanical springs are built for long-term, maintenance-free use in wet environments.
Stainless steel construction provides corrosion resistance for use in damp environments.
These general purpose gas springs assist in opening lids, covers, windows, conveyors, and seats—similar to a hatchback opening on a car.
These gas springs have threaded ends so you can use them with any combination of end fittings, studs, and mounting brackets.
Made from stainless steel for excellent corrosion resistance in damp environments.
Often used to open lids, covers, windows, conveyors, and seats, these gas springs function similar to a hatchback opening on a car. They have an eyelet end fitting on each end.
Ensure you have the correct force for your application. These gas springs have a bleed valve so you can release gas to permanently reduce the force to meet your requirements.
Release gas from these springs until they supply the exact force you need—made of corrosion-resistant 316 stainless steel, they’re commonly used in wet environments.
Color coded by force to help you choose the correct replacement, these gas springs generate high force.
Often used to replace coil springs in metal stamping and die-spring applications, these gas springs match the diameter and stroke length of coil die springs but offer much more force.
Made from stainless steel for excellent corrosion resistance in damp environments. These gas springs have a bleed valve so you can release gas to permanently reduce the force to meet your requirements.
Also known as tension and traction gas springs, these work in the opposite direction of other gas springs. Similar to a screen door closing, they're used to assist in closing covers, hoods, and doors.
Isolate vibration and absorb shock from moving equipment, even with changing loads. Also for leveling and lifting, use compressed air to adjust air springs to the height and force required for your application.
Designed to test the pull and push force of springs, insert these testers into your quality control line right out of the box.