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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.
These springs meet MS24585 and come with a traceable lot number and material test report.
If you're designing something unique or can't find the exact size spring you need, we'll get it for you.
Install these springs in tight spots. When pushed together, the coils nest within each other.
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 zinc-plated steel springs have mild corrosion resistance.
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 stainless steel anchor studs offer excellent corrosion resistance.
A black-oxide finish provides mild corrosion resistance.
Whatever the size, we'll get the spring you need.
Made of stainless steel, these springs are more corrosion resistant than steel springs.
These springs follow the Raymond die spring color code.
Colors and sizes follow ISO 10243 for metric die springs.
Keep these 36" springs on hand so you can cut the right length whenever you need it.
Use these spring-tempered steel die springs for low-cycle applications such as trimming and stamping.
In addition to providing a backing for springs, these screw caps can also be used to control spring tension.
Protect dies from damage caused by spring failure. Cages enclose springs to retain fragments if they break.
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.
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.
No matter how far you extend them, these springs pull back with the same amount of force.
Keep a collection of three of the most common types of springs on hand.
When compression springs are pushed together, they push back to return to their original length. Commonly used in shock absorbers and to secure batteries, they're are easier to push together than die springs.
These assortments include springs that pull and springs that push.
The springs in these assortments have deep hooks that are less likely to slip off compared to standard extension springs.
The more you extend these springs, the greater the force the springs will exert to pull the two points back together. They're commonly used to tension cable, return an air cylinder to its starting point, and hold a door closed.
Mounted diagonally so one end is higher than the other, the motion of an opening door tightens the torsion spring; as it unwinds, it closes the door.
These closers consist of two interconnected springs—twist them to adjust closing force. The springs retract to pull storm doors and gates closed.
Springs retract to pull storm doors and gates closed.
Keep your overhead door balanced on both tracks for smooth, even opening and closing. These winding rods help you safely increase and decrease the tension on the springs that hold the door.
Change out worn or broken springs in the handle of your locking pliers.