Tension springs are helical springs designed to absorb and store energy by offering resistance to a tensile force. Proper specification requires balancing spring rate, material fatigue limits, and end-fitting geometry.
Gas springs are hydro-pneumatic lifting devices that use compressed nitrogen and hydraulic oil to provide controlled force and motion in mechanical assemblies.
Select the correct gas spring force by calculating panel weight, hinge distance, and stroke length. Measure extended and compressed lengths accurately to ensure proper fit.
Spring force calculation determines the exact Newton force required for gas strut applications based on weight, geometry and mounting. This guide covers the formula, parameters and calculator use for accurate results.
Learn to install gas struts correctly with precise measurement techniques, torque specifications and safety checks for automotive lid applications.
Dampers in gas springs regulate extension speed using hydraulic oil, preventing sudden movement and reducing wear in lids, hatches and equipment.
Gas struts are pneumatic energy storage devices providing controlled lift and damping for industrial, automotive, and furniture applications.
Correct gas spring installation requires precise geometry, orientation, and safety protocols to ensure 50,000+ cycle life and operational performance.
Locking gas springs provide controlled, variable-position holding for heavy lids, ergonomic equipment, and adjustable machinery.
Compression springs are open-coil helical springs designed to provide a resistive force when compressed along their axis. Proper specification requires balancing material, wire diameter, and coil geometry to meet load requirements.
