Inputs
- Effective moving mass
- Impact velocity
- Cylinder drive force
- Shock absorber stroke
- Energy safety factor
- Cycles per hour
Energy absorption
Estimate energy capacity per cycle and hourly heat dissipation for an external shock absorber stopping a pneumatically driven load. Enter the application values to calculate four decision-ready outputs and review the governing assumptions before selecting equipment.
Energy absorption
Estimate energy capacity per cycle and hourly heat dissipation for an external shock absorber stopping a pneumatically driven load. Enter the application values to calculate four decision-ready outputs and review the governing assumptions before selecting equipment.
Engineering visual
A moving mass enters a finite stopping or cushion distance. Velocity, stopping distance, deceleration, force, and absorbed energy share one motion path.
Calculation reference
Use the displayed relationship to understand how the entered conditions affect the result. Treat the output as a preliminary selection, then verify actual operating conditions, catalog limits, and safety margin.
Engineering guide
Calculate shock absorber sizing calculator for a pneumatic application and compare the result with supplier data.
Enter Effective moving mass, Impact velocity, Cylinder drive force and replace every default with application data.
Run the calculation while keeping pressure, temperature, geometry, and reference states consistent.
Interpret Required energy capacity, Load kinetic energy, Drive-force energy against the supplier datasheet, machine risk, and an appropriate design margin.
The relationship is a first-pass rigid-body or elastic-member estimate; guides, joints, seals, and structural compliance can change the installed result.
Use pressure available at the actuator and verify mounting, cushioning, duty, speed, and catalog load limits.
Start with measured or supplier-confirmed values for Effective moving mass, Impact velocity, Cylinder drive force, Shock absorber stroke. The calculator updates all outputs together, making it easier to see which assumption controls the preliminary selection.
Required energy capacity, Load kinetic energy, Drive-force energy, Average hourly dissipation answer different parts of the same engineering question. Use the primary result for selection, the secondary values to audit units and margins, and the visible formula to reproduce the calculation in an RFQ worksheet.
The relationship is a first-pass rigid-body or elastic-member estimate; guides, joints, seals, and structural compliance can change the installed result. Use pressure available at the actuator and verify mounting, cushioning, duty, speed, and catalog load limits. Final approval requires the current manufacturer datasheet and validation under installed conditions.
FAQ