The design of hydraulic shock absorbers requires parameter optimization based on specific application scenarios. Common design considerations include:
Load Weight: For heavy-duty equipment (such as punch presses or hydraulic presses), a shorter cushioning stroke is required to rapidly absorb energy and prevent equipment damage. Conversely, for lighter equipment (such as automated conveyor lines), the cushioning stroke can be extended to reduce impact forces.
Operating Speed: High-speed moving components (such as robotic arms or elevators) require a shorter cushioning stroke to control deceleration time and prevent overtravel. For slower-moving components (such as door mechanisms or automated guided vehicles), a longer cushioning stroke can be used to ensure a smooth stop.
Installation Space: In compact equipment (such as robot joints), the size of the shock absorber is constrained, necessitating a shorter cushioning stroke. In contrast, large-scale equipment (such as cranes) offers ample space for the installation of long-stroke shock absorbers.
