1. Air Source Pressure and Flow Regulation: Increasing the compressed air supply pressure and flow rate directly accelerates the expansion speed of the cylinder/bladder, thereby increasing the lifting speed. Some high-end models are equipped with adjustable valves, allowing users to manually adjust the lifting rhythm according to their needs, achieving a switch between "rapid lifting" and "smooth landing."
2. Tower Structure Optimization: Using lighter materials (such as carbon fiber or high-strength aluminum alloy) to manufacture tower sections reduces the overall weight and the thrust required by the pneumatic system, achieving faster ascent under the same air pressure.
3. Multi-Cylinder Cooperative Drive: Setting up staged cylinders in multi-stage tower sections achieves "gradual pressurization and synchronous extension," avoiding speed decay caused by single-point force and further reducing deployment time.
⚠️ However, please note: Gas is compressible; excessively rapid inflation may cause impact vibration, inaccurate positioning, or even structural damage; and high-speed ascent increases the difficulty of control during descent. Therefore, most devices will actively limit the maximum speed through flow control valves or program control to ensure safety and stability.