Explore the future of pneumatics. Our blog offers expert insights, technical guides, and industry trends to help you innovate and optimize your automation systems.
Pneumatic pressure boosters work by using a large-diameter piston driven by low-pressure air to compress air in a smaller chamber, multiplying the input pressure by ratios typically ranging from 2:1 to 25:1, delivering the high-pressure air needed for demanding industrial applications.
Pneumatic pressure boosters multiply existing air pressure up to 25:1 ratios, delivering high-force output from standard plant air while reducing equipment costs by 60% compared to hydraulic alternatives and eliminating the need for expensive high-pressure compressor installations.
Linear actuator duty cycle represents the percentage of time an actuator operates within a given period, typically expressed as a ratio of operating time to total cycle time, directly affecting heat generation, component wear, and overall service life.
The key to proper pneumatic rotary actuator sizing lies in accurately calculating torque requirements, understanding operating conditions, and matching these parameters to actuator specifications while maintaining appropriate safety margins.
The main difference lies in their mechanical design: rack & pinion actuators use linear-to-rotary conversion through gear mechanisms, while vane type actuators generate rotation directly through pressurized chambers.
