High-Thrust Servo Electric Cylinder Vertical Precision Electric Actuator

By screw type: trapezoidal screw type (Conferia KA10-70), ball screw type, planetary ball screw type, etc.

By motor type: DC motor type (12/24/36V), AC motor type (220/380V), stepper motor type, servo motor type, etc.

By screw type: trapezoidal screw type (Conferia KA10-70), ball screw type, planetary ball screw type, etc.

By motor type: DC motor type (12/24/36V), AC motor type (220/380V), stepper motor type, servo motor type, etc.

Main Applications

Electric actuators are versatile auxiliary drive devices widely used in industries such as power, machinery, metallurgy, transportation, mining, petroleum, chemical, lifting, transportation, construction, and grain feed processing. They feature reliable performance, sensitive operation, smooth running, equal push-pull force, and good environmental adaptability.

Main Structure

The electric actuator consists of a drive motor, reduction gears, screw, nut, guide sleeve, push rod, slide seat, spring, housing, turbine, micro-control switch, and other components.

The electric actuator is a new type of electric execution mechanism, mainly composed of a motor, push rod, and control device. It is a novel linear actuator capable of remote and centralized control. The electric actuator performs reciprocating motion within a certain stroke range, with standard strokes typically at 100, 150, 200, 250, 300, 350, and 400mm. Custom strokes can also be designed according to specific application requirements. Electric actuators can be designed with different thrust capacities based on varying application loads, generally up to 6000N. The no-load operating speed ranges from 4mm to 35mm/s. Powered by a 24V/12V DC permanent magnet motor, the electric actuator converts the motor's rotary motion into linear reciprocating motion. It drives a set of linkage mechanisms to perform switching operations for dampers, valves, gates, baffles, etc. Using electric actuators as execution mechanisms not only reduces the need for air source devices and auxiliary equipment required by pneumatic actuators but also decreases the weight of the execution mechanism. Pneumatic actuators require a certain air pressure throughout the entire control operation. Although amplifiers with low consumption can be used, the cumulative air consumption remains significant. In contrast, electric actuators only require power when changing the control opening; once the desired opening is reached, no further power is needed. Therefore, from an energy-saving perspective, electric actuators have significant advantages over pneumatic actuators. They are suitable for remote operation and widely used in sectors such as power, chemical, metallurgy, mining, light industry, transportation, and shipping for opening and closing dampers, valves, gates, material handling, flow control, etc. They are increasingly being adopted to replace mechanical hands, hydraulic valves, and reduction transmission mechanisms in automated devices.