Electromechanical Linear Actuator, Feature : 16-bit Motion Control Card.

Electromechanical Linear Actuators are electromechanical cylinders able to transform a rotary movement into a linear motion. Developed and manufactured for industrial application. Linear Actuators can offer higher linear speeds and loads at up to 100% duty cycle, even in the most extreme conditions and arduous applications.

• Able to work under push or pull load
• According to their features they can be
• Statically self-locking : able to sustain static load keeping the same position when the motor is switched off
• Statically non self-locking: the load can be sustained with a brake motor
• They are capable of maintaining constant speed with a varying load, at a very low noise level. Their motion can be simply a push-pull
• “ON-OFF” action, also they can become servomechanisms working as controlled axes, by means of accessories such as encoders or potentiometers for the positioning control, motors with tacho-generator and servo drives. Their installation is simple and not expensive: it requires just a front and rear hinging as for standard hydraulic and pneumatic cylinders. They can perfectly replace pneumatic or hydraulic cylinders being able to perform
  • Accuracy in push-pull motion
  • Accuracy in stopping position
  • Position holding under load (self-locking)
  • Energy consumption only while moving
  • High safety in lifting a load (internal safety devices available)
  • Use in low temperature environment without freezing problems
  • Use in high temperature environment without fire risk
  • Linear Actuators have a wide application fieldThey are intended for Industrial applications where it is necessary to perform in total safety or to control a linear motion while moving, turning over or lifting a load. The wide range of sizes, stroke lengths, linear speeds, motors and accessories makes it easy to adapt these products for new applications or replace even complicated mechanical solutions and hydraulic or pneumatic cylinders improving the applications final performances.