Linear actuators

Linear actuators differ from other electric motors, particularly in their design and application area. They are engineered to provide high torque and withstand heavy loads, making them ideal for cranes and other heavy industry applications. They often feature stronger components and better cooling systems to endure continuous and intensive use in challenging conditions.

Choosing the right linear actuator requires defining the load requirements, speed requirements, and operating conditions. First, assess the necessary torque and power. Also, check the operating environment, such as temperature and humidity, as well as potential corrosion risks. Select a motor that meets these requirements and is compatible with the control system being used. Consult the manufacturer’s technical specifications and recommendations to ensure optimal performance.

Linear actuators are commonly used in cranes, construction equipment, and material handling devices. In ports, they assist in lifting and moving containers and other heavy loads. In industrial facilities, linear actuators are used to move large machines and equipment, as well as in internal logistics within factories. On construction sites, they serve as power sources for construction cranes and other equipment handling heavy loads.

Linear actuators enhance the efficiency of industrial equipment by providing high torque and precise speed control. This enables smooth and effective operation of devices handling heavy loads. The durable construction of the actuators and their efficient cooling systems reduce downtime and maintenance needs, increasing the device’s uptime and reducing operating costs. Linear actuators also offer better controllability, improving safety and productivity.

The most significant advantages of linear actuators compared to hydraulic systems are better energy efficiency, reduced maintenance requirements, more precise controllability, and environmental friendliness. Linear actuators consume less energy because they do not waste energy maintaining the pressure of fluids. They have fewer moving parts, which reduces maintenance needs and extends their lifespan. Precise electronic control allows for better motion management. Additionally, they do not use oil, which reduces the risk of leaks and environmental contamination.