Actuators Manufacturers online

Actuators are devices that convert energy (electrical, hydraulic or pneumatic) into mechanical movement.

They are of central importance in many applications and industries in order to control movements, automate processes or move loads. The right choice and use of actuators are crucial for the efficiency and performance of machines and systems.

Below is an overview of actuator types and areas of application:

The following actuators are offered:

1. Electric actuators:
Work with electric motors that convert electrical energy into mechanical movement. They are widely used, easy to control and suitable for precise applications.

2. Hydraulic actuators:
Use pressurized hydraulic fluids to generate strong forces. They are ideal for high-performance applications, such as in construction machinery or aircraft.

3. Pneumatic actuators:
Utilize compressed air to create motion. Commonly found in industrial automation, they offer a simple, cost-effective solution for applications with lower power requirements.

4. Thermal actuators:
Operate by the expansion or contraction of a material as the temperature changes and are often used in thermal control systems.

5. Magnetic actuators:
Use magnetic fields to create motion, such as in speakers or solenoid valves.

Actuators are used in these areas:

1. Industrial automation:
Used in machines and production lines to generate movements such as turning, pushing or pulling. They control valves, robot arms, conveyor belts, and machine tools.

2. Robotics:
Actuators are the "muscles" of robots and are used to move joints, open and close grippers, or pivot robotic arms.

3. Aerospace:
Used to control flaps, rudders and landing gear in airplanes and to position satellite components.

4. Automotive industry:
Used in systems such as power windows, seats, sunroofs, door latches, exhaust flaps and automatic transmissions.

5. Medical technology:
Actuators can be found in medical devices such as surgical robots, electric patient beds, prostheses and orthoses.

6. Building technology and smart home:
In heating, ventilation and air conditioning (HVAC) systems, blinds, automatic doors and windows, and smart furniture.

7. Energy generation:
Controlling valves, throttles and other components in power plants, wind turbines and solar panels.

Advantages of using actuators:

• Actuators enable the automation of processes, increase efficiency and reduce human workloads.
• Electric actuators offer high precision and enable accurate control of movements.
• Hydraulic actuators offer high power density and can generate large forces in a small space, ideal for heavy machinery.
• Pneumatic actuators have a fast response time and are therefore suitable for fast switching operations and controls.
• Different types of actuators can be used in a variety of applications, depending on the requirements for movement, force and precision.

Disadvantages and challenges:

• High-quality actuators can be expensive, especially those with special precision, material or certification requirements.
• Hydraulic and pneumatic actuators can have high energy consumption, especially when operated for long periods of time.
• Hydraulic systems require regular maintenance and are more complex to install and operate than electrical systems.
• Pneumatic actuators can be noisy, which is a disadvantage in noise-sensitive environments.
• Some actuators, particularly hydraulic and pneumatic, can be sensitive to extreme temperatures and environmental conditions.

Actuators are key components in a variety of applications that require mechanical movement, from industrial automation to medical technology. Selecting the right type of actuator depends on many factors, including the type of motion, the force required, the power source, the environment and the maintenance requirements. A well-chosen actuator will significantly improve the efficiency, reliability and precision of the application.

Here is an overview of the most important criteria to consider when purchasing actuators:

When purchasing actuators, there are several factors to consider to ensure that the model chosen meets the requirements of the specific application.

• For applications such as lifting devices or sliding doors, for example, actuators that produce a linear movement, such as push rods or cylinders, are suitable.
• For applications that require rotary motion, such as valve controls or robot joints, actuators that generate rotary motion, such as servomotors or rotary cylinders, are intended.
• Determine the maximum force or torque that the actuator must generate. The choice of type and size of actuator depends heavily on these requirements.
• The required speed at which the actuator is to move must also be taken into account. Electric actuators usually offer more precise speed control than hydraulic or pneumatic actuators.
• Choose an actuator that offers the desired positioning accuracy and repeatability, especially important in high-precision applications such as robotics or medical technology.
• Electric actuators often offer better control options (e.g. via feedback or control loops) than hydraulic or pneumatic systems.
• Consider which energy source is available in your application (electric, hydraulic, pneumatic) and select the actuator accordingly.
• An actuator with low energy consumption can save costs in the long term, especially in applications with continuous operation.
• The actuator should be suitable for the temperatures in which it will operate. Some actuators are less suitable for extreme temperatures (very hot or cold).
• Pay attention to the protection class of the actuator (IP protection class) to ensure that it works reliably in environments with moisture, dust or corrosive materials.
• Choose an actuator that is suitable for the expected mechanical loads (e.g. vibrations, shocks).
• The service life of an actuator should meet the requirements of the application, especially for applications that require high reliability.
• Check whether the actuator requires regular maintenance and what type of maintenance is required (e.g. lubrication, cleaning).
• Make sure that the actuator fits into the available space and is not too large or too heavy for the application.
• The weight of the actuator can be critical in applications where low mass is important (e.g. aerospace or portable devices).
• Compare the purchase costs of different actuators and assess whether the price is in proportion to the functions and quality offered.
• Consider not only the purchase price, but also the operating costs, including energy consumption, maintenance and potential downtime.
• In safety-critical applications, actuators should offer special safety functions such as overload protection, emergency stop or fail-safe operation.
• Ensure compliance with relevant safety standards and certifications, such as CE, UL or ATEX (for potentially explosive environments).
• Ensure that the actuator is compatible with the existing control systems and other components of the installation.
• Ensure that the actuator can be mechanically integrated correctly into the overall system, including mounting points and connection types.
• Some actuators offer modular designs that allow for expansion or future customization.
• Consider whether the actuator needs to fulfill special requirements, e.g. quiet operation, explosion-proof design or high torque capacity.

When purchasing an actuator, you should know the specific requirements of your application. Important criteria are the type of movement, the required force and speed, the precision, the environmental conditions, the energy source and the service life. Careful selection and testing of these factors will ensure that the actuator functions optimally and meets the requirements.

Actuators can be purchased from various suppliers. Comprehensive information about manufacturers and suppliers of actuators from all over the world can be found on Exportpages.