Helix Linear Blog | Linear Actuators

As a technical engineer, one of the critical challenges you may encounter is selecting the ideal stepper motor linear actuator for your application. The performance and success of your project depend heavily on this decision. In this comprehensive guide, we will outline the essential steps and considerations required to choose the correct size and configuration for a stepper motor linear actuator. By following these guidelines, you can ensure optimal functionality, efficiency, and reliability for your specific needs.

As mechanical engineers, we are constantly seeking innovative solutions to enhance precision and efficiency in various applications. One such remarkable invention that has revolutionized linear motion systems is the ball screw linear actuator. In this blog post, we will delve into the intricacies of ball screw linear actuators, exploring their functionality, advantages, applications, and key factors to consider during selection and optimization. Join us on this journey of unlocking the potential of ball screw linear actuators for cutting-edge engineering projects.

Discover the key factors to consider when selecting a drive for your stepper motor linear actuator. Dive into the world of mechanical engineering as we explore the various options, benefits, and challenges associated with choosing the ideal drive for your application.

The ball screw linear actuator is a precision motion control device that has become an essential component in various industries, including automation, aerospace, and robotics. This innovative technology has revolutionized the way motion control systems work, delivering higher accuracy, efficiency, and reliability than ever before.

Bearing end supports for linear actuators is an essential component in your linear actuation application. They ensure load carrying capabilities and long life. They should be sized adequately to handle the axial loads required while supporting the shaft radially.

When selecting the appropriate size of a linear actuator, applying one general number to make a selection, such as a maximum load rating, is difficult.

From improved task flexibility and miniaturization to higher load capacity and advanced controller technology, hexapod positioning systems are becoming more common in multiple industries. Though not new to the market, these versatile motion systems solve many industrial automation challenges, from semiconductor applications to automotive assembly lines.

Today's linear motion and automation challenges require higher precision and faster speeds.

Can-stack linear actuators from Helix Linear Technologies leverage permanent magnets and stepper motor operation to convert rotary motion into linear motion.

For a lead screw linear actuator to convert rotary motion into linear motion, there must be an anti-rotation element on the nut design where the lead screw is rotating. The anti-rotation feature applies to an external linear actuator design as well. However, for captive and non-captive linear actuators where the nut is integral to the rotor and confined within the motor, the lead screw is prevented from rotating to translate rotary motion into linear motion.