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How electric actuators keep tire manufacturing up to speed
Motion control systems throughout the tire-manufacturing process meet specific requirements for increased quality, faster assembly, improved reliability or flexibility to adjust sizes and changeovers. Many systems are currently driven by pneumatic or hydraulic motion control systems. Manufacturers are increasingly opting for electric systems that are cleaner, faster and more efficient.
Making the case: Why convert a tube-bending machine from hydraulic to electric
Tube-bending machines have been driven by hydraulics for the past 80 years. Operators know how to get the best out of their machines, so why switch to electric cylinders? Yes, there are some disadvantages to going electric, but the fundamental reason to consider making the switch is simple: Electric cylinders make better parts. And that saves money. We'll discuss reasons to consider making the switch and take a look at two examples using electric-weld tubing and fluid-transfer tubing.
Demystifying electronic camming
Electronic cams may at first appear challenging, but electric actuators and motion controllers make them surprisingly easy to configure. Here’s how to approach electronic camming with confidence.
Cheese-making: Automating an ancient art for safety and efficiency
Electric linear motion enhances cheese processing and production.
Linear motion for meat processing
Linear actuators used in meat processing are designed for corrosion resistance, washdown protection and bacterial growth prevention.
Motion control solutions for medical device applications
Solutions for medical procedures include equipment for radiation treatment, a contrast dye injection, and a specialty machine that safely performs scans on large animals.
The Big Era of electromechanical linear actuators
Traditionally, hydraulic power is the go-to answer for heavy lifting. Now, high-force electric actuators have overtaken hydraulics in terms of flexibility, precision and reliability.
Automating the squeeze: Tolomatic prototype improves on hand-held emergency ventilator for COVID-19 patients
Our prototypes use electric linear actuators to automate a hand-held, portable and non-invasive emergency ventilator. The advantage of screw-driven linear actuators is that they provide smooth and consistent operation--allowing the device to control the velocity, the acceleration and the distance of any move at any point in time. This controlled motion allows for a more continuous volume of air per compression cycle and a more typical breathing cycle.
How to Calculate Electric Linear Actuator Lifespan
Every machine design engineer gets asked about the anticipated life of their machine—life that’s based on machine components including electric linear actuators. Also, expected service life is a factor engineers consider when they’re evaluating competing components.
Calculating electric linear actuator life can be straight-forward for ball screw and roller screw actuators. You use the L10 life formula for ball bearings. Here's a summary of the method.
Timing belt or power screw drive: What’s best for a rodless actuator?
As a designer, you may be faced with an application in which you have to carry and support a load as well as move it. These are ideal applications for rodless electromechanical actuators.
While determining which rodless actuator model will suit your needs, you'll also need to select the type of drive: belt or screw. This blog will briefly explain these drive systems and summarize their advantages and disadvantages