Basics

Identifying challenges

Linear lifting movements often operate unobtrusively during operation—until processes start to slow down, cycle times no longer match, or additional time buffers become necessary. Although everything appears to be working correctly, the system is not reaching its full potential. In many cases, the reason lies in the design of the lifting movement itself.

Here you will learn how to identify hidden challenges at an early stage and classify typical problems.

How to solve these problems – with practical, application-oriented articles

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My current drive does not deliver the performance required for my application

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My system does not achieve the desired output, even though all components are functioning

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The drive has to pause or be serviced more frequently than I planned for during operation

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I have to allow for larger time buffers in order to operate the process reliably.

When processes work but performance still falls short

Many challenges in linear lifting movements do not arise where you might initially expect. Processes generally run smoothly, the system functions - but cycle times are not met, output falls short of expectations, or time buffers must be built in to maintain reliable operation.


The design of the lifting movement as a critical factor

Often, the cause lies less in the overall process than in the design of the individual movements. A lifting movement that is too slow, too sluggish, or constantly operated at its performance limit can become an unnoticed bottleneck - with effects on productivity, quality, and the system’s lifespan.


Why early detection is crucial

Hidden challenges in lifting movements often only become apparent during operation. Once they are noticed, it is important to act thoroughly - but without delay - by selecting a suitable drive to prevent future bottlenecks.

Identifying challenges

Let's dive in:

High-speed lifting movement

Typical challenges in high-speed linear strokes

Typical challenges in high-speed linear strokes

Next topic:

Understanding Drive Technology

Learn about the different types of drive technologies and how they differ from one another.

FAQs

Linear drive technology makes something move in a straight line instead of rotating. It's used in machines to push or pull things precisely back and forth.

There are mechanical, electromechanical, direct electric Linear Actuators (linear motors), as well as hydraulic and pneumatic linear actuators. We utilize electromechanical actuators in our drive solutions.

Which types of linear drive technology there are - GROB GmbH chevron_right

Electric linear drives use electrical energy for motion, whereas hydraulic and pneumatic drives use fluids or gases. Electric drives are more precise and efficient.

A Linear Actuator converts rotational motion into linear motion. It is powered by electric motors. However, linear movements can also be achieved through hydraulic or pneumatic actuators. Electric Linear Actuators are used for more precise movements.

Consider load, speed, precision, environmental conditions, space requirements, and cost to choose the right product. Our product finder will help you make the right decision. Click here to go directly to the product finder.

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