The biggest advantage of the Linear Chain is that it works in both directions. On the one hand, it functions like a 'normal' chain when it is 'pulling' the load. On the other hand, it acts like a rod when the individual chain links rigidly lock together, making the chain rigid to move, for example, a load.
This makes it the ideal solution when alternative linear drive elements, such as a lift drive, are not feasible due to confined space.
However, stroke lengths greater than 2 yards are not possible without guiding the chain, as the Linear Chain would otherwise buckle. A guide stabilizes the chain, allowing maximum force to be transmitted over any distance.
Yet, there are applications where a guide rail is complex or even impossible due to space constraints. How can the Linear Chain still be used in such cases? And how can the Linear Chain itself be guided in these situations?
Well-known technology is used for an innovative operating principle
The task was clear: guide the Linear Chain without an additional guide rail. The idea was to use a telescopic frame made of an aluminum square profile to handle the guidance. How does this work in detail? The free end of the Linear Chain is attached to the load to be moved. As the Linear Chain extends via the electric motor, the square profile also extends, providing the guidance for the Linear Chain. In the retracted state, the guidance of the Linear Chain is no longer present as an obstruction.
Advantages of the Telescopic Linear Chain at a glance:
1. The aluminum profile provides optimal protection for the Linear Chain against dust and dirt.
2. No additional guide rail is needed, as the square profile handles the guidance.