Our passion is to understand our products from the entire system down to the smallest screw and thus create the best possible solutions.
For this purpose, we apply established numerical simulation methods such as finite elements, computational fluid dynamics and multi-body simulation but also develop numerical methods and models.
It is not enough to develop the most powerful tools to increase the productivity of our customers. We want to develop the most powerful tools in their weight class with the best power to weight ratio. We achieve this by numerically optimizing the impact mechanism in terms of both power and weight.
Robustness is one of the promises of our products. To ensure that our customers can continue working even if the tool falls to the ground - we drop virtually during development hundreds of times.
Intense labour with a heavily vibrating tool increases risk of long-term injuries. Well through-out and precisely designed vibration reduction systems reduce the vibrations affecting the user and provide protection against the effects of long-terms vibration exposure.
Our dust management solutions help to keep the construction site clean, clear dust out of the way and protect the health of the user. We use num. methods like computational fluid and particle dynamics to optimize the dust transport - from its generation at the tool to its deposition in the dust bag.
Assess global system behavior of tools in virtual prototypes - from the user to the application.
Develop and apply state of the art optimization technologies
Coupling of different physical domains to improve the prediction of complex system behavior
Join a market leader in research and development and work on innovations that break new ground and push boundaries for our industry.
