A recently completed research project explored new ways of improving the supply of cooling lubricant during milling. The focus was on developing a tool with targeted cooling lubricant supply to the active cutting edges. The aim of this approach is to reduce resource consumption and increase tool life.
The prototype developed in the project showed particular advantages at low engagement widths. Targeted cooling lubricant supply reduces energy consumption and allows better temperature control. This optimised supply not only contributes to resource savings, but also offers practical advantages through more efficient processes. The technology thus supports more environmentally friendly and effective manufacturing.
Another benefit of the optimised cooling lubricant supply is the potential extension of tool life. Improved process stability and reduced resource consumption promote more economical and sustainable production. These advances illustrate how scientific research approaches can offer practical solutions to industrial challenges and thus contribute to a sustainable future for mechanical engineering.
This project represents another step towards resource-saving and cost-efficient manufacturing. The findings provide a solid basis for the further development of intelligent cooling lubricant systems that meet industrial requirements while offering ecological advantages. Such technological developments show that efficient and resource-saving manufacturing processes are possible, resulting in both economic and ecological gains in the long term.
Overall, the results of this project offer scope for further innovation and underline the potential of selective cooling lubricant supply in modern manufacturing environments. Applying these findings could help to advance the industry towards more sustainable production methods, optimising both energy and material use. This development points the way to a future in which technological advances can be used specifically for resource-efficient production.
Contact:
For further information, please contact Alexander Schulze on +49 511 762 18179 or by email at schulze@ifw.uni-hannover.de.
