ForPeat researches the sustainable management of peatland forests through rewetting, AI-supported monitoring and climate protection. The project develops practical solutions for biodiversity, CO₂ storage and EU certification.
Development of a fiber-friendly recycling route for natural fiber-reinforced plastics (NFRP) in order to use long fibers for the production of NFRP mats and short fibers for the production of injection molding granulate in a closed loop.
The aim of the project is to reduce the energy consumption in the thermoplastic foam injection molding by replacing energy-intensive variothermy with the use of novel coating strategies.
The aim of the project is to investigate the powder-bed-based melting of injection mold inserts with a focus on innovative cooling channel geometries, simulation approaches and post-processing methods for adjusting molded part properties.
Rosenheim University of Applied Sciences is planning a process technology for the CO2-neutral production of semi-finished fiber products from renewable raw materials. The aim is to optimize the production chain for sustainable lightweight construction, whereby gaps to conventional reinforcing fibres are to be closed.
When producing vegetable oils or fruit juices with 2-phase decanters, approx. 80-90% of the oil or juice can be extracted in high quality. To significantly reduce the loss, the processes involved in dehydrating the marc, the rheological behavior of the liquid and the powder flow of the pile will be investigated. Simulations of the discrete element method coupled with flow simulation and thus a new screw geometry for improved extraction of the marc.
The project aims to understand the effect of interfering, high-frequency coupling in a microphone installed in a mobile device (e.g. smartphone, tablet) and to reduce it by means of suitable measures.