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.
The Rosenheim Technical University of Applied Sciences is researching the material use of climate-resilient wood and biomass. The focus here is on the processing of new types of wood and waste wood as well as the recycling of the products obtained from them and their recyclability using digital methods and AI.
The project aims to develop a thermoplastic system with process technology that can be produced completely open-pored, efficiently and automatically, is body-compatible and thus has the ideal prerequisites for a wound dressing
In the SelbstSGMKI project, the know-how of the injection molding process is digitally recorded. The set-up operation, the so-called filling study, is automated.
Development of a flexible and mobile cleanroom in modular design with adaptable ventilation concept optimized for plastics processing under cleanroom conditions
The aim is to develop new sustainable material combinations for packaging. Bio-based thermoplastics (e.g. biopolymers) and natural fibers and fillers (e.g. wood fibers) are to be used.