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Project duration: 2025-01-01 - 2027-12-31

Simulation and validation of (surface) quality characteristics of large-area lightweight components in injection molding with gas-loaded plastic melts

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. Energieeffizienz Produkte und Produktion Produktionstechnik Prozesstechnik Prozess- und Verfahrenstechnik Spritzguss Spritzgussverfahren Werkstofftechnik
Project duration: 2024-04-01 - 2026-06-30

Investigation of powder-bed-based melting of injection mold inserts with a focus on innovative cooling geometries, new simulation approaches and novel post-processing methods for the targeted adjustment of molded part properties in optical injection molding

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. Produkte und Produktion Prozesstechnik Prozess- und Verfahrenstechnik Werkstofftechnik Werkstofftechnik und Materialwissenschaft
Project duration: 2024-01-01 - 2028-12-31

Spitzenprofessuren

Project lead THRO: Prof. Dr. Amber Schneeweis
3D Druck Additive Fertigung Materialwissenschaft Produkte und Produktion ROCkET
Project duration: 2024-01-01 - 2026-07-31

Opti-Zent: Investigation of pomace digestion in centrifugation via experiment and simulation with innovative screw geometry to increase the yield

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.
Project lead THRO: Prof. Dr. Johannes Lindner
Produkte und Produktion Prozesstechnik
Project duration: 2023-10-01 - 2026-09-30

Electromagnetic susceptibility of MEMS microphones

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.
Overall lead for THRO input THRO: Prof. Dr.-Ing. Matthias Winter
Automatisierung Digitale Transformation Mechatronik Produkte und Produktion
Project duration: 2023-10-01 - 2025-12-31

Recycled material in fiber-reinforced hybrid composites - ReProHybrid

Recycled material in fiber-reinforced hybrid composites Kunststofftechnik Produkte und Produktion Recycling Werkstofftechnik
Project duration: 2023-06-01 - 2023-12-31

Biopolymers from renewable raw materials

Research into the use of food waste and algae for environmentally friendly and efficient bioplastics production, waste minimization and climate mitigation
Project lead THRO: Prof. Dr. Manuela List
Bioökonomie Bioökonomie und Holztechnologie Kunststoff Kunststofftechnik Produkte und Produktion Werkstofftechnik
Project duration: 2023-04-01 - 2027-03-31

ReBi - Resource-efficient component innovation through additive manufacturing processes in the Bavarian and Austrian border region

The research project aims to explore new approaches for materials, processes and product design in order to realize resource-efficient component innovations with the help of additive manufacturing.
Sub-project lead THRO: Prof. Dr.-Ing. Fabian Riß
Additive Fertigung Digitale Transformation Klimaschutz Produkte und Produktion Ressourceneffizienz
Project duration: 2023-04-01 - 2026-03-31

Open-cell foams: Development of novel, thermoplastic and biocompatible medical grade blends for the production of open-cell foams in an adapted form of thermoplastic foam injection molding

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 Kunststofftechnik Produkte und Produktion Prozesstechnik Spritzguss Verfahrenstechnik
Project duration: 2023-01-01 - 2024-12-31

AirCoat - ZIM: Entwicklung eines Coatingverfahrens zur homogenen Beschichtung von Feststoffen innerhalb einer Vakuumförderanlage während des laufenden Prozesses

Project lead THRO: Prof. Dr. Johannes Lindner
Produkte und Produktion Prozesstechnik Verfahrenstechnik

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M.A. Laura Scholz

T +49 (0) 8031 / 805 - 2689
laura.scholz[at]th-rosenheim.de