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Project duration: 2024-03-01 - 2029-02-28

Process and system technology for the multifunctional impregnation of flat semi-finished fiber products made from renewable raw materials

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. Bioökonomie und Holztechnologie Bioökonomie und Holztechnologie Produkte und Produktion Prozess- und Verfahrenstechnik Werkstofftechnik und Materialwissenschaft
Project duration: 2024-03-01 - 2026-06-30

Development of a Novel Bimetallic Band Saw Tool for Woodworking

The “BiMeBa” project is developing a band saw blade that enables cost-effective, energy- and resource-efficient wood cutting while delivering high-quality results on various types of wood.
Overall lead - project manager THRO: Prof. Dr. Matthias Zscheile
Bioökonomie und Holztechnologie Bandsäge Bioökonomie und Holztechnologie Holztechnik Holzverarbeitung Produkte und Produktion Sägewerk
Project duration: 2024-01-01 - 2028-12-31

Spitzenprofessuren

Project lead THRO: Prof. Dr. Amber Schneeweis
Produkte und Produktion 3D Druck Additive Fertigung Materialwissenschaft Produkte und Produktion ROCkET
Project duration: 2024-01-01 - 2028-12-31

RO-BERTA4: Continuation of RO-BERTA

The RO-BERTA project supports the Rosenheim hail defense by processing weather data from the German Weather Service as a "hail navigator" for the pilots.
Project lead THRO: Prof. Dr. M.Sc. Peter Zentgraf
Digitale Transformation Digitale Transformation Hagelabwehr Hagelflieger
Project duration: 2024-01-01 - 2027-12-31

Climate-resilient bioeconomy in the value-added cycle of wood and other renewable raw materials

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. Bioökonomie und Holztechnologie Bioökonomie und Holztechnologie Holztechnik Kreislaufwirtschaft Nachhaltigkeit
Project duration: 2024-01-01 - 2027-12-31

FSP II_Energy transition in the neighborhood

The energy transition requires structural changes in the energy, industry, building and transportation sectors. Reducing energy demand and using new technologies creates opportunities for cross-sector networking. Bauen, Planen und Energie Bauen, Planen und Energie energieeffiziente Gebäude Energieeffizienz nachhaltiges Bauen Nachhaltigkeit
Project duration: 2024-01-01 - 2026-12-31

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 Produkte und Produktion Prozesstechnik
Project duration: 2024-01-01 - 2026-10-31

Danubians Cradle-to-Cradle Architecture and construction processes

DECORATOR promotes the transformation of the construction sector towards a circular economy in the Danube region. This combines ecological, technical, social and economic aspects.
Project lead THRO: Prof. Andreas Heinzmann
Digitale Transformation Bauen Bautechnik Bioökonomie Bioökonomie und Holztechnologie Holztechnologie Kreislaufwirtschaft nachhaltiges Bauen Nachhaltigkeit
Project duration: 2024-01-01 - 2026-03-31

Robot-based wall cladding supported by artificial intelligence

The aim of the research project "RoWaPla - Robot-based wall cladding supported by artificial intelligence" is to develop an intelligent, robot-assisted production unit for the cladding of timber frame walls.
Project lead THRO: Prof. Dr.-Ing. Fabian Riß
Übergreifend Automatisierung digitale Transformation Digitale Transformation KI neue Technologien Produkte und Produktion Roboter Übergreifend
Project duration: 2024-01-01 - 2025-12-31

DBU_HELIOS - Predictive Spatial Analytics for Solar Energy Grid Integration: Enhancing Reliability and Efficiency

The "Helios" energy meteorology project is developing precise PV forecasts using cloud camera data in order to optimize the integration of solar power into electrical grids.
Project coordinator THRO: M.Sc. Andreas Boschert, Prof. Michael Zehner
Bauen, Planen und Energie Bauen, Planen und Energie Energieeffizienz Solarenergie

Centre for Research, Development and Transfer

Technische Hochschule Rosenheim

Hochschulstraße 1
83024 Rosenheim


FundE[at]th-rosenheim.de

Support of publications

M.A. Laura Scholz

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