Archive 2020

Wood be better

„Wood be better!“ ist ein Forschungsprojekt aus der Förderschiene Talente regional der FFG. Im Projekt werden Kinder und Jugendliche aus insgesamt sechs Schulklassen bzw. Kindergartengruppen im Raum Tulln über einen Zeitraum von zwei Jahren gemeinsam mit Wissenschafter/Wissenschafterinnen und Techniker/Technikerinnen verschiedene Fragestellungen aus dem Bereich der Holzforschung und Holztechnologie spielerisch und altersgemäß aufbereitet kennenlernen, und das spannende, heimische, biologische und nachhaltige Material Holz mit all seine Facetten und Möglichkeiten verstehen und anwenden lernen.

Fire behaviour of renewable raw materials

Since September 2019, Wood K plus has been working on a strategic dissertation at its site in Tulln, which deals with a well-known but nevertheless red-hot topic. The focus is on research into the thermal decomposition of wood and other renewable resources. Old knowledge about pyrolysis, gasification, ignition and combustion is to be used and supplemented by new investigations and measuring methods. In addition to a better understanding of thermal degradation, the knowledge gained will contribute to a more targeted and efficient use of wood and renewable resources.

Wood K plus – optimiertes rezyklieren von Holzprodukten durch speziellen Aufschluss

Im Projekt ‚holz-autark‘ werden Grundlagen beforscht die es ermöglichen, Altholz mechanisch aufzuschließen, ohne dessen Eigenschaften wesentlich zu verschlechtern. Auswirkungen verschiedener mechanischer Zerteilungstechniken (Verfahrens- und Werkzeugparameter) auf die Partikelqualität werden untersucht, um den idealen Altholzspan zu identifizieren.

PineXLAM - Courage to CLT (cross laminated timber) from pine! Successfully completed FFG industrial project

The IQEC team (indoor quality and emission control) of the area Tulln was recently able to record a great success: Within the framework of the FFG Collective Research program line the 3-year industrial project PineXLAM has been successfully completed. PineXLAM, short for CLT (cross laminated timber) made of pine wood, dealed with the characterization and optimization of the production processes for pine wood based cross laminated timber with regard to the reduction of VOC emissions, to enable its use for interior purposes. The consortium comprised he five largest Austrian cross laminated timber manufacturers (Stora Enso, KLH, Mayr-Melnhof, Binderholz and Hasslacher Group) as well as the professional association of wood industry.

Wood K plus – Zuhören lernen für adaptive Fertigungstechniken

Das Projekt ‚WoodSonics‘ schafft die wissenschaftlichen Grundlagen für adaptive Fertigungstechniken in der Holzindustrie. Die Prozessüberwachung durch Analyse der bei der Verarbeitung auftretenden Schallspektren ermöglicht zukünftig eine deutliche Effizienzsteigerung sowie eine Verringerung von Rüstzeiten und Anlagenausfällen.

Be on trial – fiber-reinforced components from 3D printer

Additive manufacturing or 3D printing is superior to other processes in terms of cost efficiency, customizability and sustainability and is therefore gaining ground in more and more areas. The possibilities are not yet optimized in all extents. The FFG project eFAM4Ind - endless fiber reinforced additive manufacturing for industrial applications, which was launched in April 2020, aims to explore these in the high-performance product segment and lightweight construction: Under the direction of the Chair of Materials Science and Testing at the University of Leoben and together with SinusPro, the Polymer Competence Center Leoben (PCCL), the Competence Center Wood and Head Sport as research partners, testing and simulation routines for predicting the durability and service life of fiber-reinforced components from the 3D printer are to be developed.

Project 3D-CFRP – Additive Manufacturing of Continuous Fibers Reinforced Polymer Composite Materials for High Performance Structural Applications

Within the 3-year M-ERA.NET project “3D-CFRP” Wood K plus works together with international industrial partners and universities on the development of new material combinations as well as the optimization and adaptation, respectively, of processing methods for the production of additively manufactured structural components made of endless-fibre-reinforced thermoplastics.