Im Projekt wurde unter anderem die Passform von Masken optimiert, damit weniger Lecks entstehen, die ein Einfallstor für Viren sein können.
Improved protective masks through innovative protective textiles
Mouth-to-nose protection has become commonplace during the Covid-19 pandemic. But many of the available products are not tailored for such uses. In the “Next Generation Protective Textiles (NGST)” project, ten Fraunhofer institutes are working on improved solutions that combine high protection with improved wearer comfort.
Links: Experimentelle Analyse der Mikrostruktur von faserverstärkten polymeren Gehäusematerialien
im Bereich der Elektroden.
Rechts: Einfluss der Mikrostruktur (Füllstoffverteilung) auf das
resultierende elektrische Feld und die
Isolationseigenschaften des Gehäusematerials.
Reliable polymer cases for the protection of power electronic components
In a joint research project entitled "PolyLEktronik" Werkzeugbau & Kunststofftechnik Kruse GmbH (WBKT) and the Fraunhofer IMWS have set themselves the goal of developing highly reliable polymer cases for power electronics components that are suitable for series production.
Ideal cross-linking degrees for solar modules through optimized quality control
The encapsulation of solar cells is of great importance for the overall performance of a solar module. Only if this has a seamless finish, protection of the solar cells from environmental influences can be guaranteed. In a new project, Fraunhofer Center for Silicon Photovoltaics CSP and its partners are investigating the ideal degree of cross-linking for module reliability in order to increase the stability, reliability of supply, system performance and productivity of photovoltaic systems.
Showcase project for the bioeconomy - orange peel for valuable bio-based epoxy resins
Sustainable alternatives are needed to reduce the use of petroleum-based polymers. A promising approach is provided by the international OrangeOil project, in which the Fraunhofer IMWS, among others, is also involved alongside the SKZ Plastics Center. The aim is to develop a bio-based epoxy resin system from orange peels - a residual material from the production of juice and jam.
Mit hochauflösenden Geräten gewinnen die Mitarbeitenden des Fraunhofer IMWS Erkenntnisse über die Beschaffenheit von Werkstoffen und können so beispielsweise Materialien für die Wasserstoffwirtschaft leistungsfähiger und zuverlässiger machen.
Fraunhofer IMWS ranked among Germany’s most innovative companies
The Fraunhofer Institute for Microstructure of Materials and Systems IMWS in Halle (Saale) has been awarded as one of "Germany's most innovative companies" for the fourth time in a row. The Fraunhofer Center for Silicon Photovoltaics CSP is also represented with the highest rating in this ranking.
Der im Projekt entwickelte Demonstrator für Turbinenanwendungen.
Robust sensor for harsh environmental conditions
Sensors that function reliably even at extremely high temperatures or in corrosive environments are in demand, for example, for use in energy technology, such as geothermal or turbine applications, or in chemical technology. In a new joint project, the Fraunhofer IMWS is contributing its expertise in materials analysis and has developed new possibilities for materials characterization in the high-temperature range.
Prof. Dr. Erica Lilleodden is new director of the Fraunhofer IMWS
Materials scientist Prof. Dr. Erica Lilleodden has been appointed as director of the Fraunhofer IMWS. She takes over this post from Prof. Dr. Matthias Petzold, who had successfully led the institute on an interim basis since October 2019.
Im Projekt sollen Großladungsträger durch den Einsatz von thermoplastbasierten Sandwichkonstruktionen die Transport bedingten CO2-Emissionen reduzieren und dadurch klimafreundlicher werden.
Efficient lightweight sandwich technology for climate-friendly logistics systems
In a new project, the Fraunhofer IMWS is pursuing the goal of optimizing large load carriers. By using thermoplastic-based sandwich constructions, they can combine low dead weight, high stability, flexible design and a CO2-saving life cycle.
Prof. Peter Michel, Prof. Armin Willingmann, Prof. Michael Bartke und Prof. Matthias Petzold eröffneten den Erweiterungsbau.
Extension building of Fraunhofer PAZ opened
With new facilities for thermoplastic-based lightweight construction, sustainable tire applications, and digital component development and production processes in plastics processing, the polymer processing area at the Fraunhofer PAZ in Schkopau has been expanded. A total of a good 11 million euros was invested.
Eine Plattform mit Daten zu Kupfer-Legierungswerkstoffen entlang des gesamten Lebenszyklus möchte das Fraunhofer IMWS gemeinsam mit Partnern im Projekt bereitstellen.
Data platform to increase efficiency, productivity and sustainability on copper alloy materials
The Fraunhofer IMWS wants to provide a platform with data on copper alloy materials along the entire life cycle together with partners. The data, which is linked by means of ontologies, connects material characterization, alloy development, performance and service life through to recycling.
Die Komponenten von Offshore-Windkraftanlagen sind extremem Stress ausgesetzt.
Power electronic components for offshore wind turbines
New components from the chip to the system level, developed by Fraunhofer IMWS and partners, reduce switching losses, improve power density and reliability, and enable a 50 percent increase in service life.
We analyze the properties of microelectronics and microsystem technology components and thus increase the reliability and performance, for example, of computer chips and sensors.
We open up new potential for the use of polymers - for example, as lightweight construction materials for the automotive and aviation industry, in efficient tyres or as plastics made of renewable raw materials.
How good are the materials used in medical engineering and biotechnology? How can cosmetic care products be improved? What can materials made from natural materials achieve? We find out.
We use our top expertise to improve technology, from wafer manufacture to module production. We develop new materials to make photovoltaics more cost effective, more efficient and more reliable.
We drive innovations for microstructure-based optimization of optical materials and coatings, as well as for laser processing technologies used in industrial applications.