Publications and Media

Here you can find information about the research topics in particle technology at Fraunhofer ISC, alongside many scientific publications and patents, through press releases and informational materials.

  • Herbig, B.; Stauch, C.; Rehm, T.; Müller, M.; Barz, J.P.; Nölke, G.; Di Fiore, S.:
    Methoden zur Herstellung von Multifunktionskatalysatorsystemen und deren Nutzung bei chemischen Kaskadenreaktion in Durchflussreaktoren (DE102023203407B4)
  • Mandel, Karl-Sebastian; Schug, Benedikt; Stockinger, Nina; Reichstein, Jakob:
    Partikuläres Additiv für die optische Indikation von Wasserstoff  (DE102021211738B3)
  • Wolter, Herbert; Hausruckinger, Martin; Bäuerlein, Helma; Fischer, Jens:
    Druckbare Dentalimplantat-Mesostrukturen mit Shape-Memory-Effekt (DE102021120277B4)
  • Mandel, K.; Müssig, St.; Wintzheimer, S.; Fidler, F.; Haddad, D.; Hiller, K.-H.:
    Verfahren zur Detektion und/oder Identifikation magnetischer Suprapartikel mittels Magnet-Partikel-Spektroskopie oder Magnet-Partikel-Bildgebung (DE102019204483A1)
  • Haas, Karl-Heinz; Mandel, Karl-Sebastian; Oppmann, Maximilian; Müller-Buschbaum, Klaus; Granath, Tim; Seuffert, Marcel:
    Weiße Magnetpigmente als elektromagnetisch interaktive, aktuierbare, sensorische und induktiv heizbare Additive (DE102018221315B4)
  • Trupp, Sabine; Henfling, Michael; Hemmetzberger, Johann Dieter; Mandel, Karl; Schug, Benedikt; Ballweg, Thomas; Oppmann, Maximilian; Bauersfeld, Marie Luise; Pannek, Carolin; Tarantik, Karina:
    Vorrichtung und Verfahren zur Detektion von Gasen (DE102018206917B4)
  • Wolter, Herbert; Kolb, Carina; Hoffmann, Jeannette:
    Einfache, schnelle Herstellung von biokompatiblen transluzenten komplexen Formkörpern für die dentale u. medizinische Anwendung mit hoher Auflösung u. angepassten mechan. Eigenschaften mittels 3D-Druck (DE102018117617A1)
  • Wolter, Herbert; Nique, Somchith; Schwaiger, Johannes; Kolb, Carina; Bäuerlein, Helma:
    Innovatives Materialsystem und Verfahren zur Fertigung von patienten-individuellen Komfort-Ohrpassstücken für die Hörakustik-, Audio und Gehörschutzbranche (DE102018117631B4)
  • Ballweg, Thomas; Hanselmann, Doris:
    Barriere-Verkapselung wasserbasierter Systeme auf Basis UV-härtbarer Schalensysteme (DE102017109673A1)
  • Ballweg, Thomas; Mandel, Karl-Sebastian; Hanselmann, Doris; Haas, Karl-Heinz; Stauch, Claudia:
    Nanostrukturierte Mikropartikel aus silanisierten Primärpartikeln mit steuerbarer Redispergierbarkeit und Verfahren  zu deren Herstellung (DE102016209499A1)
  • Granath, Tim; Mandel, Karl-Sebastian:
    Superparamagnetische Plättchen, aufgebaut aus Nanomagnetit-Silicia-Komposit-Nadeln, mit optischen Farbeffekten in Dispersion (DE102015118816A1)
  • Mandel, Karl-Sebastian; Schneider, Michael; Müller-Buschbaum, Klaus; Wehner, Tobias:
    Superparamagnetische Mikropartikel, die mit feuchtigkeitsempfindlichen lumineszierenden Verbindungen belegt sind, und deren Anwendbarkeit als Feuchtigkeitssensoren (DE102015109637A1)
  • Ballweg, Thomas; Hanselmann, Doris; Gellermann, Carsten; Probst, Jörn:
    Verfahren zum Verkapseln von flüssigen oder pastösen Substanzen in einem vernetzten Verkapselungsmaterial (DE102009019370A1)

High Efficiency Meets Sustainability: Fraunhofer Lighthouse Project Shows Way for Next-Generation Tandem Solar Cells

Press Release / December 11, 2024

Perovskite-silicon tandem solar cell
© Fraunhofer ISE

Perovskite-silicon tandem solar cells made of stable materials and manufactured using scalable production processes are the prerequisite for the next technological leap in the photovoltaic industry. Over the past five years, six Fraunhofer Institutes combined their expertise in the Fraunhofer lighthouse project "MaNiTU" to identify the most sustainable paths for the market launch of such tandem solar cells. They were able to show for one that high cell efficiencies can be achieved using industry-oriented processes, however, that such high efficiencies were only currently achievable with lead perovskite materials. Based on these findings, the researchers developed suitable recycling concepts to ensure sustainability.

 

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Launch of the EU project "SUNGATE" - A new technology platform for the sustainable production of solar fuel using artificial photosynthesis

Press Release / December 21, 2023

Project SUNGATE Logo
© Project SUNGATE

In October 2023, the EU project "SUNGATE" was launched under the coordination of Fraunhofer IME in collaboration with 11 partners from industry and research. The aim of the project is to develop a novel, sustainable and cost-efficient biohybrid technology based on artificial photosynthesis that will enable the highly efficient and scalable production of solar fuel.

 

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Scalable solutions for green hydrogen production in South Africa - Project HySecunda

Press Release / December 4, 2023

Project HySecunda
© Project HySecunda

South Africa could play an important role in the coming years as a reliable producer of green hydrogen — including as a supplier for Germany. However, the storage and distribution of this resource currently poses challenges. This is where the recently launched Fraunhofer joint research project HySecunda comes in, which is a cooperation between nine Fraunhofer institutes and the Fraunhofer Academy. The project aims to find optimized solutions for producing, storing and certifying green hydrogen. In addition, the consortium is supporting efforts to build capacity in the region and in current projects on hydrogen-based fuels for the aviation industry.

 

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Making matter talk with "smart rust" - European excellence funding for Fraunhofer ISC scientists

Press Release / November 24, 2023

European Research Council (ERC)
© ERC

Materials are actually "silent". Although temperature, moisture, chemical influences or mechanical stress leave their mark and have an effect on their strength and service life, they can hardly tell us anything about their history of use. Knowing more about the history of such influences could therefore make a decisive contribution to product quality. However, there is still no solution for making materials talk about their history. The "SmartRust" research project now aims to change this.

 

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Case study shows: Robots in Nanoparticle Production - Reliable, Fast and Safe

Press Release / February 8, 2022

APRONA Case Study
© Fraunhofer ISC

What otherwise takes hours in the laboratory, involves annoying waiting times and many sources of error, can now be accomplished by a robot in less time, well digitally documented and with high reproducibility. Automation of synthesis processes for nanoparticles can be a milestone for the use of new therapeutic and diagnostic medical devices – and at the same time increase occupational safety and relieve highly qualified laboratory personnel from monotonous routines.

 

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The Fraunhofer Society's program promotes the innovative capability of SMEs in the field of efficient water treatment.

Press Release / September 24, 2021

EWA efficient water treatment
© Fraunhofer ISC

In the SME-acute program "Efficient Water Treatment" – abbreviated as EWA – the Fraunhofer Institutes IFAM and ISC are pooling their expertise in the areas of electrochemical process engineering, particle technology, and material analytics. Together with and for industrial partners, they are working in four thematic areas on the efficient treatment of the important resource water. Interested companies can learn more in a free online industry workshop on November 4, 2021, about topics such as battery recycling, lithium extraction, alternative clarification processes, and seawater desalination for green hydrogen.

 

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Fraunhofer flagship project "MaNiTU" develops materials for sustainable tandem solar cells

Press Release / December 3, 2019

Lead Project MaNiTU
© Fraunhofer ISE

Solar cells with the highest efficiencies provide electricity at low cost while consuming less space and resources. They also enable new products, such as electric cars that can be charged via solar cells. The efficiency of silicon solar cells cannot be increased indefinitely due to physical limits. In contrast, tandem solar cells made of multiple light-absorbing layers can achieve efficiencies of over 35%, which is why they are at the forefront of current solar cell research. In the Fraunhofer flagship project "MaNiTU," six Fraunhofer Institutes are developing sustainable, highly efficient, and cost-effective tandem solar cells based on new absorber materials.

 

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