Prof. Dr. Martin Möller and Prof. Dr.-Ing. Matthias Wessling from the DWI – Leibniz Institute for Interactive Materials and the RWTH Aachen University both receive an Advanced Grant from the European Research Council (ERC). The European Research Council uses its Advanced Grants to financially support outstanding, well-established scientists with up to 2.5 Million Euro and thereby allows them to pursue groundbreaking high-risk research in Europe. Martin Möller will apply this grant to develop gel-based micro-engines for future applications in biomedicine whereas Matthias Wessling will analyze and optimize mass transport at membrane-fluid interfaces.
Sophisticated micro- and nano-objects, as well as functional materials, are Martin Möller’s expertise. Within his ERC-funded project, he strives to make an important contribution to the development of gel-based, light-triggered micro-engines, which could be used to develop new self-actuating materials. These materials may be implemented to biomechanically stimulate cells and tissues in biological and medical applications.
Prof. Dr. Martin Möller
Prof. Dr.-Ing. Matthias Wessling
In addition, the project will be a starting point for the development of gel-based microfluidic pumps and self-actuating swimmers and transporters. For this purpose, Martin Möller and his team of polymer chemists use hydrogels, which contain 80 to 98 percent water. By uptake and release of this water, these hydrogels can significantly change their shape.
By using infrared light pulses, Martin Möller and his colleagues were already able to induce transient shape deformations in the gels, leading to fast moving gel architectures with a rate up to 2000 micrometers per second. Within the ERC, Möller aims to obtain fast motion under continuous IR-irradiation by the development of a self-oscillating system with iterative pulsation.
Matthias Wessling’s field of research is membrane technology and he is turning Aachen into an internationally leading center for membrane research. Synthetic membranes play an important role in many industrial processes and medical applications, including water desalination, waste water or waste gas treatment, and applications, such as an artificial lung or kidney.
Current highly permeable and selective membrane materials can only reach top performance if the transport resistance at the membrane-fluid interface is minimized. Matthias Wessling will use his ERC grant to develop new interaction mechanisms that reduce such transport resistances and improve mass transfer. For this purpose, he will analyze and optimize the membrane surface geometry and chemical structure down to the micro- and nanoscale.
In addition, he will engineer the channel structure in membrane set-ups to improve fluid flow. In his project, Wessling will combine classical membrane technology with micro- and nanofluidics, generative nanofabrication, as well as fluid mechanical computer simulations.
In 2014 and 2015 respectively, two DWI junior research group leaders each received an ERC Starting Grant. Since January 2015, the DWI coordinates the Marie Skłodowska-Curie training network BIOGEL, approved by the European Commission. Therefore, five major projects at DWI are currently funded via Horizon 2020, the prestigious EU framework program for research and innovation.
1) Prof. Dr. Martin Möller
Since 2002, Martin Möller heads the Chair of Textile Chemistry and Macromolecular Chemistry at RWTH Aachen University, after being a professor at the University of Twente in the Netherlands and Ulm University. Since 2003, he is the Scientific Director of DWI. In 2003, he was decorated with the Körber European Science Prize. In 2014, the ‘Gesellschaft Deutscher Chemiker’ awarded him the Hermann-Staudinger prize. His field of research focuses on the synthesis of novel polymers and self-assembly of polymer systems.
2) Prof. Dr.-Ing. Matthias Wessling
Since 2010, Matthias Wessling heads the Chair of Chemical Process Engineering at RWTH Aachen University and he is the Vice Scientific Director of DWI. He was Senior Research Scientist at Membrane Technology and Research Inc., Menlo Park, CA and head of the Department of Separation Processes at Akzo Nobel. From 2000 to 2010, he was Chair of Membrane Science and Technology at the University of Twente. He joined the DWI scientific board in 2010 and became vice director in 2015.
Dr. Janine Hillmer | idw - Informationsdienst Wissenschaft
Extensive Funding for Research on Chromatin, Adrenal Gland, and Cancer Therapy
28.06.2017 | Helmholtz Zentrum München - Deutsches Forschungszentrum für Gesundheit und Umwelt
Otto Hahn Medal for Jaime Agudo-Canalejo
21.06.2017 | Max-Planck-Institut für Kolloid- und Grenzflächenforschung
Spectrally narrow x-ray pulses may be “sharpened” by purely mechanical means. This sounds surprisingly, but a team of theoretical and experimental physicists developed and realized such a method. It is based on fast motions, precisely synchronized with the pulses, of a target interacting with the x-ray light. Thereby, photons are redistributed within the x-ray pulse to the desired spectral region.
A team of theoretical physicists from the MPI for Nuclear Physics (MPIK) in Heidelberg has developed a novel method to intensify the spectrally broad x-ray...
Physicists working with researcher Oriol Romero-Isart devised a new simple scheme to theoretically generate arbitrarily short and focused electromagnetic fields. This new tool could be used for precise sensing and in microscopy.
Microwaves, heat radiation, light and X-radiation are examples for electromagnetic waves. Many applications require to focus the electromagnetic fields to...
Strong light-matter coupling in these semiconducting tubes may hold the key to electrically pumped lasers
Light-matter quasi-particles can be generated electrically in semiconducting carbon nanotubes. Material scientists and physicists from Heidelberg University...
Fraunhofer IPA has developed a proximity sensor made from silicone and carbon nanotubes (CNT) which detects objects and determines their position. The materials and printing process used mean that the sensor is extremely flexible, economical and can be used for large surfaces. Industry and research partners can use and further develop this innovation straight away.
At first glance, the proximity sensor appears to be nothing special: a thin, elastic layer of silicone onto which black square surfaces are printed, but these...
3-D shape acquisition using water displacement as the shape sensor for the reconstruction of complex objects
A global team of computer scientists and engineers have developed an innovative technique that more completely reconstructs challenging 3D objects. An ancient...
26.07.2017 | Event News
21.07.2017 | Event News
19.07.2017 | Event News
28.07.2017 | Health and Medicine
28.07.2017 | Power and Electrical Engineering
28.07.2017 | Life Sciences