The flex+ Project, funded by the German Federal Ministry of Education and Research (BMBF), has successfully come to the end of its planned two-year duration and will leave its mark on the future as well: flexible electronics as a comprehensive approach.
Fraunhofer FEP is one of the leading research and development partners in the field of flexible organic electronics and together with its several partners in the BMBF-funded flex+ Project has pioneered new paths in the design and development of flexible organic electronics, as well as charting the way for new applications and markets.
Functionality-first, flexible components
Flexible electronics are light-weight, pliable, transparent, scalable and sustainable. Thanks to their diverse properties, they offer characteristics and advantages for completely new and innovative ideas and applications that will be supported and implemented from conception to completed components by a Technology Platform developed during the project.
Flexible electronics can produce a device with all the characteristics needed: flexible as plastic film or a piece of cloth, with no discrete components or ICs, light-weight, thin, energy-efficient, sustainable, manufactured as a single piece, and with no interfaces or mechanically vulnerable connector technology. Input, processing, output, sensors & actuators, power supply, and networking – all are integrated in this module that works everywhere and everywhen.
A device like this could even be a personal computer in the form of a film atop the working surface in the laboratory or kitchen just for wiping it down. It could be a health-monitoring system in a T-shirt, a media player in a fashionable scarf or shawl, carpeting that functions as a Smart Home control including illumination, or the complete dashboard of a motor vehicle constructed as a light-weight module whose shape and curvature can be adapted to the imagination of the designer and the designated space.
The flex+ Technology Platform should help flexible organic electronics break into the market. The goal of the flex+ Project was to develop a comprehensive approach for successful development and manufacturing of flexible electronics. This was achieved through an organizational structure that was “Open Innovation” in character.
A portal resulted that makes available an Open Tech Base comprising a wiki about flex+, and an Open Tech Lab for shared utilization of existing infrastructure and technologies, bringing together idea generators, companies, technology suppliers, and other players for projects such as tech transfer, and jointly working on problems and projects in the area of flexible organic electronics.
Diverse advantages have resulted from the Open Innovation approach, such as the shared development of keystone technologies, rationalization of R&D costs, targeted development of flexible electronics, and access to technology suppliers and infrastructure.
Flex-MED – a competition for ideas with foresight
To develop targeted solutions in the fields of medicine and health care, a competition for ideas named “flex-MED” was initiated under the flex+ project. Creative and clever competitors – innovative thinkers, experts and laypeople alike, individuals and companies were all able to submit their ideas and sketches by July 2016 as answers to the question: “Healthier thanks to flexible electronics – how can this technology revolutionize health care?” The response was overwhelming.
A total of over 70 ideas were received on the topic, which meanwhile have been made available in the form of an idea book. The best three suggestions were debuted by Fraunhofer FEP during the 4th Industry Partners Days in September. And not just the three winners of the competition were pleased, because specific projects will continue to be developed from all of the ideas submitted.
To this end, scenario workshops were conducted by the flex+ consortium in Dresden and Munich in order to jointly develop futuristic scenarios that were as concrete as possible and involved idea generators, interested parties, and companies from the field of medical engineering.
Project manager Christian Kirchhof viewed this enthusiastically: “We laid the foundation for open and energetic cooperation through the workshops.”
In the end, six specific project and product ideas were worked on in project teams and continuously refined. As a final step, the project scope and specific terms of reference needed for realizing the ideas were defined.
Musca noctis and Papilio lunae – Insects light the way
Besides the focus on specific ideas for utilization of flexible electronics in medicine and health care, an additional approach was taken in the flex+ Project. The open question posed was how the possibilities offered by flexible electronics could be vividly and realistically brought more closely to the public eye without an object emphasizing a single direction, application, or application niche.
Fraunhofer FEP, together with the Fraunhofer Institute for Applied Polymer Research IAP, Organic Electronics Saxony OES, and Mareike Gast & Kathi Stertzig Industrial Design jointly realized an impressive series of demonstration objects in the “Insect Project” that incorporated these criteria. The members of the artificial species merge the unique aesthetics of insects with the technological potential of flexible electronics to create fascinating demonstration pieces. This allowed the diverse possibilities to be directly experienced. Musca noctis and Papilio lunae represent the beginning of interdisciplinary research into insects, the goal of which is to discover and delineate the opportunities offered by flexible electronics and to communicate its diverse range.
The initial specimens of these insects were debuted in Munich at the LOPEC trade fair in March 2016. The world of flexible organic electronics was fundamentally analyzed during the two-year flex+ Project and a broad network of innovators, entrepreneurs, companies, technologists, and additional partners were brought together. The initial promising sketches, demonstration pieces, and Open Innovation Platforms emerged. The flex+ Platform continues to be available for the ongoing activities, preservation, and expansion of the network, and is being supported by the Project’s partners. For questions or
suggestions, the following contact persons are available to you:
Fraunhofer Institute for Organic Electronics, Electron Beam and Plasma Technology FEP
Contact person: Ines Schedwill
Winterbergstr. 28 | 01277 Dresden, Germany
Phone: +49 351 8823-238
Fraunhofer Institute for Applied Polymer Research IAP
Contact person Dr. Armin Wedel
Geiselbergstraße 69 | 14476 Potsdam-Golm, Germany
Phone +49 331 568-1910
Advisor for the Open Innovation Platform:
Organic Electronics Saxony
Dr. Dominik Gronarz
Würzburger Str. 51 | 01187 Dresden, Germany
Phone: +49 351 46677-180
Further information: www.flex-plus.de
flex+ Open Innovation is a German Federal Ministry of Education and Research (BMBF) Forum Project, promotional reference BMBF-03ZZF31.
Annett Arnold | Fraunhofer-Institut für Organische Elektronik, Elektronenstrahl- und Plasmatechnik FEP
Researchers take next step toward fusion energy
16.11.2017 | Texas A&M University
Desert solar to fuel centuries of air travel
16.11.2017 | SolarPACES
The WHO reports an estimated 429,000 malaria deaths each year. The disease mostly affects tropical and subtropical regions and in particular the African continent. The Fraunhofer Institute for Silicate Research ISC teamed up with the Fraunhofer Institute for Molecular Biology and Applied Ecology IME and the Institute of Tropical Medicine at the University of Tübingen for a new test method to detect malaria parasites in blood. The idea of the research project “NanoFRET” is to develop a highly sensitive and reliable rapid diagnostic test so that patient treatment can begin as early as possible.
Malaria is caused by parasites transmitted by mosquito bite. The most dangerous form of malaria is malaria tropica. Left untreated, it is fatal in most cases....
The formation of stars in distant galaxies is still largely unexplored. For the first time, astron-omers at the University of Geneva have now been able to closely observe a star system six billion light-years away. In doing so, they are confirming earlier simulations made by the University of Zurich. One special effect is made possible by the multiple reflections of images that run through the cosmos like a snake.
Today, astronomers have a pretty accurate idea of how stars were formed in the recent cosmic past. But do these laws also apply to older galaxies? For around a...
Just because someone is smart and well-motivated doesn't mean he or she can learn the visual skills needed to excel at tasks like matching fingerprints, interpreting medical X-rays, keeping track of aircraft on radar displays or forensic face matching.
That is the implication of a new study which shows for the first time that there is a broad range of differences in people's visual ability and that these...
Computer Tomography (CT) is a standard procedure in hospitals, but so far, the technology has not been suitable for imaging extremely small objects. In PNAS, a team from the Technical University of Munich (TUM) describes a Nano-CT device that creates three-dimensional x-ray images at resolutions up to 100 nanometers. The first test application: Together with colleagues from the University of Kassel and Helmholtz-Zentrum Geesthacht the researchers analyzed the locomotory system of a velvet worm.
During a CT analysis, the object under investigation is x-rayed and a detector measures the respective amount of radiation absorbed from various angles....
The quantum world is fragile; error correction codes are needed to protect the information stored in a quantum object from the deteriorating effects of noise. Quantum physicists in Innsbruck have developed a protocol to pass quantum information between differently encoded building blocks of a future quantum computer, such as processors and memories. Scientists may use this protocol in the future to build a data bus for quantum computers. The researchers have published their work in the journal Nature Communications.
Future quantum computers will be able to solve problems where conventional computers fail today. We are still far away from any large-scale implementation,...
15.11.2017 | Event News
15.11.2017 | Event News
30.10.2017 | Event News
21.11.2017 | Physics and Astronomy
21.11.2017 | Physics and Astronomy
21.11.2017 | Life Sciences