Highlights in 2018
12/2018 | Paper featured on the cover page of Small |
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![]() | Our paper on the realization of visible light driven Ag/AgCl Janus particles is highlighted with an inside front cover page of Small. In this work we present experimental and theoretical study of visible light-driven Ag/AgCl Janus micromotors revealing high-motility in pure H2O. We demonstrate that the propulsion efficiency is dependent on the intensity of visible light and complemented by the coupled effect of the plasmonic light absorption of Ag/AgCl and the efficient photochemical decomposition of AgCl. We address the application potential of Ag/AgCl micromotors in various physiological solutions and polluting agents. The original work is published in Small 14, 1803613 (2018). URL |
11/2018 | Paper promoted as an Editor's Pick in Applied Physics Letters |
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![]() | Our recent work on the anomalous Hall-like transverse magnetoresistance in Au thin films on Y3Fe5O12 is chosen to be promoted as an Editor's Pick in Applied Physics Letters. This work is a result of a fruitful collaboration between the HZDR and CIC nanoGUNE (group of Prof. F. Casanova). The paper is published in Appl. Phys. Lett. 113, 222409 (2018). URL |
11/2018 | Paper featured on the cover page of Nature Electronics |
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![]() | Our paper on the realization of highly compliant on-skin compass is highlighted with a cover page of the November issue of Nature Electronics. An electronic-skin compass, which is fabricated on 6-um-thick polymeric foils and accommodates magnetic field sensors based on the anisotropic magnetoresistance effect, allows a person to orient with respect to Earth’s magnetic field and to manipulate objects in virtual reality. The cover shows a scanning electron microscopy image of the compass under a bending radius of 200 um. The original work is published in Nature Electronics 1, 589 (2018). URL Link |
11/2018 | Magnetosensitive e-skins lead the way |
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![]() | Augmented reality devices are destined to be an integral part of our information intensive society, assisting us to acquire data and process information. We envision that future augmented reality systems will rely on compliant on-skin interactive electronics. When equipped with motion tracking sensory systems, electronic skins would offer complimentary information on the surrounding and enable novel means of manipulating physical or even virtual objects. We here demonstrate the very first electronic skin capable of perceiving direction in space based on the interaction with geomagnetic field exclusively. Our highly compliant magnetosensory system enables real time tracking of the position of a body in space as well as the touchless manipulation of virtual objects based on the biomagnetic orientation as needed for virtual and augmented reality applications. The paper is published in Nature Electronics 1, 589 (2018). URL Link |
11/2018 | Paper featured on a frontispiece of Small |
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![]() | Our paper on the collective motion of visible-light-actuated AgCl-based Janus particles is highlighted with a frontispiece page of Small. We demonstrate that visible-light-actuated plasmonic Ag/AgCl-based spherical Janus micromotors reveal efficient exclusion effect to surrounding passive beads in pure H2O. The exclusion efficiency is controlled by the number of single Janus particles composing micromotors. We determine the system-specific interaction parameter between Janus micromotors and passive beads. The availability of these system-specific information assures predictive power for further theoretical analysis of the complex dynamics of these heterogeneous active-passive systems. The paper is published in Small 14, 1802537 (2018). URL |
10/2018 | Our work is highlighted in Hot Topic: Magnetic Materials |
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![]() | Our paper on the study of magnetic states in parabola-shaped nano- and microstripes is highlighted in Hot Topic: Magnetic Materials. URL This work was carried out in close collaboration with partners at the Helmholtz Zentrum Berlin (group of Dr. F. Kronast). The paper is published in Physica Status Solidi (RRL) – Rapid Research Letters 13, 1800309 (2019) URL |
10/2018 | Annual meeting of German-Ukrainian Academic Society in Dresden |
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![]() | We hosted the 3rd annular meeting of the German-Ukrainian Academic Society. The event was under the auspices of the Saxon State Ministry for Higher Education, Research and the Arts, and is supported by the Embassy of Ukraine in the Federal Republic of Germany. Renowned guests attended the event including Dr. Ronald Werner (Head of the Department of high schools and Universities, The State Secretary, Saxon State Ministry for Higher Education, Research and the Arts), Dr. Iryna Tybinka (Minister-Counsellor, Embassy of Ukraine in the Federal Republic of Germany) and Prof. Bernd Büchner (Scientific Director, Leibniz Institute of Solid State and Materials Research Dresden). Further details on the event can be found here: URL. |
09/2018 | Celebration at the Saxonian ministry |
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![]() | As awardees of the competition “Ausgezeichnete Orte im Land der Ideen”, we were invited by Michael Kretschmer – prime-minister of the Free State of Saxony – for a celebration. Further details on the meeting can be found here: URL. This work was carried out in close collaboration with partners at the IFW Dresden (Prof. O. G. Schmidt) and the Johannes Kepler University Linz (Prof. M. Kaltenbrunner). The paper is published in Science Advances 4, eaao2623 (2018). URL PDF |
04/2018 | Prize at the competition “Ausgezeichnete Orte im Land der Ideen” |
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![]() | Our project on the on-skin magnetic angle sensor received a prize in the frame of a national German competition “Ausgezeichnete Orte im Land der Ideen”. The project is one among the 100 selected Germany-wide out of more than 1.500 applications. The press-release (in German) can be read hear: URL. This work was carried out in close collaboration with partners at the IFW Dresden (Prof. O. G. Schmidt) and the Johannes Kepler University Linz (Prof. M. Kaltenbrunner). The paper is published in Science Advances 4, eaao2623 (2018). URL PDF |
01/2018 | Virtual reality goes magnetic | |||||||
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![]() | Augmented reality devices such as Smart Glasses are destined to be an integral part of our information intensive society, assisting us to acquire data and process information in an ever faster paced society. We demonstrate electronic skins capable of perceiving direction in space. Our highly compliant magnetosensory system enables real time tracking of the position of a body in space as well as the touchless manipulation of (virtual) objects based on the interaction with magnetic fields exclusively. We foresee exciting possibilities not only for business or gaming industries but also for safety and security applications, where the somatic manipulation of objects, e.g. turning regulation knobs located in a restricted environment, is undesirable or even prohibited. This work was carried out in close collaboration with partners at the IFW Dresden (Prof. O. G. Schmidt) and the Johannes Kepler University Linz (Prof. M. Kaltenbrunner). The paper is published in Science Advances 4, eaao2623 (2018). URL PDF This work is highlighted in the resources below (among others) and have reached a very positive metrics by now: |