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Research results


Theory of optical properties of nanowire metamaterial with gain

In this work, we demonstrate a non-monotonic dependence of nanowire metamaterial optical coefficients on the surrounding media’s gain. The effect is based on the field redistribution between the lossy nanowires and the amplifying host matrix and it significantly depends on the metamaterial lattice constant.

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Associate Professors Vladimir Bordo and Jost Adam

J. Lima, J. Adam, D. Rego, V. Esquerre, V. Bordo, “Optical properties of nanowire metamaterials with gain,” Opt. Commun. 379 (2016) 25-31.

Fabrication of porous Al2O3 templates

In this work, nanostructures are fabricated via anodic oxidation of Aluminum thin films. The resulting corrugated electrodes are integrated in organic solar cells to improve the efficiency of the cells.

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Dr. Arkadiusz Gosczak

„On-substrate fabrication of porous Al2O3-templates with tunable pore diameters and interpore-distances“, Nele Berger, Salah Habouti, Horst-Günter Rubahn and Mohammed Es-Souni, Applied Physics A 122(2016)192.

A. J. Goszczak, J. Adam, P. P. Cielecki, J. Fiutowski, H.-G. Rubahn and M. Madsen. “Nanoscale Aluminum concaves for light-trapping in organic thin-films” Opt. Commun., 370, 135 (2016)

Stabilization of organic solar cells

In this work additives such as UV absorbers are implemented into organic solar cells to improve their overall lifetime (FTP-project Stabil-O). In a new project starting 2017 (CompliantPV), this is extended to improve also mechanical stability in flexible devices.

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Associate Professor Morten Madsen

V. Turkovic, S. Engmann, N. Tsierkezos, H. Hoppe, M. Madsen, H.-G. Rubahn, U. Ritter and G. Gobsch. ”Long-Term Stabilization of Organic Solar Cells using UV Absorbers” J. Phys. D: Appl. Phys, 49, 125604 (2016)

Coupling of plasmonic surfaces with organic nanostructures

In this work we show that the optical response of organic materials can be controlled by forming organic-plasmonic hybrid systems. The interaction between organic nanoaggregates and engineered optical near fields may lead to strongly enhanced optical response. Furthermore, the strong plasmonic-exciton interaction might be interesting for plasmonic applications, where organic nanofibers could be exploited as active components, responsible for plasmon generation or modulation.

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Associate Professor Jacek Fiutowski

Goszczak, AJ, Adam, J, Cielecki, PP, Fiutowski, J, Rubahn, H-G & Madsen, M 2016, 'Nanoscale aluminum concaves for light-trapping in organic thin-films' Optics Communications, vol 370, pp. 135-139

Elżbieta K. Sobolewska ; Till Leißner ; Leszek Jozefowski ; Jonathan Brewer ; Horst-Günter Rubahn ; Jost Adam ; Jacek Fiutowski; Surface plasmons excited by the photoluminescence of organic nanofibers in hybrid plasmonic systems. Proc. SPIE 9884, Nanophotonics VI, 98843D (April 21, 2016)

Chiral assemblies from achiral organic building blocks

Deposition of MOP4 on mica leads to two types of nanofibers, “L” and “R”. Their images in a mirror “M” cannot brought in coincidence with themselves, similar to a left and a right hand. This “chirality” is induced by the substrate.

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Associate Professor Frank Balzer

“Thin film phase and local chirality of surface-bound MOP4 nanofibers” Frank Balzer,Christian Röthel, Horst-Günter Rubahn, Arne Lützen,Jürgen Parisi, Roland Resel, and Manuela Schiek, J.Phys.Chem.C 120(2016)7653.

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Improved sensor materials for harsh environments

In collaboration with Danfoss Industrial Automation, NanoSYD researchers have developed new sensor materials that can operate at elevated temperatures. This has led both to an improved basic understanding of the material systems and opportunities for product improvement.

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Associate Professor Jakob Kjelstrup-Hansen

Nis Dam Madsen et al. ”Titanium Nitride as a Strain Gauge Material”,
IEEE Journal of Microelectromechanical Systems, in press, published on-line, DOI: 10.1109/JMEMS.2016.2577888

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Significant achievements

More information about NanoSYD's significant achievements

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Last Updated 10.03.2021