imc.tuwien.ac.at

solidfun.tuwien.ac.at

Johannes Majer | Solids4Fun

http://solidfun.tuwien.ac.at/faculty_members/details_majer

Skip to main content. Recently the JM group has combined the two systems by placing a diamond with a high concentration of nitrogen vacancies on top of a superconducting resonator. It was shown a strong coupling between the superconducting circuit and the ensemble of nitrogen vacancies. Additionally, a weak coupling to. C nuclei was observed, which opens the possibility of a nuclear quantum memory with very long coherence time. In the context of Solids4Fun. Link to Dr. Majer's group.

solidfun.tuwien.ac.at

Silke Bühler-Paschen | Solids4Fun

http://solidfun.tuwien.ac.at/faculty_members/details_buehler_paschen

Skip to main content. Experiments on strongly correlated electron systems and/or thermoelectric materials. Unlike in simple semiconductors, this field is internationally only starting to develop. The scientific environment of the DK SolidFun is ideal to pursue this challenging new direction, with questions in mind such as: How does dimensionality change quantum critical behavior? Can correlation effects be further enhanced by quantum confinement? Are nanostructured Kondo insulators good thermoelectrics?

solidfun.tuwien.ac.at

Joachim Burgdörfer | Solids4Fun

http://solidfun.tuwien.ac.at/faculty_members/details_burgdoerfer

Skip to main content. The group of Joachim Burgdörfer has developed a variety of methods and simulation codes. They include an embedded cluster approximation (ECA) based on advanced wave function quantum-chemistry methodology implemented in collaboration within H. Lischka (partner within SFB-VICOM. A full ab-initio treatment of dynamical correlation effects is possible for excitation of few-electron atoms (prominent example helium) by ultrashort XUV and IR pulses giving access to ground-state and excited...

solidfun.tuwien.ac.at

Gottfried Strasser | Solids4Fun

http://solidfun.tuwien.ac.at/faculty_members/details_strasser

Skip to main content. The second research topic of the group of GS is the demonstration of semiconductor devices in micro- and optoelectronics. This activities include transistors and transport devices, but have a strong focus on optoelectronics, namely mid-infrared detectors and quantum cascade lasers. Link to Prof. Strasser's group. Doctoral Program "Building Solids for Function - Solids4Fun" Imprint. Vienna University of Technology. Institute of Materials Chemistry.

solidfun.tuwien.ac.at

Günther Rupprechter | Solids4Fun

http://solidfun.tuwien.ac.at/faculty_members/details_rupprechter

Skip to main content. Understanding heterogeneous catalysis via surface science studies. Selectivity a PdZn multilayer ( 4 layers) is required whereas a PdZn monolayer largely behaves like pure Pd (producing H. CO despite 50% Zn on the surface). Furthermore, this study strongly relied on the cooperation with research groups at University Innsbruck, ETH Zürich, Swiss Light Source (SLS) and the Fritz Haber Institute Berlin. With a focus on their interaction with gas phase molecules (e.g. CO, H.

solidfun.tuwien.ac.at

Jürgen Fleig | Solids4Fun

http://solidfun.tuwien.ac.at/faculty_members/details_fleig

Skip to main content. Solid State Electrochemistry and Electroceramics. Sequestration are also based on ionic materials. Moreover, the closely related field of electroceramics (partly overlapping with solid state ionics) includes application of ionic ceramics as capacitors, sensors, piezoelectric actuators, etc. Hence, basic research in this field is not only relevant from a fundamental point of view but also of high technological or societal relevance. Link to Prof. Fleig's group.

solidfun.tuwien.ac.at

Ulrike Diebold | Solids4Fun

http://solidfun.tuwien.ac.at/faculty_members/details_diebold

Skip to main content. Investigating Solid Surfaces at the Atomic Scale. ZnO, or Fe. With epitaxial thin film growth, the range of samples can be extended to materials that are not easily available in single-crystalline form, such as Sn-doped In. And, in the future, perovskite materials. Link to Prof. Diebold's group. Doctoral Program "Building Solids for Function - Solids4Fun" Imprint. Vienna University of Technology. Institute of Materials Chemistry. Getreidemarkt 9 A-1060 Vienna, Austria.

solidfun.tuwien.ac.at

students | Solids4Fun

http://solidfun.tuwien.ac.at/students

Skip to main content. Group of Johannes Majer. E-mail: andreas.angerer@tuwien.ac.at. Group of Karl Unterrainer. E-mail: dominic.bachmann@tuwien.ac.at. Group of Ulrike Diebold. E-mail: roland.bliem@tuwien.ac.at. Group of Joachim Burgdörfer. E-mail: larisa.chizhova@tuwien.ac.at. Group of Andrei Pimenov. E-mail: uladzislau.dziom@tuwien.ac.at. Group of Silke Bühler-Paschen. E-mail: sami.dzsaber@tuwien.ac.at. Group of Andrius Baltuska. E-mail: guangyu.fan@tuwien.ac.at. Group of Ulrich Schubert. E-mail: andrea...

solidfun.tuwien.ac.at

Ulrich Schubert | Solids4Fun

http://solidfun.tuwien.ac.at/faculty_members/details_schubert

Skip to main content. Chemistry of inorganic-organic hybrid materials. Are dealing with metal oxides in one way or the other (e.g., Günther Rupprechter. Many collaborations are possible (some are already going on). Link to Prof. Schubert's group. Doctoral Program "Building Solids for Function - Solids4Fun" Imprint. Vienna University of Technology. Institute of Materials Chemistry. Getreidemarkt 9 A-1060 Vienna, Austria.

solidfun.tuwien.ac.at

Program | Solids4Fun

http://solidfun.tuwien.ac.at/program

Skip to main content. In the Doctoral School Solids4Fun. Building Solids for Function) the interplay between parameters and properties will be exemplarily investigated for different kinds of inorganic solids. This especially includes oxides, semiconductors and intermetallics in different forms, such as thin films, (nano-)composites, porous materials, quantum dots, photonic crystals, metamaterials or hybrid materials. Research and training in Solids4Fun. To solve scientific problems together. The main goa...