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Tiefe Temperaturen Tagesübersichten Mittwoch, 10.3.04 8:30-10:00 <strong>Plenarvorträge</strong> Theis, Stoehr 10:00-13:00 Festsitzung Preisträgervortrag Morgenstern, Festvortrag Mlynek 14:30-16:00 Preisträgervorträge Steglich, Sander 14:30-16:30 TT 18 H20 Supraleitung: Tunneln, Josephson-Kontakte, SQUIDs 16:45-18:45 TT 19 H20 Supraleitung: Heterostrukturen, Andreev-Streuung, Proximity-Effekt, Koexistenz 16:45 HV Eschrig 14:30-16:30 TT 20 H18 Metall-Isolator-Übergänge 16:45-18:00 TT 21 H18 Quantenkritische Phänomene 14:30-19:00 TT 24 Postersitzung III: Korrelierte Elektronen, ”Orbital Physics” Poster A Abendvortrag Wlitschko Donnerstag, 11.3.04 8:30-9:15 Plenarvortrag Abrikosov 9:30-12:45 TT 25 H20 FV-internes Symposium ”Superconducting Qubits and π-junctions” 9:30 FV Zorin 10:00 FV Ustinov 10:30 HV Harmans 11:15 HV Blatter 11:45 FV Goldobin 12:15 HV Aprili 15:00-17:45 SYNF H1 Symposium ”Non-Fermi Liquids in Quantum Structures” 15:00 HV Glazman 15:35 HV Yacoby 16:10 HV Governale 16:45 HV Buitelaar 17:20 HV Giamarchi 17:55 HV Claessen 9:30-13:00 TT 26 H18 Korrelierte Elektronen: Theorie II 14:00-18:10 TT 28 H20 FV-internes Symposium ”Theoretical Modeling of Materials with Correlated Electrons” 14:00 HV Allen 14:25 HV Kotliar 14:50 FV Andersen 15:15 HV Anisimov 15:40 FV Weber 16:30 FV Zwicknagel 16:55 FV Lichtenstein 17:20 FV Pruschke 17:45 FV Liebsch 14:30-17:15 TT 22 H19 Quantenkohärenz und Quanteninformationssysteme 17:30-18:30 TT 23 H19 Nanoelektronik II: Spin-Elektronik 9:30-12:45 TT 27 H19 Nanoelektronik III: Molekulare Elektronik 9:30 HV Kohler 14:30-18:00 TT 29 H19 Quantenkohärenz und Quanteninformationssysteme II 14:30-19:00 TT 30 Postersitzung IV: Kritische Phänomene, Quantenstörstellen, niederdimensionale Systeme Poster A 18:30 Mitgliederversammlung H19 Abendvortrag Lesch Freitag, 12.3.04 8:30-10:00 <strong>Plenarvorträge</strong> Chaikin, Weller 10:15-12:45 TT 31 H20 Supraleitung: Vortexdynamik, Vortexphasen, Pinning 10:15-13:00 TT 32 H18 Theoretische Modelierung von Materialien mit korrelierten Elektronen 10:15-11:30 TT 33 H19 Amorphe- und Tunnelsysteme, Gläser
Tiefe Temperaturen Montag Fachsitzungen – Haupt-, Fach-, Kurzvorträge und Posterbeiträge – TT 1 Supraleitung: Herstellung und Charakterisierung Zeit: Montag 09:30–11:00 Raum: H20 TT 1.1 Mo 09:30 H20 Molecular beam epitaxy of electron doped high-temperature superconductors — •Yoshiharu Krockenberger 1 , Michio Naito 1 , Akio Tsukada 1 , Hideki Yamamoto 1 , Lambert Alff 2 , and Rudolf Gross 2 — 1 NTT Basic Research Laboratories, NTT Corporation, 3-1 Morinosato-Wakamiya, Atsugi-shi, Kanagawa 243-0198, Japan — 2 Walter-Meissner-Institut, 85748 Garching, Germany The field of high temperature superconductors has been investigated intensively. Among the studied materials, electron doped high temperature superconductors are a minority class and only two families are known: The T ′ and infinite-layer compounds. The superconducting transition temperatures (Tc) are moderate even for optimum doping: 30K for T ′ -compounds. Furthermore, sample preparation is very difficult. Nevertheless, n-type cuprates are of high interest and essential from the basic physics point of view, especially as to whether or not electron-hole symmetry holds in the high-Tc superconductors. As reported recently by Alff et al.[1] tunneling spectroscopy on thin film electron doped cuprates pinpointed detailed features of the pseudogap behavior. Therefore, we have investigated the growth and especially the reduction conditions (removal of apical oxygen) of T ′ -RE2−xCexCuO4+δ thin films for a wide doping variation. [1] L. Alff et al., Nature 422, 698 (2003) TT 1.2 Mo 09:45 H20 Thickness dependence of superconducting properties of ultrathin Nb and NbN films — •Konstantin Il’in 1 , Michael Siegel 1 , Alexei Semenov 2 , Andreas Engel 2 , Heinz-Wilhelm Hübers 2 , Eugen Hollmann 3 , Gregory Gol’tsman 4 , and Boris Voronov 4 — 1 Institut für Mikro- und Nanoelektronische Systeme, Universität Karlsruhe, Karlsruhe — 2 DLR Institut für Planetenforschung, Berlin — 3 Forschungszentrum Jülich GmbH, Jülich — 4 MSPU, Moscow, Russia We studied systematically superconducting properties of Nb and NbN films widely used in modern detector technology. The films with a thickness from 3.5 to 100 nm were deposited by reactive magnetron sputtering. The Ginzburg-Landau coherence length and the electron diffusion constant have been obtained from the temperature dependence of the second critical magnetic field, HC2. We have found that diffusivity in ultra-thin films reduces with thickness. The non-linear temperature dependence of HC2 of NbN films at temperatures close to TC was attributed to the granular structure of the films. At low temperatures, where the normal core of a magnetic vortex is smaller than the grain size, HC2 depends linear on temperature. The grain size of 40-80 nm was estimated from the crossover temperature, where the dependence of HC2 on temperature changes from linear to non-linear behaviour. We found that grain size and its dependence on film thickness is determined by sputtering conditions. TT 1.3 Mo 10:00 H20 Superconducting thin films of the heavy fermion compound UNi2Al3 — •M. Jourdan, A. Zakharov, M. Foerster, and H. Adrian — Institut für Physik, Johannes Gutenberg Universität, 55099 Mainz Thin films of the presumably unconventional superconductor UNi2Al3 were prepared to obtain dedicated samples for novel experiments on the superconducting order parameter (e.g.tunnelling spectroscopy). UNi2Al3 was deposited by coevaporation of the elementary components in an MBE system. The preparation on various substrates was studied and epitaxial growth in (100)-direction was observed. With optimized deposition parameters thin films showing the typical properties known from bulk samples were obtained. The best films up to now show a superconducting transition with Tc ≃ 0.75K. Measurements of the angular dependence of the upper critical field Bc2(θ) will be presented. TT 1.4 Mo 10:15 H20 Transition metal, boride and oxide doped Fe/MgB2 tapes and wires — •Bing Liu, S. Schlachter, and W. Goldacker — Forschungszentrum Karlsruhe ITP 76021 Karlsruhe,P.O. Box 3640 Transition metal, boride and oxide doped mono- and multifilamentary Fe/MgB2 tapes and wires have been prepared by the powder-intube technique at ambient pressure from different precursors. For each composition, the heating process has been optimized to the full extent according to DTA measurements. We determined Tc and the transport critical current density in magnetic fields up to 9T and investigated the microstructure with high-resolution SEM and quantitative EDX analysis. Compared with undoped samples, Jc and Hirr of doped samples have been enhanced significantly in high fields by effective pinning centers and improved grain connection due to sintering aid effect from the additives, with the highest Jc value over 5000A/cm2 at 4.2K/9T and insignificant Tc suppression. However, the improvement of thermal and mechanical stability of Fe/MgB2 tapes and wires remains a challenge for the future. TT 1.5 Mo 10:30 H20 Mechanisms of current improvement at grain boundaries in High-Tc superconductors: Magneto-optic and electron-optic results — •Christian Jooss 1 , Karsten Guth 1 , Volker Born 1 , Eva Brinkmeier 1 , Harald Jarzina 1 , Wilko Westhäuser 1 , Marvin Schofield 2 , Marco Beleggia 2 , and Yimei Zhu 2 — 1 Institut für Materialphysik, Universität Göttingen, Tammannstr. 1, 37077 Göttingen — 2 Brookhaven National Laboratory, Upton, NY 11973 USA Grain boundaries in high-temperature superconductors represent the major factor limiting high current applications. We apply a full quantitative magneto-optical imaging technique to the investigation of local transport properties of low angle grain boundaries in YBaCuO and Cadoped YBaCuO thin films. In order to analyse microscopic mechanisms of current suppression, the local transport measurements grain boundaries are combined with the determination of electrostatic potentials by electron holography. By developing quantitative phase retrieval procedures for electron holography, we obtained for the first time direct evidence of a negative potential at the grain boundary dislocations which is significantly reduced in its spatial extend as well as in its value in Ca-doped samples. Our results nicely explain the observed enhancement of the intergranular current densities by Ca-doping and shed light onto the puzzling electronic properties of high-temperature superconducting oxides at grain boundaries. We find evidence for the presence of a new insulating electronic phase at the grain boundary in the strongly overdoped region. This work is partially supported by the Deutsche Forschungsgemeinschaft (DFG). TT 1.6 Mo 10:45 H20 Transport properties of Ca doped superconducting epitaxial YBCO films — •Jürgen Halbritter 1 , Ermile Gaganidze 1 , Holger Hochmuth 2 , and Michael Lorenz 2 — 1 FZK, IMF I, Postfach 3640, 76021 Karlsruhe, Germany — 2 Universität Leipzig, Fakultät für Physik und Geowissenschaften, Linnéstr. 5, D-04103 Leipzig, Germany O doping enhancing the CuO plane density of states nm is well known to improve normal conducting and superconducting dc, ac and rf transport properties of YBCO by orders of magnitude. By Ca doping Y1−xCaxBa2Cu3O7−δ enhancing nm similarely transport improvements by factors below 2 to 10 have been found for bicrystal junctions and single crystals, only. To study the effect of Ca doping on epitaxial PLD films on CeO2/Al2O3 we performed systematic transport studies for nominal x = 0.1, 0.15 and 0.2. The resulting superconducting rf properties, and therewith the mean values of the weak link critical current density jcJ, degraded with Ca content confirming trends found by dc measurements of PLD films on STO and on LAO and by rf measurements of doped films on Al2O3 and on LAO. The normal conducting weak link resistance
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