@book{55849, abstract = {{Conference proceedings of the Music Encoding Conferences 2015, 2016 and 2017 with Introduction by Giuliano Di Bacco}}, editor = {{Di Bacco, Giuliano and Kepper, Johannes and Roland, Perry D.}}, keywords = {{mec-proceedings, mec-proceedings-2016, mec-proceedings-2015, mec-proceedings-2017}}, publisher = {{Bavarian State Library (BSB)}}, title = {{{Music Encoding Conference Proceedings 2015, 2016 and 2017}}}, doi = {{10.15463/music-1}}, year = {{2019}}, } @article{36846, author = {{Kruse, Anne and Mummert, Michael}}, issn = {{1864-2993}}, journal = {{Werkstatt:Dialog}}, number = {{4}}, pages = {{34--35}}, title = {{{Mit 3D-Druck umfassende Teilhabe möglich machen }}}, year = {{2019}}, } @misc{34124, abstract = {{Es existieren bisher zahlreiche Studien, die das Potenzial von Augmented Reality (AR) in verschiedenen Bildungsbereichen und seine Auswirkungen auf die Lernenden hinsichtlich ihrer erhöhten Motivation, verbesserter Lernfähigkeit, Konzentration auf das Thema usw. hervorheben. Dabei eignen sich AR-Anwendungen sowohl für den Einsatz in formellen, als auch informellen Lernumgebungen und Bildungsinstitutionen, beginnend mit Kunstkursen in Vorschulen über Biologie, Geschichte, Chemie, Physik etc. in weiterführenden Schulen und Universitäten [1]. Trotz der steigenden Zahl an Studien liegen nur wenigen AR-Anwendungen ein geeignetes didaktisches Konzept zu Grunde. Ferner fehlen allgemeine Studien, die die lernfördernden Eigenschaften von AR im Bereich der Vorbereitung und Begleitung von Laborpraktika untersuchen. Aktuelle Anwendungen erweitern lediglich gedruckte Lerninhalte mit zusätzlichen Links, Videos oder statischen 3D-Modellen oder benötigen spezielle Voraussetzung für die Nutzung der AR-Anwendung [2]. Der vorliegende Beitrag untersucht und konzentriert sich daher auf ein didaktisches Konzept für eine auf mobilen Geräten basierende AR-Anwendung (App) zum Erwerb und zur Vertiefung praktischer Fertigkeiten im Umgang mit elektrotechnischen Laborgeräten und -komponenten. In einer früheren Arbeit wurden die Möglichkeiten und Grenzen der AR-Technologie in der Ingenieurausbildung mit besonderem Fokus auf Laborarbeit untersucht, um häufige Fehler im Designkonzept zu vermeiden. Das didaktische Grundkonzept beruht auf dem „Constructive Alignement“ nach Biggs [3] mit der Definition der drei obligatorischen Schritte: Lernziele, Lehr- / Lernaktivitäten und Prüfungsmethoden. Die Lernziele werden – angelehnt an die modifizierte Bloom-Taxonomie nach Anderson und Krathwohl [4] – weiter konkretisiert, woraus dann im weiteren Schritt mögliche Lehrszenarien in AR gestaltet wurden.}}, author = {{Alptekin, Mesut and Temmen, Katrin}}, keywords = {{Augmented Reality, Laborpraktikum, didaktische Konzepte, Constructive Alignment}}, publisher = {{Gudrun Kammasch, Henning Klaf e, Sönke Knutzen (Hrsg.)}}, title = {{{Posterbeitrag: Didaktisches Konzept und Prototyp eines auf Augmented Reality basierenden virtuellen Vorpraktikums in der Elektrotechnik}}}, year = {{2019}}, } @article{41031, abstract = {{The design and performance of the high-resolution wavelength-dispersive multi-crystal von Hamos-type spectrometer at PETRA III beamline P64 are described. Extended analyzer crystal collection available at the beamline allows coverage of a broad energy range from 5 keV to 20 keV with an energy resolution of 0.35–1 eV. Particular attention was paid to enabling two-color measurements by a combination of two types of analyzer crystals and two two-dimensional detectors. The performance of the spectrometer is demonstrated by elastic-line and emission-line measurements on various compounds.}}, author = {{Kalinko, Aleksandr and Caliebe, Wolfgang A. and Schoch, Roland and Bauer, Matthias}}, issn = {{1600-5775}}, journal = {{Journal of Synchrotron Radiation}}, keywords = {{Instrumentation, Nuclear and High Energy Physics, Radiation}}, number = {{1}}, pages = {{31--36}}, publisher = {{International Union of Crystallography (IUCr)}}, title = {{{A von Hamos-type hard X-ray spectrometer at the PETRA III beamline P64}}}, doi = {{10.1107/s1600577519013638}}, volume = {{27}}, year = {{2019}}, } @article{40582, author = {{Sánchez-Leija, R.J. and Lopez Salas, Nieves and Fierro, J.L.G. and Gutiérrez, M.C. and Ferrer, M.L. and Mota-Morales, J.D. and Luna-Bárcenas, G. and Monte, F. del}}, issn = {{0008-6223}}, journal = {{Carbon}}, keywords = {{General Chemistry, General Materials Science}}, pages = {{813--826}}, publisher = {{Elsevier BV}}, title = {{{Deep eutectic solvents as active media for the preparation of highly conducting 3D free-standing PANI xerogels and their derived N-doped and N-, P-codoped porous carbons}}}, doi = {{10.1016/j.carbon.2019.02.055}}, volume = {{146}}, year = {{2019}}, } @article{40693, author = {{Eguizabal, A. and Lameiro, C. and Ramirez, D. and Schreier, P. J.}}, journal = {{IEEE Signal Proc. Lett.}}, number = {{3}}, pages = {{475–479}}, title = {{{Source enumeration in the presence of colored noise}}}, volume = {{26}}, year = {{2019}}, } @article{31735, author = {{Beaudouin, F and Aus der Fünten, K and Tröß, T and Reinsberger, Claus and Meyer, T}}, issn = {{0306-3674}}, journal = {{Br J Sports Med}}, number = {{15}}, pages = {{948--952}}, title = {{{Head injuries in professional male football (soccer) over 13 years: 29% lower incidence rates after a rule change (red card).}}}, volume = {{53}}, year = {{2019}}, } @inproceedings{41899, author = {{Basset, F. Basso and Rota, M. B and Schimpf, C and Tedeschi, D and Zeuner, K.D and Covre da Silva, S.F and Reindl, M and Zwiller, V and Jöns, Klaus D. and Rastelli, A and Trotta, R}}, title = {{{Entanglement swapping with photons generated on-demand by a quantum dot}}}, volume = {{123}}, year = {{2019}}, } @inproceedings{41900, author = {{ Fognini, A and Ahmadi, A and Zeeshan, M and Fokkens, J.T and Gibson, S.J and Sherlekar, N and Daley, S.J and Dalacu, D and Poole, P.J and Jöns, Klaus D. and Zwiller, V and Reimer, M.E}}, number = {{7}}, pages = {{1656--1663}}, title = {{{Dephasing free photon entanglement with a quantum dot}}}, volume = {{6}}, year = {{2019}}, } @inproceedings{41902, author = {{Schöll, E and Hanschke, L and Schweickert, L and Zeuner, K.D and Reindl, M and Covre da Silva, S.F and Lettner, T and Trotta, R and Finley, J.J and Müller, K and Rastelli, A and Zwiller, V and Jöns, Klaus D.}}, number = {{4}}, pages = {{2404--2410}}, title = {{{Resonance fluorescence of GaAs quantum dots with near-unity photon indistinguishability}}}, volume = {{19}}, year = {{2019}}, } @inproceedings{41901, author = {{Gyger, S and Zeuner, K.D and Jöns, Klaus D. and Elshaari, A.W and Paul, M and Popov, S and Reuterskiöld Hedlund, C and Hammar, M and Ozolins, O and Zwiller, V}}, number = {{10}}, pages = {{14400--14406}}, title = {{{Reconfigurable Frequency Coding of Deterministic Single Photons in the Telecom C-Band}}}, volume = {{27}}, year = {{2019}}, } @article{42220, author = {{Guo, Z. and Shi, D. and Quevedo, D. E. and Shi, L.}}, journal = {{Trans. Signal Processing}}, number = {{1}}, pages = {{194–207}}, title = {{{Secure State Estimation Against Integrity Attacks: A Gaussian Mixture Model Approach Secure State Estimation Against Integrity Attacks: A Gaussian Mixture Model Approach}}}, volume = {{67}}, year = {{2019}}, } @misc{36833, author = {{Tumat, Antje}}, booktitle = {{Die Musikforschung}}, issn = {{0027-4801}}, number = {{4}}, pages = {{374--377}}, publisher = {{Bärenreiter}}, title = {{{Musikstadt Riga im europäischen Kontext. Deutsch- lettische Wechselbeziehungen im 19. und 20. Jahrhundert. Bericht über das Symposion Riga 3.–4. Oktober 2014.}}}, volume = {{72}}, year = {{2019}}, } @inbook{41799, author = {{Fuchs, Christian and Chandler, David}}, booktitle = {{Digital Objects, Digital Subjects: Interdisciplinary Perspectives on Capitalism, Labour and Politics in the Age of Big Data}}, editor = {{Chandler, David and Fuchs, Christian}}, isbn = {{978-1-912656-20-2}}, pages = {{1--20}}, publisher = {{University of Westminster Press}}, title = {{{Introduction: Big Data Capitalism – Politics, Activism, and Theory}}}, doi = {{https://doi.org/10.16997/book29.a}}, year = {{2019}}, } @inbook{42368, author = {{Fuchs, Christian}}, booktitle = {{Digital Objects, Digital Subjects: Interdisciplinary Perspectives on Capitalism, Labour and Politics in the Age of Big Data}}, editor = {{Chandler, David and Fuchs, Christian}}, publisher = {{University of Westminster Press}}, title = {{{Karl Marx in the Age of Big Data Capitalism}}}, doi = {{https://doi.org/10.16997/book29.d}}, volume = {{53-71}}, year = {{2019}}, } @inproceedings{43748, abstract = {{The fundamental interband absorption in gallium arsenide shows a strong blue shift when biased by mid-infrared transients exceeding 10 MV/cm. This subcycle feature is induced by the localization of electronic wavefunctions from 3D to 2D.}}, author = {{Meier, Torsten and Bühler, Johannes and Schmidt, Christian and Heinrich, Alexander-Cornelius and Allerbeck, Jonas and Podzimski, Reinold and Berghoff, Daniel and Schmidt, Wolf Gero and Reichl, Christian and Wegscheider, Werner and Brida, Daniele and Leitenstorfer, Alfred}}, booktitle = {{XXI International Conference on Ultrafast Phenomena 2018 (UP 2018)}}, publisher = {{EDP Sciences}}, title = {{{Subcycle Wannier-Stark Localization by Mid-Infrared Bias in Gallium Arsenide}}}, doi = {{10.1051/epjconf/201920505001}}, volume = {{205}}, year = {{2019}}, } @inproceedings{22441, abstract = {{According to ISO / ASTM 52900, additive manufacturing (AM) is defined as "the process of joining materials to make parts from 3D model data, usually layer upon layer, as opposed to conventional manufacturing including subtractive manufacturing technologies and formative manufacturing methodologies” [1]. This results in significant advantages over conventional manufacturing methodologies, such as the production of topologically optimized, complex structures, lower material consumption or shorter product development cycles. In order to be able to use these advantages, the possibilities and restrictions of the processes must be known. In particular, selective laser beam melting (SLM), in which a powdery metallic starting material is melted by means of a laser, requires a sound understanding of the process. For this purpose, design guidelines have been presented in various scientific papers. These design guidelines help to design a component in such a way that it can be manufactured successfully using additive manufacturing. These so-called “AMsuitable design guidelines” can be found among others at Adam, Kranz and Thomas [2,3,4,5]. In contrast to established manufacturing processes, the post-processing of additive components is divided into two steps. First, the AM immanent post processing, such as the removing of the component from the building platform or the removing of the remaining powder. These post-processing steps are in the following referred to “post-processing”. Secondly, the subsequent post-processing steps to improve the component properties, such as milling and turning or a stress-relief annealing. These are referred to as “finishing” and form the focus of this paper. With regard to a successful finishing of additively manufactured components, design guidelines must be taken into account that consider the finishing inherent restrictions and possibilities. In the following, these design guidelines are referred to “finishing suitable”. They can deviate significantly from those of conventionally manufactured components in the case of additively manufactured components. Although there are some investigations that deal with the post-processing of additively manufactured components [6,7], there are hardly any design guidelines that are suitable for finishing [8]. Therefore, knowledge about the finishing of additively manufactured components is based on experimental experience rather than on scientific knowledge. For this reason, design guidelines for a finishing suitable design must be methodically determined and quantified. These quantified design guidelines can be used for an automated design check on complex components like topology optimized geometries.}}, author = {{Lammers, Stefan and Tominski, Johannes and Zimmer, Detmar}}, booktitle = {{II International Conference on Simulation for Additive Manufacturing Sim-AM 2019 11-13 September, 2019}}, isbn = {{978-84-949194-8-0}}, pages = {{174--185}}, title = {{{Guidelines for post processing oriented design of additive manufactured parts for use in topology optimization}}}, doi = {{http://congress.cimne.com/sim-am2019/frontal/doc/EbookSim-AM2019.pdf}}, year = {{2019}}, } @article{44991, author = {{Brehm, Martin and Pulst, M. and Kressler, J. and Sebastiani, D.}}, journal = {{J. Phys. Chem. B}}, pages = {{3994--4003}}, title = {{{Triazolium-Based Ionic Liquids – A Novel Class of Cellulose Solvents}}}, doi = {{10.1021/acs.jpcb.8b12082}}, volume = {{123 (18)}}, year = {{2019}}, } @inbook{47063, author = {{Güldenpenning, Iris and Weigelt, Matthias}}, booktitle = {{Dictionary of Sport Psychology}}, editor = {{Hackfort, D. and Schinke, R. J. and Strauss, B.}}, pages = {{69}}, publisher = {{Academic Press - Elsevier}}, title = {{{Deceptive Actions}}}, year = {{2019}}, } @article{49473, author = {{Herrenkind, B. and Brendel, A.B. and Nastjuk, I. and Greve, M. and Kolbe, L.M.}}, journal = {{Transportation Research Part D: Transport and Environment}}, pages = {{255–276}}, title = {{{Investigating end-user acceptance of autonomous electric buses to accelerate diffusion}}}, volume = {{74}}, year = {{2019}}, }