|
14:00 |
Q 26.1 |
Real-Space Dynamical Mean-Field Theory Analysis of the Disordered Bose-Hubbard Model — •Bastian Schindler, Renan da Silva Souza, and Walter Hofstetter
|
|
|
|
14:00 |
Q 26.2 |
Adiabatic Control of Photon Transport in Ring Geometries — •Milena Djatchkova, Igor Lesanovsky, and Beatriz Olmos Sanchez
|
|
|
|
14:00 |
Q 26.3 |
Quantum non-demolition measurements in Ramsey interfermetry — •Maja Scharnagl and Klemens Hammerer
|
|
|
|
14:00 |
Q 26.4 |
Quantum dynamics of trapped atom interferometers in optical lattices — •Patrik Mönkeberg, Florian Fitzek, Naceur Gaaloul, and Klemens Hammerer
|
|
|
|
14:00 |
Q 26.5 |
A high accuracy multi-ion clock with instability below ×10−16/√τ — •Ingrid Maria Richter, Shobhit Saheb Dey, Hartmut Nimrod Hausser, Jonas Keller, and Tanja E Mehlstäubler
|
|
|
|
14:00 |
Q 26.6 |
High accuracy multi-ion clock operation — •Shobhit S. Dey, Ingrid M. Richter, H. Nimrod Hausser, Jonas Keller, and Tanja E. Mehlstäubler
|
|
|
|
14:00 |
Q 26.7 |
Theoretical Description of The Sequential Bragg Large Momentum Transfer — •Ashkan Alibabaei, Patrik Mönkeberg, Florian Fitzek, Naceur Gaaloul, and Klemens Hammerer
|
|
|
|
14:00 |
Q 26.8 |
Towards x-ray quantum optics using periodically structured cavities — •Robert Horn and Jörg Evers
|
|
|
|
14:00 |
Q 26.9 |
Shot-noise limited detection system for the INTENTAS project — •Viviane Wienzek and The INTENTAS Team
|
|
|
|
14:00 |
Q 26.10 |
Towards a transportable Al+ optical clock — •Joost Hinrichs, Constantin Nauk, Gayatri Sasidharan, Vanessa Galbierz, Sofia Herbers, Benjamin Kraus, and Piet O. Schmidt
|
|
|
|
14:00 |
Q 26.11 |
Laser stabilization for a compact inertial navigation system — •Philipp Barbey, Mouine Abidi, Xingrun Chen, Ashwin Rajagopalan, Ann Sabu, Polina Shelingovskaia, Matthias Gersemann, Dennis Schlippert, Ernst M. Rasel, and Sven Abend
|
|
|
|
14:00 |
Q 26.12 |
Multi-axis quantum gyroscope with multi loop atomic Sagnac interferometry — •Ann Sabu, Polina Shelingovskaia, Mouine Abidi, Philipp Barbey, Ashwin Rajagopalan, Xingrun Chen, Matthias Gersemann, Dennis Schlippert, Ernst M. Rasel, and Sven Abend
|
|
|
|
14:00 |
Q 26.13 |
Realizing of multi-axis interial quantum sensor — •Xingrun Chen, Mouine Abidi, Philipp Barbey, Ashwin Rajagopalan, Ann Sabu, Matthias Gersemann, Ernst Rasel, and Sven Abend
|
|
|
|
14:00 |
Q 26.14 |
Absolute light-shift compensated twin-lattice atom interferometry — •Mikhail Cheredinov, Matthias Gersemann, Ekim T. Hanimeli, Simon Kanthak, Sven Abend, Ernst M. Rasel, and the QUANTUS team
|
|
|
|
14:00 |
Q 26.15 |
Sensing tilt in an optics lab — •Stefan Gessler, Jannik Zenner, and Simon Stellmer
|
|
|
|
14:00 |
Q 26.16 |
General Relativistic Center-of-Mass Coordinates for Composite Quantum Particles — •Gregor Janson and Richard Lopp
|
|
|
|
14:00 |
Q 26.17 |
Dimensional Reduction in Quantum Optics — •Jannik Ströhle and Richard Lopp
|
|
|
|
14:00 |
Q 26.18 |
High-dimensional maximally entangled photon pairs in parametric down-conversion — •Richard Bernecker, Baghdasar Baghdasaryan, and Stephan Fritzsche
|
|
|
|
14:00 |
Q 26.19 |
Software framework for decoherence-free control design in surface ion traps — •Eric Benjamin Kopp
|
|
|
|
14:00 |
Q 26.20 |
Setup for Laser Excitation of the 229Th Nucleus in a Cryogenic Environment — •Florian Zacherl, Keerthan Subramanian, Nutan Kumari Sah, Srinivasa Pradeep Arasada, Valerii Andriushkov, Jonas Stricker, Yumiao Wang, Ke Zhang, Christoph E. Düllmann, Dmitry Budker, Thorsten Schumm, Ferdinand Schmidt-Kaler, and Lars von der Wense
|
|
|
|
14:00 |
Q 26.21 |
Modeling LMT Atom Interferometers Using Adiabatic Perturbation Theory — •Eric P. Glasbrenner, Richard Lopp, and Wolfgang P. Schleich
|
|
|
|
14:00 |
Q 26.22 |
A single-atom array strongly coupled to an optical cavity for quantum simulation — •Marcel Kern, Thomas Picot, Clément Raphin, Jakob Reichel, and Romain Long
|
|
|
|
14:00 |
Q 26.23 |
Entanglement and coherence in the resonance fluorescence of a two-level quantum emitter — •Gabriele Maron, Xinxin Hu, Luke Masters, Arno Rauschenbeutel, and Jürgen Volz
|
|
|
|
14:00 |
Q 26.24 |
Towards a Chip-Scale Quantum Gravimeter — •Julian Lemburg, Joseph Muchovo, Kai-Christian Bruns, Vivek Chandra, Sam Ondracek, Hendrik Heine, Waldemar Herr, Christian Schubert, and Ernst M. Rasel
|
|
|
|
14:00 |
Q 26.25 |
Towards a two-photon E1-M1 clock transition excitation in 174Yb — •Mario Montero, Ali Lezeik, Dominik Koester, Klaus Zipfel, Ernst M. Rasel, Christian Schubert, and Dennis Schlippert
|
|
|
|
14:00 |
Q 26.26 |
Cooling and diffraction of atoms with a multi-purpose laser system — •Ekim Taylan Hanimeli, Simon Kanthak, Matthias Gersemann, Mikhail Cheredinov, Sven Herrmann, Claus Lämmerzahl, Sven Abend, Ernst M. Rasel, and the QUANTUS team
|
|
|
|
14:00 |
Q 26.27 |
Utilizing Bose-Einstein condensates for atom interferometry in the transportable Quantum Gravimeter QG-1 — •Smit Kanawade, Pablo Nuñez von Voigt, Nina Heine, Waldemar Herr, Jürgen Müller, and Ernst M. Rasel
|
|
|
|
14:00 |
Q 26.28 |
Transportable highly stable laser system for an Al+/Ca+ quantum logic clock — •Gayatri R. Sasidharan, Benjamin Kraus, Sofia Herbers, Fabian Dawel, Constantin Nauk, Joost Hinrichs, Vanessa Galbierz, Pascal Engelhardt, and Piet O. Schmidt
|
|
|
|
14:00 |
Q 26.29 |
Scalable Multi-Loop Cold Atom Rotation Sensor — •Sandra Rühmann, Holger Ahlers, Christian Deppner, Waldemar Herr, and Christian Schubert
|
|
|
|
14:00 |
Q 26.30 |
Commissioning of the Very Long Baseline Atom Interferometry facility — •Guillermo Alejandro Pèrez Lobato, Vishu Gupta, Kai C. Grensemann, Klaus Zipfel, Ernst M. Rasel, and Dennis Schlippert
|
|
|
|
14:00 |
Q 26.31 |
Absolute Aero Quanten-Gravimetrie (AeroQGrav) — •Patrick Rößler, Knut Stolzenberg, Ernst Rasel, and Dennis Schlippert
|
|
|
|
14:00 |
Q 26.32 |
Numerical simulations and differential wavefront analysis for a Ramsey-Bordé interferometry based optical clock — •Levi Wihan, Oliver Fartmann, Amir Mahdian, Vladimir Schkolnik, Ingmari Tietje, and Markus Krutzik
|
|
|
|
14:00 |
Q 26.33 |
Quantum Monte-Carlo study of the bond- and site-diluted transverse-field Ising model — •Calvin Krämer, Max Hörmann, and Kai Phillip Schmidt
|
|
|
|
14:00 |
Q 26.34 |
Strongly coupled Yb atoms in a high-finesse cavity: lasing and spectral dynamics — •Saran Shaju, Dmitriy Sholokhov, Ke Li, Simon B. Jäger, and Jürgen Eschner
|
|
|
|
14:00 |
Q 26.35 |
An open-fiber cavity system for quantum dot spectroscopy — •Moritz Meinecke, Peter Gschwandtner, Sven Höfling, and Tobias Huber-Loyola
|
|
|
|
14:00 |
Q 26.36 |
Quantum Monte Carlo simulations of generalized Dicke-Ising models — •Anja Langheld, Max Hörmann, and Kai Phillip Schmidt
|
|
|
|
14:00 |
Q 26.37 |
Setup of a laser system for Th ions cooling and spectroscopy in a Paul Trap — •Yumiao Wang, Valerii Andriushkov, Keerthan Subramanian, Ke Zhang, Florian Zacherl, Nutan Kumari Sah, Jonas Stricker, Srinivasa Pradeep Arasada, Christoph E. Düllmann, Dmitry Budker, Ferdinand Schmidt-Kaler, and Lars von der Wense
|
|
|
|
14:00 |
Q 26.38 |
Stabilization of a tunable coherence laser system for scattered light suppression — •Lennart Manthey, Daniel Voigt, and Oliver Gerberding
|
|
|
|
14:00 |
Q 26.39 |
Developing compact displacement sensors using Deep Frequency Modulation Interferometry (DFMI) — •Lea Carlotta Hügel, Leander Weickhardt, and Oliver Gerberding
|
|
|
|
14:00 |
Q 26.40 |
Study of Adsorption Kinetics with the Zero Range Process — •Mark Paal, Henry Martin, and Matteo Colangeli
|
|
|