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• "Controlling quantum chaos: time-dependent kicked rotor", Tomsovic, Urbina, Richter, 2023

  Publication

  One major objective of controlling classical chaotic dynamical systems is exploiting the system’s extreme sensitivity to initial conditions in order...

  Publication on epub.uni-regensburg.de: "Controlling quantum chaos: time-dependent kicked rotor" (external link, opens in a new window)

• "Erratum to: Unorientable topological gravity and orthogonal random matrix universality", Weber, Tall, Haneder, Urbina, Richter, 2024

  Publication

  Erratum to: JHEP07(2024)267

  Publication on epub.uni-regensburg.de: "Erratum to: Unorientable topological gravity and orthogonal random matrix universality" (external link, opens in a new window)

• "Semiclassics in a system without classical limit: The few-body spectrum of two interacting bosons in one dimension", Geiger, Urbina, Hummel, Richter, 2017

  Publication

  xWe present a semiclassical study of the spectrum of a few-body system consisting of two short-range interacting bosonic particles in one dimension, a...

  Publication on epub.uni-regensburg.de: "Semiclassics in a system without classical limit: The few-body spectrum of two interacting bosons in one dimension" (external link, opens in a new window)

• "Post-Ehrenfest many-body quantum interferences in ultracold atoms far out of equilibrium", Tomsovic, Schlagheck, Ullmo, Urbina, Richter, 2018

  Publication

  Far out-of-equilibrium many-body quantum dynamics in isolated systems necessarily generates interferences beyond an Ehrenfest timescale, where quantum...

  Publication on epub.uni-regensburg.de: "Post-Ehrenfest many-body quantum interferences in ultracold atoms far out of equilibrium" (external link, opens in a new window)

• "Data archive of "Controlling Many-Body Quantum Chaos: Bose-Hubbard systems"", Beringer, Steinhuber, Urbina, Richter, Tomsovic, 2024

  Publication

  Dataset of the figures displayed in the publication "Controlling Many-Body Quantum Chaos: Bose-Hubbard systems"

  Publication on epub.uni-regensburg.de: "Data archive of "Controlling Many-Body Quantum Chaos: Bose-Hubbard systems"" (external link, opens in a new window)

• "Tracing Dirac points of topological surface states by ferromagnetic resonance", Pietanesi, Marganska, Mayer, Barth, Chen, Zou, Weindl, Liebig, Diaz-Pardo, Suri, Schmid, Giessibl, Richter, Tserkovnyak, Kronseder, Back, 2024

  Publication

  Ferromagnetic resonance is used to reveal features of the buried electronic band structure at interfaces between ferromagnetic metals and topological...

  Publication on epub.uni-regensburg.de: "Tracing Dirac points of topological surface states by ferromagnetic resonance" (external link, opens in a new window)

• "Towards a quantum time mirror for non-relativistic wave packets", Reck, Gorini, Goussev, Krueckl, Fink, Richter, 2018

  Publication

  We propose a method—a quantum time mirror (QTM)—for simulating a partial time-reversal of the free-space motion of a non-relativistic quantum wave...

  Publication on epub.uni-regensburg.de: "Towards a quantum time mirror for non-relativistic wave packets" (external link, opens in a new window)

• "Phantom Force Induced by Tunneling Current: A Characterization on Si(111)", Weymouth, Wutscher, Welker, Hofman, Giessibl, 2011

  Publication

  Simultaneous measurements of tunneling current and atomic forces provide complementary atomic-scale data of the electronic and structural properties...

  Publication on epub.uni-regensburg.de: "Phantom Force Induced by Tunneling Current: A Characterization on Si(111)" (external link, opens in a new window)

• "Localization of the phantom force induced by the tunneling current", Wutscher, Weymouth, Giessibl, 2012

  Publication

  The phantom force is an apparently repulsive force, which can dominate the atomic contrast of an AFM image when a tunneling current is present. We...

  Publication on epub.uni-regensburg.de: "Localization of the phantom force induced by the tunneling current" (external link, opens in a new window)

• "The effect of sample resistivity on Kelvin probe force microscopy", Weymouth, Giessibl, 2012

  Publication

  Kelvin probe force microscopy (KPFM) is a powerful technique to probe the local electronic structure of materials with atomic force microscopy. One...

  Publication on epub.uni-regensburg.de: "The effect of sample resistivity on Kelvin probe force microscopy" (external link, opens in a new window)