From Atom Optics to Quantum Simulation [electronic resource] : Interacting Bosons and Fermions in Three-Dimensional Optical Lattice Potentials /
Will, Sebastian.author.
This thesis explores ultracold quantum gases of bosonic and fermionic atoms in optical lattices. The highly controllable experimental setting discussed in this work, has opened the door to new insights into static and dynamical properties of ultracold quantum matter. One of the highlights reported here is the development and application of a novel time-resolved spectroscopy technique for quantum many-body systems. By following the dynamical evolution of a many-body system after a quantum quench, the author shows how the important energy scales of the underlying Hamiltonian can be measured with high precision.  This achievement, its application, and many other exciting results make this thesis of interest to a broad audience ranging from quantum optics to condensed matter physics. A lucid style of writing accompanied by a series of excellent figures make the work accessible to readers outside the rapidly growing research field of ultracold atoms.
Description based upon print version of record.
Doctoral thesis accepted by the Johannes Gutenberg University of Mainz, Germany.
Includes bibliographical references.
Towards Strongly Interacting Bosons and Fermions -- Hubbard Models for Bosons and Fermions -- Detection and Observables -- Experimental Apparatus -- Interacting Fermions in Optical Lattice Potentials -- Quantum Phase Revival Spectroscopy and Multi-body Interactions -- Interacting Mixtures of Bosons and Fermions in Optical Lattice Potentials -- Coherent Interaction of a Single Fermion with a Small Bosonic Field.
This thesis explores ultracold quantum gases of bosonic and fermionic atoms in optical lattices. The highly controllable experimental setting discussed in this work, has opened the door to new insights into static and dynamical properties of ultracold quantum matter. One of the highlights reported here is the development and application of a novel time-resolved spectroscopy technique for quantum many-body systems. By following the dynamical evolution of a many-body system after a quantum quench, the author shows how the important energy scales of the underlying Hamiltonian can be measured with high precision.  This achievement, its application, and many other exciting results make this thesis of interest to a broad audience ranging from quantum optics to condensed matter physics. A lucid style of writing accompanied by a series of excellent figures make the work accessible to readers outside the rapidly growing research field of ultracold atoms.
Phase transformations (Statistical physics).
Condensed materials.
Quantum computers.
Spintronics.
Quantum physics.
Low temperature physics.
Low temperatures.
Quantum Gases and Condensates.
Quantum Information Technology, Spintronics.
Quantum Physics.
Low Temperature Physics.