Potential Energy Surfaces and Berry Phases beyond the Born-Oppenheimer Approximation (Prof. E. Gross)

The starting point of essentially all modern electronic-structure techniques is the Born-Oppenheimer approximation. It not only makes calculations feasible, it also provides us with an intuitive picture of chemical reactions. [more]

Genome editing and the CRISPR/cas revolution (Prof. K. Förstemann)

I will present the origins of the prokaryotic (i.e. bacteria and archaea) CRISPR/cas systems, then describe how one particular variant (Streptococcus pyogenes cas9) has been adapted and optimized for use in eukaryotic cells. [more]

First principles modeling of Light-Matter interactions within QED-TDDFT: From Weak to Strong Coupling in QED-Chemistry and Materials (Prof. A. Rubio)

Computer simulations that predict the light-induced change in the physical and chemical properties of complex systems, molecules, nanostructures and solids usually ignore the quantum nature of light. [more]

The Alchemy of Vacuum - Hybridizing Light and Matter (Prof. T. Ebbesen)

Strong coupling of light and matter can give rise to a multitude of exciting physical effects through the formation of hybrid light-matter states. [more]

Quantum optics with trapped ions – from single ion heat engines to ions in vortex laser fields (Prof. F. Schmidt-Kaler)

Trapped single ions and ion crystal exhibit excellent control of the internal spin– and the external motional-degree of freedom. Multi-particle quantum entangled states are generated with high fidelity in view of a future quantum computer with trapped ions. [more]

Manipulating nuclei with laser light: the quest of Thorium-229 (Prof. T. Schumm)

The radio isotope Thorium-229 is expected to present a remarkably low-energy excited (isomer) state of the nucleus which is expected around 7.8(5) eV. [more]

Quantum Measurements on Trapped Ions (Prof. J. Home)

Measurement as defined in quantum physics rarely corresponds to what is performed in the laboratory. [more]

Collective quantum dynamics: from information scrambling to emergent hydrodynamics (Prof. M. Knap)

Generic, clean quantum many-body systems approach a thermal equilibrium after a long time evolution. In order to reach a global equilibrium, conserved quantities have to be transported across the whole system which is a rather slow process governed by diffusion. [more]

Are we quantum computers, or merely clever robots? (Prof. M. Fisher)

Of course quantum information processing is not possible in the warm wet brain. There is, however, one \loophole" - oered by nuclear spins - that must be closed before acknowledging that we are merely clever robots. [more]

Optical Atomic Clocks: From Laboratory Experiments to International Time Keeping (Dr. H. Margolis)

Optical atomic clocks based on laser-cooled atoms or single trapped ions have made rapid progress over the past few years, with the most advanced now having reached levels of stability and uncertainty that significantly surpass the performance of caesium primary frequency standards. [more]

Fundamental Physics with (weird) Magnetic Resonance (Prof. D. Budker)

  • Date: Jul 25, 2017
  • Time: 02:30 PM - 03:30 PM (Local Time Germany)
  • Speaker: Prof. Dmitry Budker
  • Institut für Physik, Johannes Gutenberg Universität Mainz, Arbeitsgruppe Quanten-, Atom- und Neutronenphysik (QUANTUM)
  • Room: Herbert Walther Lecture Hall
  • Host: MPQ
I will discuss the ongoing experiments (CASPEr and GNOME) searching for ultralight galactic dark matter using magnetic-resonance techniques and a new approach to measuring parity violation in chiral molecular systems. [more]
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