Our Projects
P01 – Coordination project
PI: Thomas Pohl (SFB coordinator), TU Wien.
Organizational infrastructure: SFB office, administration, budget, events (meetings, retreats, symposia), communication and outreach.
P02 – Quantum simulation and computing in dual-species atom arrays
PI: Hannes Bernien, University of Innsbruck.
Dual-species Rydberg arrays for multi-qubit gates, new quantum simulation regimes, and measurement-controlled dynamics (mid-circuit measurements).
P03 – Magnetism and superradiance with dipolar atoms in lattices
PI: Francesca Ferlaino, University of Innsbruck.
Magnetic dysprosium atoms in 3D lattices with sub-wavelength spacing; quantum magnetism, topological phases, and superradiance.
P04 – Many-body phases and dynamics of strongly dipolar molecules
PI: Tim Langen, TU Wien.
Ultracold CaF molecules in tweezers/lattices realizing t-J, extended Bose-Hubbard, and SU(N) models with fully tunable interactions.
P05 – Quantum simulation with atomic arrays in optical resonators
PI: Julian Léonard, Institute of Science and Technology Austria - ISTA.
Tweezer arrays coupled to optical cavities for programmable, photon-mediated long-range interactions; spin liquids, superradiance, scrambling.
P06 – Quantum dynamics and phases of matter with high connectivity
PI: Andreas Nunnenkamp, University of Vienna.
Many-body dynamics at high connectivity: information spreading, time crystals, measurement-induced dynamics.
P07 – Quantum simulation with Rydberg atoms
PI: Hannes Pichler, Austrian Academy of Sciences, Innsbruck.
Digital quantum simulation protocols for neutral atom arrays, fermionic encodings, error correction.
P08 – Light-matter coupling in strongly interacting atomic systems
PI: Thomas Pohl, TU Wien.
Collective optical properties of atom arrays: superradiance, non-classical light, non-equilibrium phases, numerical methods.
P09 – Simulating quantum lattice models with high connectivity
PI: Annabelle Bohrdt, Ludwig Maximilian University of Munich.
Neural networks as variational quantum states for long-range interacting spin and t-J models.