In addition to coupling atoms to optical resonators, we are also pursuing a number of other directions to realize highly controllable atom arrays for applications in quantum simulation, quantum computing, quantum metrology and quantum optics.
The SNAQC project is funded within the Quantum Futur Program of the BMBF and pursued mainly within the QMI Group. The focus is on realizing new quantum computing and quantum simulation platforms for realizing quantum error correction as well as quantum simulation and quantum metrology using open systems.
In the Strontium Rydberg Lab, we are developing a novel quantum simulation platform based on scalable, sortable optical lattices for strontium atoms. The goal is the realization of a fast quantum gas microscope based on laser-cooled strontium atoms. The work is done in collaboration with and within the Quantum Many Body Systems Division at MPQ.
Being among the first of its kind, the Rubidium Quantum Gas Microscope is continuously developed further. Projects done in the machine include quantum simulation with long-range interacting itinerant atoms and the realization of switchable light-matter interfaces. The work is done in collaboration with and within the Quantum Many Body Systems Division at MPQ.
Within the Munich Quantum Valley initiative (MQV), we are aiming to realize a digital quantum computer based on individually addressable optical qubits realized in laser-cooled and tweezer-trapped strontium atoms. The project includes a number of technical developments required for scalable quantum computers and a wide range of collaborations with our partners withing MQV.
