Anders did his master's degree at Stockholm University in the group of Markus Hennrich working on improving the coherence times of ions. In Innsbruck he will join the Quantum Information team on the LinTrap setup.

.

Stefan did his PhD at the TU Vienna in the group of Arno Rauschenbeutel. There he worked on a project showing theoretically end experimentally that the polarization state of light emitted by subwavelength emitters can give rise to a fundamental error in position measurements of the emitters. This work was published together with our former group members Gabriel, Daniel and Yves.

He is now joining the ERC project QCosmo from Philipp Schindler where he will apply quantum computing techniques to investigate polyatomic molecular ions.

For the first time, physicists from the University of Innsbruck have entangled two quantum bits distributed over several quantum objects and successfully transmitted their quantum properties. This marks an important milestone in the development of fault-tolerant quantum computers. The researchers published their report in Nature.

The new experiment will allow the scientists at the University of Innsbruck to explore new quantum electrodynamics effects by locating a single ion in front of a hemispherical mirror (Scilight article)

Congratulations, Marc!

Thesis Titled: Automated Frequency Locking via Spectroscopy on trapped ⁴⁰Ca⁺ Ions

Matthias did his Masters in Regensburg in the group of Prof. Schüller, and is now joining the Cryo team as PhD student. He will work both in Innsbruck and in Villach with Infineon on the development of novel 2D surface traps.

James did his MPhys at Oxford University where he was investigating the Fermi surface topology of quasi-2D iron-based superconductors.

He will be joining Ben Lanyon's group as a PhD student where he will be researching applications for quantum networks. 

Matthias did his PhD at Saarland University in Saarbrücken, Germany, where he worked on polarization-preserving quantum frequency conversion as telecom interface for quantum networks based on single trapped ions and neutral atoms.

In Innsbruck, Matthias will join the 2D crystal team aiming at variational quantum simulation of spin models in two-dimensional geometries.

Quantum information is fragile, which is why quantum computers must be able to correct errors. But what if whole qubits are lost? Researchers at the University of Innsbruck, in collaboration with RWTH Aachen University and University of Bologna, are now presenting a method in the journal Nature that allows quantum computers to keep going even if they lose some qubits along the way.