Theory and Experiment

Research and teaching in Vienna are focusing on modern developments in quantum information technologies, quantum communication, entanglement with photons and with massive objects, quantum teleportation, neutron optics, atom chips, molecular quantum optics, as well as quantum physics in nanostructured solids, such as quantum dots and quantum cascade lasers.

Quantum physics is concerned with fundamental questions of physics, such as the existence of superposition states or the entanglement of quantum states and the implications of their application. In the period since Max Planck's discoveries, theoretical and experimental research has evolved at an amazing pace and scientists today are capable of controlling quantum systems of photons, of single ions and atoms or small numbers of them with extraordinary precision.

Physics is fascinating because of the intellectual excitement it provides and because of the applications it offers. In the Group of Applied Physics (GAP) at Geneva University we get our inspiration from both of these motivations. Optics, in this respect, has a privileged place. Indeed, in modern optics, experiments and theory progress hand-in-hand, and practical applications are close behind. Consequently, we can work both on conceptual issues and on applications. Moreover, it is a very good time for optics!

The Centre for Quantum Information and Communication (QuIC) at the Université Libre de Bruxelles has been working on quantum information theory for several years, with research contributions ranging from fundamental questions such as quantum measurement, quantum entanglement, or quantum nonlocality to more information-flavored issues such as quantum cloning, quantum cryptography, or quantum algorithms. More recently, it has also started an experimental quantum information activity together with the ULB optics laboratory.

QuantumWorks is an NSERC-funded Innovation Platform that links Canadian researchers with industrial and government agency partners to lead Canada into the next technological revolution - that of Quantum Information Processing (QIP).

Our mission is to aggressively explore and advance the application of quantum mechanical systems to a vast array of relevant information processing techniques. We will accomplish this by creating a truly unique environment that fosters cutting-edge research and collaboration between researchers in the areas of computer, engineering, mathematical and physical sciences.