Classical computers require enormous computing power and memory to simulate even the most modest quantum systems. That makes it difficult to model, for example, why certain materials are insulators and others are conductors or even superconductors. R. Feynman had grasped this since the 1980s and suggested to use instead another more controllable and perhaps artificial quantum system as a "quantum simulator". Beyond applications in the quantum regime, quantum computers and simulators are expected to be able to solve difficult classical problems too. Recent advances in quantum technologies are paving the way as we speak for a second revolution where operational quantum devices are now within reach.
In our group we are working in all aspects of quantum technologies, from the basic science behind them, all the way to co-developing quantum simulator devices with world leading experimental groups. We work with all quantum platforms and more recently focus in superconducting quantum circuits, room temperature light-matter systems and integrated photonic chips. We have recently edited a book and written a review in our work. Examples of our work include the quantum simulation of exotic phenomena thought to exist only in strongly interacting electronic systems, such as Mott transitions, spin-charge separation, interacting relativistic theories and many-body localization (the latter with the Google group), that can be reproduced and understood in more detail. In addition to the "many-body stuff", we are also interested in the "few body" quantum effects found in nano-structures systems interfaced with light.
More information at our homepage: http://dimitrisangelakis.org/
Dimitris G. Angelakis joined CQT in 2009 as a Principal Investigator after being a regular visitor and collaborator of the quantum group since 2003. He was born and raised in a small farm in Chania, Crete, Greece, where his childhood curiosity for the wonders of nature led him to study physics in the University of Crete (in spite of almost everyone else’s suggestion to study engineering or medicine). In 1998 he was offered a PhD position in quantum optics under Sir Peter Knight FRS at Imperial College London. He was supported by the Greek State Scholarship Foundation throughout his studies after achieving the highest marks the country in the corresponding national exams. His PhD work in quantum light-matter interactions received the Valerie Myerscough prize in 2000, and then also Institute of Physics UK prize in 2002. In 2001 and at age 25 he was elected college research Fellow at University of Cambridge (St Catharine's JRF) and worked in the Department of Applied Mathematics and Theoretical Physics until 2007. A year after his move to Cambridge, the Centre for Quantum Computation in Cambridge was initiated by Artur Ekert, which he joined to work in implementations of quantum simulation and computation. In 2008 he took over a faculty appointment at his hometown Technical University of Crete, where he in now a tenured associate professor of Quantum Physics at the School of Electrical and Computer Enginnering (part time since 2012). He is known among others for his pioneering work in quantum simulators using light-matter systems.