Sep 27, 2018, 4:30 PM
The most awaited "Bar du Gap" is back September 28th, and we think you should not miss it! The theme for this year is "EXOTIC" so you have no excuse to arrive without a beautiful costume ;) Your creativity may even pay because this year there will be a "Best Costume Award".
May 31, 2018, 1:45 PM
26e Journée du GAP Jeudi 31 Mai 2018 Université de Genève L’Ecole de Physique Le Grand Auditoire 24, Quai Ernest-Ansermet Genève
May 19, 2017, 2:00 PM
Dr Matteo Montagnese Physikalishes Institut der Universität zu Köln Seminar room 2pm Friday 19th May 2017
May 17, 2017, 2:15 PM
25ème Journée du GAP Mercredi 17 mai 2017 Université de Genève Battelle – Bâtiment C Salle C301 Route de Drize 7 1227 Carouge
May 15, 2017, 4:15 PM
Stefan Wolf de l’Université de Lugano, Pinchat, Seminar room, 4:15pm Landauer's principle claims that "Information is Physical." A flavor of its conceptual antipode, Wheeler's "It from Bit," is the Church/Turing thesis: All natural processes can be computed by a universal Turing machine. Physical laws then become descriptions of subsets of actually observable, as opposed to merely possible, computations. Bell correlations imply a separation: Either beyond-Turing computations are impossible in nature, or they can be carried out even by single photons.
Oct 14, 2016, 11:15 AM
Fernando Monteiro Thesis Defence Pinchat, Seminar Room, 11:15am
Oct 3, 2016, 10:00 AM
Prof. Alex Lvovsky, University of Calgary, Canada, and the Russian Quantum Center, Moscow-Russia Lundi 3 octobre à 10:00, Salle de séminaire de Pinchat
Sep 23, 2016, 8:00 PM
We are pleased to inform you that the bar du GAP 2016 will take place on Friday September 23 starting at 8:00PM! The theme of the party is Hollywood/cinema. Free entrance / we sell cheap drinks / one free drink if you are disguised.
Sep 16, 2016, 11:30 AM
Morgan Weston, Griffith University, Australia. Entanglement is a key resource to many quantum information protocols, making rigorous verification of remote shared entanglement highly sought after. We design and experimentally implement a new heralded quantum steering protocol in order to verify shared entanglement over a high loss quantum channel, with the detection loophole closed. Our scheme uses entanglement swapping with two high-performance telecom-wavelength, polarisation-entangled photon sources and highly efficient detectors. Our approach has demonstrated violation of the steering inequality by two standard deviations with 14.8 dB of added channel loss, equivalent to approximately 80km of telecom fibre.
Sep 16, 2016, 11:00 AM
Joseph Ho, Griffith University, Australia. While the salient features of a quantum computer have been shown in proof-of-principle experiments, e.g., single- and two-qubit gates forming a universal gate set, difficulties in scaling up the quantum systems to control multiple qubits have made demonstrations of mode complex operations intractable. This is exemplified by the classical Fredkin (or controlled-SWAP) gate for which, despite many theoretical proposals, a true quantum analogue has yet to be realised. Here, by directly adding control to the two qubit SWAP unitary, we use photonic qubit logic to report on one of the first experimental demonstration of a quantum Fredkin gate.