CEWQO covers a broad range of topics within modern quantum optics, including

  • Fundamental aspects of quantum optics
  • Quantum correlations and entanglement
  • Non-classical states and quantum tomography
  • Open quantum systems
  • Optical angular momentum and quantum polarization
  • Quantum information processing
  • Quantum communication
  • Cavity and circuit QED
  • Quantum optics with neutrons, atoms, molecules
  • Quantum optics in condensed matter systems

Industry session

This year there will be a special emphasis on quantum technologies with a designated session and contributions from industrial actors. Particular topics of interest are

  • Quantum sensing
  • QKD and random number generation
  • Quantum computing

The industry session — Is Now the Time to Tunnel to Market? — will include contributions from

  • Mathieu Munsch, Qnami (Switzerland)
  • Romain Alléaume, SeQureNet (France)
  • Søren Stobbe, Sparrow Quantum (Denmark)

Invited speakers

  • Plenary Akira Furusawa, University of Tokyo
  • Plenary Ronald Hanson, TU Delft
  • Plenary Fedor Jelezko, Universität Ulm
  • Plenary Tim Ralph, University of Queensland
  • Plenary Andrew Shields, Toshiba Europe
  • Konrad Banaszek, University of Warsaw
  • Marco Bellini, INO-CNR Florence
  • Warwick Bowen, University of Queensland
  • Matthias Christandl, University of Copenhagen
  • Eleni Diamanti, CNRS - Université Pierre et Marie Curie
  • Dirk Englund, MIT
  • Radim Filip, Palacký University Olomouc
  • Marco Genovese, INRIM Turin
  • Simon Gröblacher, TU Delft
  • Stephan Götzinger, MPL Erlangen
  • Klemens Hammerer, Leibniz Universität Hannover
  • David Hunger, Karlsruhe Institute of Technology
  • Hyunseok Jeong, Seoul National University
  • Ping Koy Lam, ANU Canberra
  • Julien Laurat, LKB Paris
  • Gerd Leuchs, MPL Erlangen
  • Norbert Lütkenhaus, IQC Waterloo
  • Patrick Maletinsky, Basel University
  • Joshua Nunn, University of Oxford
  • Stefano Pirandola, University of York
  • Eugene Polzik, University of Copenhagen
  • Stephanie Wehner, TU Delft
  • Roberta Zambrini, IFISC Palma

Important dates

  • Abstract submission deadline: 1 April 2017
  • Acceptance notification: 21 April 2017
  • Early bird sign-up: 10 May 2017
  • Final registration deadline: 18 June 2017

Updates and announcements

Keep track of news about CEWQO 2017 below or by following us on Twitter.

CEWQO 2017

Submit your presentation

Submit your presentation through the Easy Chair system where you will have to create an account if you don't already have one. Please include

  • a one page PDF paper of your work (freestyle - but include title, authors and affiliations)
  • a brief summary (maximum 50 words) to be included in the schedule

When submitting, you can select whether you prefer to give an oral or a poster presentation.

Deadline: 1 April 2017 Extended until 4 April, 23:59!

Sign up for the conference

Sign up for CEWQO 2017 here. The registration is managed by Conference Manager™ and you will be directed to their webpage for the registration.

Registration fee

The early-bird registration fee is 400 € + processing charge. This includes access to the conference, lunch + refreshments all days, and conference dinner. Late registrations (after 10 May 2017) will be 450 €.
Final registration deadline is 18 June.

Payment on-site will unfortunately not be an option.

Cancellation Policy: Please note there will be NO refunds for registration withdrawals.


Latest updates

Conference program


The full program is now available below as well as a download.

Contributed talks


The PC has now chosen the contributed talks among the many excellent submissions.

Registration open


You can now register to participate at the conference! Early-bird deadline is 1 May.

Speakers, prog. committee


We now have 27 invited speakers and have assembled a great program committee.

PhD school


We added some info on the summer school taking place the week before the conference.

Submission open


Abstract submission is now open! Send us your work for a contributed talk or poster.

More confirmed speakers


The list of excellent, confirmed invited speakers now numbers 20.

First confirmed speakers


We have the first 12 confirmed invited speakers added to the website.

Date settled


The date of the conference has now been settled to be in the week starting at 26 June 2017.

Website online


Basic information about the conference is now available.

Conference program

Download the schedule as a single page PDF.
Click the speaker names in the schedule below to see their talk titles and short summaries.
  • Monday
    • 08:00 Registration
    • 08:45 Welcome
    • 09:00 Tim Ralph
      Entanglement and relativistic effects for Gaussian states
      We present for the first time an analytic formula for the entanglement of formation (EoF) of general bipartite Gaussian states. We show through physical examples that EoF is a superior measure of entanglement than Negativity. We also discuss an unexpected decoherence effect when detecting the radiation from accelerated quantum sources.
    • 09:45 Patrick Maletinsky
      Single spin quantum sensing and imaging
      Electronic spins yield excellent quantum sensors, offering quantitative, nanoscale sensing down to single spin levels. I will present our recent achievements in employing electronic spins for nanoscale magnetometry of solid-state systems. I will focus on quantitative quantum sensing of antiferromagnets and superconductors and how it competes with state-of-the-art magnetic imaging.
    • 10:15 David Hunger
      Purcell-enhanced single-photon emission from colour centers in diamond coupled to tunable microcavities
      We use a fully tunable microcavity to demonstrate the control of spontaneous emission from nitrogen-vacancy and silicon-vacancy centers in diamond. This allows us to realize efficient and narrow-band single photon sources under ambient conditions.
    • 10:45 Coffee
    • 11:15 Stefano Pirandola
      Capacities of repeater-assisted quantum communications
      We bound the ultimate rates for distributing secret keys via quantum repeaters, from the basic scenario of a single repeater chain to an arbitrarily-complex quantum network, where systems may be routed through single or multiple paths. We establish the end-to-end capacities under fundamental noise models, including optical loss.
    • 11:45 Robert J. Sewell
      Simultaneous tracking of spin angle and amplitude beyond classical limits
      We simultaneously squeeze two non component of the angular momentum of an atomic ensemble. We show how to reduce the quantum mechanical back action below δF~N^1/2, the classical limit for N spins.
    • 12:05 Lambert Giner
      Hacking heisenberg’s uncertainty principle with quantum clones
      Performing simultaneous non-commuting measurements on a single quantum system is impossible because of the disturbances generated by the measurements. However, if one possesses two copies of the system, this problem can be overcome. We perform simultaneous non-commuting measurements and fully determine the state of the system using quantum clones.
    • 12:25 Anaelle Hertz
      A tight entropy-power uncertainty relations
      A proper expression of the uncertainty relation relies on entropy power. The resulting entropy-power uncertainty relation is equivalent to the entropic formulation of the uncertainty relation, but can be further extended to rotated variables. Hence, we prove a tighter form of the entropy-power uncertainty relation taking correlations into account.
    • 12:45 Lunch
    • 14:00 Konrad Banaszek
      Mode engineering for realistic quantum-enhanced interferometry
      We show that appropriate preparation and detection of the modal structure of photons used in quantum-enhanced interferometry can alleviate deleterious effects caused by other, experimentally inaccessible, degrees of freedom. We present an experiment in which spatial mode engineering restores sub-shot noise precision of two-photon interference degraded by residual spectral distinguishability.
    • 14:30 Stephan Götzinger
      Efficient generation and manipulation of photons with single molecules
      I will first discuss our efforts to deterministically generate single photons by using planar dielectric antennas. In the second part I will present experiments where photons and single molecules strongly interact. A single molecule can amplify a weak laser beam and generate nonlinear effects like three-photon amplification and four-wave mixing.
    • 15:00 Jake Iles-Smith
      Phonon limit to simultaneous near-unity efficiency and indistinguishability in semiconductor single photon sources
      We develop a non-Markovian theory describing the role of phonons on the indistinguishability and efficiency of semiconductor single photon sources.
    • 15:20 Thomas Kauten
      Observation of genuine three-photon interference
      In this work we present the experimental demonstration of a three-photon energy-time entanglement realized via cascaded down-conversion in nonlinear crystals. The entanglement was analyzed with three imbalanced Franson interferometers, resulting in a visibility of the three-fold coincidences of (92.7 +/- 4.6)%, with negligible two-photon and single-photon visibility.
    • 15:40 Coffee
    • 16:10 Kasper Jensen
      Quantum optical magnetometry for biomedical applications
      We have developed a quantum optical magnetometer which is capable of detecting tiny bio-magnetic fields. In proof-of-principle experiments on isolated animal nerves and hearts, we demonstrate that we can detect nerve impulses and the heartbeat. Possible applications include non-invasive diagnostics of diseases related to the brain, heart and nervous system.
    • 16:30 Fedor Jelezko
      Quantum sensing with diamond qubits
      Novel sensing techniques are at the heart of a wide variety of modern technologies. Nanomedicine, molecular biology, chemistry and material science require the ability to measure properties of matter at the atomic scale. Here we show that diamond spin sensors can provide new tool for sensing at nanoscale. We also show how quantum error correction protocols allows to improve performance of diamond spin magnetometers.
    • 17:15 Speed talks
  • Tuesday
    • 08:30 Coffee
    • 09:00 Andrew Shields
      Quantum communications using semiconductor devices
      Quantum key distribution has the unique advantage of allowing secure communications with long term secrecy. Here I discuss recent work to realise practical and reliable systems that operate with high key rates on data carrying, installed fibres, as well as next generation quantum networks based on entanglement.
    • 09:45 Dirk Englund
      Semiconductor quantum technologies for communications and computing
      The Internet is among the most significant inventions of the 20th Century. We are now poised for the development of a quantum internet to exchange quantum information and distribute entanglement among quantum memories (and ultimately quantum computers) that could be great distances apart. This kind of quantum internet would have a range of applications that aren't possible in a classical world, including long-distance unconditionally-secure communication, certain types of precision sensing and navigation, and distributed quantum computing. But we still need to develop or perfect many types of components and protocols to build such a quantum internet. This talk will consider some of these components, focusing on photonic integrated circuits, diamond spin-based quantum memories, and prototype networks. Specifically, the first part of this talk will review our recent progress in adapting one of the leading PIC architectures—silicon photonics—for different types of quantum secure communications protocols. The second part of the talk will consider how photonic integrated circuits technology may extend the reach of quantum communications through all-optical and memory-based quantum repeaters, as well as extensions to modular quantum computers.
    • 10:15 Warwick Bowen
      Quantum-limited single molecule sensing: Probing nanoscale biological machinery in its native state
      We introduce a new optical nanofibre-based biosensor that, for the first time, reaches the quantum noise limit. We achieve state-of-the-art sensitivity, tracking single 3.5 nm unlabelled biomolecules with a four order-of-magnitude reduction in optical intensity. This provides a pathway to explore the machinery of life without labels or photochemical damage.
    • 10:45 Coffee
    • 11:15 Norbert Lütkenhaus
      Quantum communication with coherent states: Realizing communication and information complexity advantages of quantum communication
      We present the basic principle how quantum advantages of communication can be realized using todays technology. The main focus of the presentation will be on optical quantum fingerprinting, but we will also include more recent results.
    • 11:45 Giacomo De Palma
      Gaussian states minimize the output entropy of one-mode quantum Gaussian channels
      We prove the longstanding conjecture stating that Gaussian input states minimize the output entropy of one-mode quantum Gaussian channels for fixed input entropy. Our result is crucial to prove the converse theorems for both the triple trade-off region and the capacity region for broadcast communication of the noiseless Gaussian amplifier.
    • 12:05 Nathan Walk
      Composably secure time-frequency quantum key distribution
      We present a composable, finite-size security proof, valid against arbitrary attacks, for high dimensional time-frequency quantum key distribution. Combining advances in entropic uncertainty relations with decoy state analysis, our proof predicts key rates of Mbits/s over metropolitan distances (40 km) and maximum transmission distances of up to 140 km.
    • 12:25 Raj Patel
      An experimental quantum Bernoulli factory
      The Bernoulli factory is an algorithm which takes a sequence of Bernoulli random variables (or coin flips) and outputs a new function. We report an experiment using linear optics which demonstrates a clear quantum advantage in resource consumption when coins exist in superpositions and exhibit non-classical correlations.
    • 12:45 Lunch
    • 14:00 Industry forum
    • 15:30 Speed talks
    • 16:15 Poster session
  • Wednesday
    • 08:30 Coffee
    • 09:00 Ronald Hanson
      The dawn of quantum networks
      This talk will present an overview of our latest progress towards realizing extended quantum networks, including the first loophole-free violation of Bell’s inequalities and the first primitive network experiments on a pair of spatially separated two-qubit nodes.
    • 09:45 Simon Gröblacher
      Quantum experiments exploiting the radiation pressure interaction between light and matter
      Mechanical oscillators coupled to light via the radiation pressure force have attracted significant attention over the past years for allowing tests of quantum physics with massive objects and for their potential use in quantum information processing. Recently demonstrated quantum experiments include entanglement and squeezing of both the mechanical and the optical mode. So far these quantum experiments have almost exclusively operated in a regime where the light field oscillates at microwave frequencies. Here we would like to discuss recent experiments where we demonstrate non-classical mechanical states by coupling a mechanical oscillator to single optical photons. These results are a promising route towards using mechanical systems as quantum memories, for quantum communication purposes and as light-matter quantum interfaces.
    • 10:15 Marco Bellini
      Measurement-induced quantum state engineering and emulation of strong optical nonlinearities
      Appropriate combinations of elementary quantum operations can faithfully emulate the effect of a strong Kerr nonlinearity on weak states of light. We experimentally demonstrate a nonlinear phase shift at the single-photon level by using coherent states as probes and full quantum tomography of the output states.
    • 10:45 Coffee
    • 11:15 Stephanie Wehner
      Testing fully quantum repeaters on a quantum internet
      A future quantum internet connects small quantum processors by long distance quantum communication. Possibly the most well known application of quantum communication is quantum key distribution, but many other interesting applications already exist. Here, we propose stages towards the development of a full blown quantum internet, where each stage is distinguished by the successively larger type of applications that it supports. We continue by presenting a test to assess the performance of quantum repeaters for transmitting qubits, rather than key bits, which is required by many protocols.
    • 11:45 Sebastian Steinlechner
      Quantum-dense metrology
      Quantum-dense metrology (QDM) enables simultaneous sensing of two orthogonal phase space projections of a signal by using continuous-variable two-mode entanglement. We show how this approach can be used to achieve sub-shot noise sensitivity even in the presence of classical disturbances, i.e. when the measurement was not even shot-noise limited.
    • 12:05 Milena D'Angelo
      Correlation plenoptic imaging
      Correlation plenoptic imaging pushes imaging to its fundamental limits of both resolution and depth of field, thus enabling diffraction limited imaging with an higly improved DOF. We demonstrate CPI with both chaotic light and entangled photon sources. Both theoretical and experimental results are presented.
    • 12:25 Ivano Ruo-Berchera
      Quantum enhanced absorption measurement and wide field microscopy
      We realized a quantum enhanced wide field microscope exploiting spatially multimode photon number correlations. It provides true (without postselection) sub-shot noise sensitivity for each one of the 10^4 pixels of the image. Absorption sensitivity approaching the best (known) strategy is also reported and discussed.
    • 12:45 Lunch
  • Thursday
    • 08:30 Coffee
    • 09:00 Akira Furusawa
      Hybrid quantum information processing: A way for large-scale optical quantum information processing
      We are working on hybrid quantum information processing, which combines two methodologies of quantum information processing – qubit and continuous variable (CV). More precisely, we encode logical qubits by using CV methodology and utilize CV quantum processors for the realization of a fault-tolerant large-scale universal optical quantum computer.
    • 09:45 Gerd Leuchs
      CV quantum communication
    • 10:15 Marco Genovese
      Super-resolution from single photon emission: Toward biological application
      I present a work addressed to demonstrate quantum enhanced resolution in confocal fluorescence microscopy, achieved by exploiting non-classical photon statistics of fluorescence emission of single nitrogen-vacancy color centers in diamond. Ongoing applications in biology will be presented.
    • 10:45 Coffee
    • 11:15 Julien Laurat
      Coupling atomic arrays to nanofibers: Generation, storage and reflection of single photons
      I will describe our recent results based on atomic arrays trapped near a nanofiber: the demonstration of optical memory in this all-fibered setting, the heralding of a single collective excitation and its subsequent conversion in a single photon, and the observation of a large Bragg reflection for the guided light.
    • 11:45 Pau Farrera
      Tunable single photon source from an atomic quantum memory for storage in a highly excited Rydberg state
      Strong interaction between two single photons is of broad fundamental interest and would enable several new tools in the field of quantum information. It requires two main ingredients: a strong non-linear medium and a source of single photons compatible with the medium. We show the combination of two such systems.
    • 12:05 Jaromír Fiurášek
      Experimental demonstration of photonic quantum Fredkin gate and its applications
      We report on experimental implementation of linear-optical quantum Fredkin gate and its utilization for several important tasks such as quantum cloning, purification of single qubits or measurement of purity of quantum states. Our setup combines single- and two-photon interference and encoding of information into polarization and path degrees of freedom.
    • 12:25 Oleksandr Kyriienko
      Floquet quantum simulation
      We discuss the recent advances in the field of quantum simulation, searching for optimal algorithms for the modern setups with limited resources. We show that Floquet engineering of the Hamiltonian can be used to simulate efficiently various spin models using microwave quantum optical systems, and study symmetry protected topological phases.
    • 12:45 Lunch
    • 14:00 Radim Filip
      Quantum non-Gaussianity of photons and phonons
      We will present recent theoretical and experimental achievements in a direct diagnostics of nonclassical and quantum non-Gaussian states of many photons and phonons. We will report on a detection of non-classical light already from many hundreds of single-photon emitters and quantum non-Gaussian light from nine emitters and its application.
    • 14:30 Joshua Nunn
      A noise-free quantum memory
      We present a new quantum memory protocol for coherent light storage based on off-resonant cascaded absorption (ORCA) in warm atomic vapour. The ORCA memory is broadband and noise free, and we demonstrate the storage of GHz-bandwidth heralded single photons without any degradation in the measured anti-bunching of g(2) = 0.02.
    • 15:00 Alexander Ulanov
      Schrödinger's cats in quantum optics
      We experimentally implement a heralded procedure for increasing the amplitude of optical Schrödinger’s cat states (coherent superpositions of coherent states) by linear optical transformations and conditional measurements. Our protocol can be applied iteratively allowing creation of Schrödinger’s cat states of arbitrarily high amplitudes.
    • 15:20 Valentina Parigi
      Simulation of complex quantum networks with quantum multimode resources based on optical frequency combs
      We are currently developing a versatile experimental photonic platform for simulating complex quantum networks. The platform consists of intrinsically multimode systems based on parametric processes pumped by optical frequency combs.
    • 15:40 Coffee
    • 16:10 Andrea Smirne
      Ultimate precision limit for noisy frequency estimation
      We show how the classical asymptotic scaling of the estimation error can be surpassed using initially entangled states, if a general and realistic kind of noise is considered. The ultimate precision is determined by the short-time behavior, which when departing from a memoryless (LIndbladian) regime leads to super-classical asymptotic resolution.
    • 16:30 Jaehak Lee
      Gaussian benchmark for optical communication towards ultimate capacity
      We establish the fundamental limit of communication capacity within Gaussian schemes under phase-insensitive Gaussian channels, employing multimode Gaussian states and collective Gaussian operations and measurement. We prove that this Gaussian capacity is additive so that a single-mode communication suffices to achieve the largest capacity under Gaussian schemes.
    • 16:50 Eugene S. Polzik
      Measurement of motion in a negative mass reference frame – a new frontier for gravitational wave interferometry
      A measurement of motion not limited by the standard quantum limit has been recently demonstrated. We report the results of the experiment where motion of a nanomembrane is measured in the reference frame of the atomic spin and outline a proposal for using it for accelerometry and gravitational wave interferometry.
    • 17:20 Roberta Zambrini
      Quantum synchronization and decoherence
      Synchronization, a universal phenomenon in a broad spectrum of complex systems, has been recently explored in the quantum regime also in relation to quantum correlations. After reviewing the role of dissipative couplings on synchronization, optomechanical devices and an application of synchronization for quantum probing will be presented.
    • 19:00 Conference dinner
  • Friday
    • 08:30 Coffee
    • 09:00 Klemens Hammerer
      Coherent cancellation of measurement back-action-noise in hybrid atom-optomechancis
      Continuous position of force measurements of massive systems are subject to measurement back-action resulting in the standard quantum limit of measurement sensitivity. Current experiments with optomechanical systems reached the regime where measurement sensitivity is limited by back-action-noise. I will discuss an approach towards surpassing the standard quantum limit by coherent cancellation of back noise using an auxiliary system exhibiting an effective negative mass. The auxiliary system is a spin polarized atomic ensemble. This method of back action cancellation was recently demonstrated in the lab of Eugene Polzik (Copenhagen).
    • 09:30 Eleni Diamanti
      Practical secure quantum communications
      We describe recent results in quantum cryptography, focusing on practical photonic implementations, using encodings in discrete or continuous variables of light, of central quantum network protocols, enabling secret key distribution, verification of entangled resources and transactions with quantum money, with maximal security guarantees.
    • 10:00 Cosmo Lupo
      Ultimate precision bounds for the estimation and discrimination of quantum channels
      We consider adaptive metrology and draw a novel connection with teleportation. For teleportation-covariant channels we find that adaptive estimation cannot beat the standard quantum limit, with the quantum Fisher information determined by the Choi-Jamiolkowski matrix. As an example, we establish the ultimate precision for estimating excess noise for quantum cryptography.
    • 10:20 Stefano Pironio
      Semi-device-independent framework based on natural physical assumptions
      We introduce a new, physically motivated approach to semi device independence in prepare-and-measure scenarios, based on bounding observables such as mean energy. This has applications to secure information processing, e.g. randomness generation and cryptography. We also review two recent experiments demonstrating semi-device-independent quantum randomness generation.
    • 10:45 Coffee
    • 11:15 Hyunseok Jeong
      Macroscopic superpositions and optical quantum information processing beyond single-photon qubits
      In this talk, I will discuss characterizations and quantifications of macroscopic quantum superpositions in various aspects. I will also talk about how such states can be utilized in the context of optical quantum information processing to overcome limitations of the well-known approach based on single-photon qubits.
    • 11:45 Ulrich Hoff
      Quantum control of mechanical oscillators
      Interfacing optomechanical systems with non-classical light offers a way to control and steer the quantum state of mechanics. We present experimental and theoretical progress in this direction, including demonstration of quantum-enhanced feedback cooling of a mechanical oscillator and a proposal for generation of macroscopic superposition states using non-Gaussian optical states.
    • 12:05 Farid Shahandeh
      Quantum correlations in nonlocal BosonSampling
      There is a discrepancy between the criteria from quantum information science and quantum optics for determining the quantumness of correlations. Here we present a protocol which uses quantum correlations as defined within quantum optics framework as a resource to perform a nonlocal task more efficiently than any classical algorithm.
    • 12:25 Giulia Ferrini
      Continuous-variable instantaneous quantum computing is hard to sample
      We demonstrate for the first time the computational hardness of a sub-universal quantum computational model based on Continuous-Variable input states and homodyne detection. This new model is inspired by Discrete-Variable “Instantaneous Quantum Computing”, and is a sensible candidate for the practical demonstration of quantum supremacy.
    • 12:45 Lunch
    • 14:00 Matthias Christandl
      Quantum key repeaters
      QKD is in practice limited to a few hundred kilometres, but can be extended to longer distances by use of a quantum repeater. In this talk, we discuss the possibility of a quantum key repeater, which would work beyond the limits of entanglement distillation and hence conventional quantum repeaters.
    • 14:30 Hyang-Tag Lim
      Electrically tunable artificial gauge potential for exciton polaritons
      Artificial gauge fields promise a route to controlling topological properties of photonic systems but have only been realized by static design. In this presentation, we report that perpendicular electric and magnetic fields can effect dynamically controlled artificial gauge potentials for exciton polaritons.
    • 14:50 Ali Elshaari
      Hybrid quantum photonic circuits
      We present hybrid quantum integrated circuits combining on-demand III-V nanowire quantum emitters and CMOS compatibility. Using our approach, we demonstrate on-chip generation, spectral filtering, routing, and wavelength division multiplexing of single-photons, all electrically-tunable. The selected nanowire quantum dots are deterministically integrated in silicon nitride waveguides using a novel nanomanipulation-technique.
    • 15:10 Goodbye

PhD summer school

In the week prior to the conference, a PhD summer school is organized within the topic of optical quantum technology in the picturesque village of Gilleje at the beach (30 km from the conference site). It will be a great opportunity for PhD students and early stage postdocs in quantum optics to learn about modern concepts in quantum optical technology, thus being fully prepared for the more advanced talks during the conference.

Non-local participants at the school will be able to join the conference at a reduced price of 200 € (for administrative reasons, the 200 € discount will be refunded after the conference).

  • Warwick Bowen (Quantum Sensing)
  • Andrea Fiore (Integrated Quantum Optics)
  • Tobias Kippenberg (Quantum Opto-mechanics)
  • Christoph Marquardt (Quantum Communication)
  • Timothy Ralph (Quantum Optics Theory)
  • Jacob Sherson (Quantum Simulations)
  • Richard Warburton (Spintronics)

History and organization

  • History

    CEWQO started in the 90s as a series of workshops in Central Europe, initiated by József Janszky in Budapest.
    Since then, it has grown in scope and geographical reach to become a full-fledged international conference covering all major topics in modern quantum optics research.

  • Previous events
    • 1992 Budapest, Hungary
    • 1993 Bratislava, Slovakia
    • 1993 Bratislava, Slovakia
    • 1994 Budapest, Hungary
    • 1995 Budmerica, Slovakia
    • 1997 Prague, Czech Republic
    • 1999 Olomouc, Czech Republic
    • 2000 Balatonfüred, Hungary
    • 2001 Prague, Czech Republic
    • 2002 Szeged, Hungary
    • 2003 Rostock, Germany
    • 2004 Trieste, Italy
    • 2005 Ankara, Turkey
    • 2006 Vienna, Austria
    • 2007 Palermo, Italy
    • 2008 Belgrade, Serbia
    • 2009 Turku, Finland
    • 2010 St. Andrews, UK
    • 2011 Madrid, Spain
    • 2012 Sinaia, Romania
    • 2013 Stockholm, Sweden
    • 2014 Brussels, Belgium
    • 2015 Warsaw, Poland
    • 2016 Kolymbari, Greece
  • Committees
    Program committee
    • Antonio Acín (Barcelona, Spain)
    • Jonatan Bohr Brask (Genéve, Switzerland)
    • Jaromír Fiurášek (Olomouc, Czech Republic)
    • Barry Garraway (Sussex, UK)
    • Ilja Gerhardt (Stuttgart, Germany)
    • Frédéric Grosshans (Paris, France)
    • Kasper Jensen (Copenhagen, Denmark)
    • Anthony Leverrier (Paris, France)
    • Paulina Marian (Bucharest, Romania)
    • Dmitry Mogilevtsev (Minsk, Belarus)
    • Jonas Neergaard-Nielsen - Chair (DTU)
    • Elke Neu (Saarbrücken, Germany)
    • Tracy E. Northup (Innsbruck, Austria)
    • Matteo G. A. Paris (Milan, Italy)
    • Ana Predojević (Ulm, Germany)
    • Friedemann Reinhard (Munich, Germany)
    • Magdalena Stobińska (Warsaw, Poland)
    • Michael Vanner (Oxford, UK)
    • Denis Vasilyev (Innsbruck, Austria)
    • Patrick Windpassinger (Mainz, Germany)
    • Alessandro Zavatta (Florence, Italy)
    Advisory board
    • Konrad Banaszek
    • Gunnar Björk
    • Nicolas Cerf
    • Aurelian Isar
    • Natalia Korolkova
    • Margarita Manko
    • Ninni Messina
    • Luis Sanchez-Soto
  • Organizers

    CEWQO 2017 is organized by members of the QPIT section (Quantum Physics and Information Technology) at the Department of Physics at DTU:

    • Ulrik Lund Andersen
    • Tobias Gehring
    • Alexander Huck
    • Tine Hougaard Klitmøller
    • Jonas S. Neergaard-Nielsen

Getting there

Venue, access and accommodation

  • Accommodation

    There are not a lot of hotels in the vicinity of DTU, but getting from any of the train stations in central Copenhagen to the conference venue takes 35-40 minutes, so it is perfectly feasible (and perhaps more interesting) to stay in Copenhagen.
    Please note that we do not provide any assistance with booking of hotels or other accommodation.
    That said, here is a list of suggested hotels with convenient access to public transportation.
    Scandic Eremitage, Lyngby
    There is one big hotel in Lyngby, the Scandic Eremitage, 20 minutes walk from the venue.
    We have secured 30 rooms at a discounted price of 1448 DKK single / 1648 DKK double per night for a flexible booking, incl. breakfast. To take advantage of this offer, please fill out this form and return to the hotel at latest 12 May.
    Danhostel Copenhagen City
    The Danhostel Copenhagen City hostel is located in the very center of Copenhagen.
    Conference attendants receive a 10% discount off the regular price. To obtain this discount, send a reservation request to which includes the discount booking code DTU17 as well as the following info:
    Name; phone number; email address; dates of your stay; desired room type.
    Suggested hotels in Copenhagen
  • From Copenhagen Airport

    Whether you are going to Copenhagen city centre or directly to DTU, you will take either the train (Öresundstog) towards Copenhagen/Helsingør or the metro towards Vanløse.