Le azioni preparatorie alla FET Flagship. Tommaso Calarco H2020 FET Flagship on Quantum Technologies Infoday, Roma

Transcription

1 Le azioni preparatorie alla FET Flagship Tommaso Calarco H2020 FET Flagship on Quantum Technologies Infoday, Roma

2 Quantum Manifesto 2C 1D 1E 3A 3B 3C 4A 4D 4E 1F 4F 1. Communication 0 5 years A Core technology of quantum repeaters B Secure point-to-point quantum links 5 10 years 2. Simulators A Simulator of motion of electrons in materials B New algorithms for quantum simulators and networks 3. Sensors A Quantum sensors for niche applications (incl. gravity and magnetic sensors for health care, geosurvey and security) B More precise atomic clocks for 4. Computers A Operation of a logical qubit protected by error correction or topologically B New algorithms for quantum computers C Small quantum processor executing technologically relevant algorithms C Quantum networks between distant cities D Quantum credit cards > 10 years C Development and design of new complex materials D Versatile simulator of quantum magnetism and electricity C Quantum sensors for larger volume applications including automotive, construction D Handheld quantum navigation devices D Solving chemistry and materials science problems with special purpose quantum computer > 100 physical qubit E Quantum repeaters with cryptography and eavesdropping detection F Secure Europe-wide internet merging quantum and classical communication E Simulators of quantum dynamics and chemical reaction mechanisms t o support drug design E Gravity imaging devices based on gravity sensors F Integrate quantum sensors with consumer applications including mobile devices E Integration of quantum circuit and cryogenic classical control hardware F General purpose quantum computers exceed computational power of classical computers 8

3 More than 3600 supporters from academia and industry

4 HLSC final report handed over on Nov. 6th

5 Structure of Flagship Work Programme

6 Timeline QuantERA call St 1 Stage 2 Evaluation QuantERA projects HLSC intermediate report HLSC final report First Flagship calls National Initiatives Submission Evaluation Flagship projects Feb Fall 2017 Spring 2018 Summer 2018 Fall 2018 Jan

7 Frame conditions by EC and lessons learnt from running Flagship initiatives New model: No more core consortium, instead closely coordinated projects Frame-conditions by EC: R&I projects selected, managed, evaluated according to H2020 rules (at least in ramp-up phase) Science & Engineering Board to coordinate between R&I projects CSA to coordinate all non-r&i activities An effective governance Adopt from running Flagships Separation of strategic / coordination / operational level KPIs on program level Scientific Advisory Board Change compared to running Flagships New model with several projects A CSA for coordination of non R&I activities and community involvement

8 QSA objectives goal-driven, federated effort Involvement /commitment from key stakeholders (policy, academia, industry) Increased transnational collaboration on QT among EU initiatives in the field awareness by future stakeholders and educators Involve adjacent research fields and companies Build a community of education experts Identify best practices of QT education programs implementing the Flagship s governance Detail the HLSC governance structure Administrative support upon adoption

9 Objectives vs Work Packages goal-driven, federated effort awareness by future stakeholders implementing the Flagship s governance WP1: Strategy & Structuring WP2: Innovation & Exploitation WP3: Outreach & Education WP4: Governance & Implementation WP5: Management

10 QSA structure

11 QSA: National Coordination Network (NQN) Name Country Name Country Aspelmeyer, Markus Austria Ambainis, Andris Latvia Nesladek, Milos Belgium Aikauskas, Audrius Lithuania Vitanov, Nikolay Bulgaria Schmidt, Thomas Luxemburg Dusek, Miloslav Czech Republic Peano, Vittorio Malta Ban, Ticijana Croatia Wehner, Stephanie Netherlands Polzik, Eugene Denmark Banaszek, Konrad Poland Unruh, Dominique Estonia Omar, Yasser Portugal Pekola, Jukka Finland Ionicioiu, Radu Romania Grangier, Philippe France Ziman, Mario Slovakia Leuchs, Gerd Germany Mihailovic, Dragan Slovenia Angelakis, Dimitri Greece Acin, Antonio Spain Domokos, Peter Hungary Wendin, Göran Sweden Vala, Jiri Ireland Ensslin, Klaus Switzerland Katz, Nadav Israel Walmsley, Ian United Kingdom De Natale, Paolo Italy NQN Tasks Identify/engage/involve relevant stakeholders Collect/share info and/or best practices on QT-relevant activities Help coordinate Flagship/National Initiatives interaction Assist in promoting Gender Equality in science

12 TECHNICAL MILESTONES APPLICATION EXAMPLES The quantum mission Diagnosing diseases by quantum-enhanced imaging Quantum secure links between data centres / banks / government offices become standard Underground imaging using quantum gravity sensors Satellite-independent navigation Quantum sensors in mobile devices Next-generation digital assistants based on quantum machine learning Resilient communication and energy networks thanks to atomic clocks Real-time traffic optimization on quantum simulators Design of novel materials / chemicals / drugs exploiting quantum simulators Quantum Internet with e.g. quantum secure online banking Now ramp-up 2022 develop 2025 prototype 2029 deploy 2035 Fault tolerant route for >50 qubits processor Quantum Simulators with >500 individual coupled elements Quantum Random Number Generator and Key Distribution devices Quantum sensors outperform classical Quantum processor fitted with quantum error correction Demonstration of quantum optimisation Quantum repeaters and memory prototypes Entanglement enhanced sensors Quantum Computers outperforming classical computers Quantum simulators solving problems beyond supercomputer capability Long distance (>1000km) entanglement based networks and protocols Transition from prototypes and niche markets to mass markets European leadership in production and application of quantum technologies