(Draft) Workprogramme 2011-2012 Disclaimer: all information in the following slides is provided on a preliminary basis and is subject to change Detailed final presentations will be given at the ICT 2010 conference, 27-29 September 2010, Brussels

ICT 2010 27-29 September 2010 Brussels Detailed presentations and discussions on next Calls for Proposals Networking Exhibition More than 4000 participants expected http://ec.europa.eu/information_society/events/ict/2010/index_en.htm ARTEMIS Summercamp, June 2010 Tom Clausen, EC 2

Portfolio of Embedded Systems Design projects (from FP7 call 1 of 2007) STREP IP/NoE COCONUT Verification MULTICUBE Multi-objective exploration Nr. Components, lines of code MNEMEE Memory optim. COMBEST Components MEDEIA Model driven Heterogeneous components/ design styles Complexity GALAXY ArtistDesign ACTORS Adaptibility PREDATOR Quasimodo Predictable, dependable MOGENTES Test SATURN Modelling, code generation ALL-TIMES Timing Interoperable tools COSINE Coordin. of national prog. INTERESTED Modelling, verification, execution Budget 40 M€ ••• 3 ARTEMIS Summercamp, June 2010 Tom Clausen, EC

Portfolio of Embedded Systems Design projects (from FP7 call 4 of 2009) STREP IP Budget 28 M€ EMBOCON Optimisation MOBY-DIC piecewise affine Control, Robustness PROARTIS RT analysis Adaptibility, Reconfigurable ERA Reconfigurable MADNESS predictable & adaptive MADES code generation Model-driven development DESTECS discrete-continuous Platform based design Interoperable tools TERESA secure & dependable ENOSYS SysML/MARTE ARCADIA Coordin. of national prog. COMPLEX Design exploration (power/performance) ••• 4 ARTEMIS Summercamp, June 2010 Tom Clausen, EC

2011-2012 ICT Work Programme Challenges Green Cars PPP & Energy Efficient Buildings PPP Factories of the Future PPP Socio-economic goals 5. ICT for health 7. ICT for enterprise and manufacturing 8. Digital libraries & learning 6. ICT for a low-carbon Industry/Technology needs 1. Pervasive and Trusted Network and Service Infrastructures Future Internet PPP 2. Cognitive systems and robotics Future and Emerging Technologies (FET) 3. Alternative Paths to Components and Systems Embedded Systems and Computing are here JTIs (ARTEMIS, ENIAC) 4. Content & media technologies ARTEMIS Summercamp, June 2010 Tom Clausen, EC

Computing and EMS Objectives Overall Call Planning Computing and EMS Objectives PPP call Open summer 2010 Close end 2010 Call 7 Open Sep 2010 Close Jan 2011 Call 8 Open summer 2011 Close autumn 2011 PPP call Open summer 2011 Close end 2011 Call 9 Open end 2011 Close spring 2012 ARTEMIS Summercamp, June 2010 Tom Clausen, EC

WP 2011-12 (Call 7) Publication: Sep ‘10 Deadline: Jan ‘11 Objective 3.3 New paradigms for embedded systems, monitoring and control towards complex systems engineering Before in two separate objectives… Objective 3.4 Computing Systems 95 M€ / 2Y 50 M€ 45 M€ ARTEMIS Summercamp, June 2010 Tom Clausen, EC

WP 2011-12 (Call 7 - Objective 3.3) 50 M€ TBC New paradigms for embedded systems, monitoring and control towards complex systems engineering to push the limits of embedded systems, monitoring and control, and optimisation technologies Embedded Systems (IP, STREPs) Networked Monitoring and Control (IP, STREPs) System-of-Systems (IP, CSA) International Cooperation (CSA) Min 50% for IPs; min 30% for STREPs 50 M€ TBC ARTEMIS Summercamp, June 2010 Tom Clausen, EC

International Cooperation Western Balkans Monitoring and Control USA System-of-Systems TBC ARTEMIS Summercamp, June 2010 Tom Clausen, EC

Call 7 50M€ IP (a-e), STREP (a-d), CSA (f,g) Objective 3.3: New paradigms for embedded systems (ES), monitoring & control (M&C) towards complex systems engineering Target outcomes: Design of advanced heterogeneous ES Architectures and tools for energy efficient ES Composition & verification methods and tools M&C techniques dealing with large number of distributed sensory data Robust control and optimisation in industrial environments Energy-aware self-organising M&C systems, including fault- adaptive methods in case of failures Engineering of System-of-Systems (SoS) addressing societal needs Modelling and simulation of high level behaviour and interaction of the constituent systems; Management of dynamics of SoS Strategic roadmap and case studies Facilitate international cooperation Analysis of research agendas and joint R&D initiatives with USA for SoS and with Western Balcan Countries for M&C Call 7 50M€ IP (a-e), STREP (a-d), CSA (f,g) ARTEMIS Summercamp, June 2010 Tom Clausen, EC

What is a “System-of-Systems”? Complexity of systems is growing Systems interact with an increasing number of other (embedded) systems due to an increasingly connected society and industry A System-of-Systems is composed of autonomous (embedded) systems that function as a complex system in order to satisfy a global need or multiple needs The overall system has to warrant certain (non-functional) properties: predictable, dependable, safe and secure A System-of-Systems is inherently interdisciplinary and heterogeneous ••• 11 ••• 11 ARTEMIS Summercamp, June 2010 Tom Clausen, EC

Why SoS Engineering? Reinforce leading position of European industry in system engineering Better use of existing resources and systems Facilitate global goal(s) or grand challenge(s) Societal applications of SoS for Airport and air-traffic control, urban transport, water distribution, surveillance, smart grid for electricity, energy efficient buildings, enterprise and supply chain operations, health care “Engineering” is broader than “Design” It covers also activities during deployment, operation and maintenance of systems Correct-by-construction at design stage needs to be extended to operation stage ••• 12 ••• 12 ARTEMIS Summercamp, June 2010 Tom Clausen, EC

WP 2011-12 (Call 7 - Objective 3.4 ) 45 M€ TBC Computing Systems to achieve breakthroughs in the transition to multi-core architectures across the whole computing spectrum (embedded, general-purpose and high-performance) the underlying hardware, the system software (OS, tools, compilers, etc) and the programming paradigms. Parallel and Concurrent Computing Virtualisation Customisation Architecture and Technology International Collaboration (USA, India, China and Latin America) 45 M€ TBC ARTEMIS Summercamp, June 2010 Tom Clausen, EC

Joint Calls Research and Development cooperation Objective 10.1 EU-Brazil Microelectronics/Microsystems Networked Monitoring and Control Future Internet - experimental facilities Future Internet – security e-Infrastructures Objective 10.2 EU-Russia Multi-core High-Performance Computing Porting of Codes 9 M€ TBC ARTEMIS Summercamp, June 2010 Tom Clausen, EC

Other Initiatives PPPs

ICT contribution to the PPPs Energy Efficient Buildings Green Car > Fully Electrical Vehicle Factories of the Future Future Internet Networked Monitoring and Control Embedded Systems have a major role to play in all these PPPs ARTEMIS Summercamp, June 2010 Tom Clausen, EC

Energy Efficient Buildings 30 July 2010 – 26 Oct 2010 6.4 PPP EEB: ICT for energy-efficient buildings and spaces of public use 30 July 2011 – 2 Dec 2011 6.5: PPP EEB: ICT for energy-positive neighbourhoods TBC ARTEMIS Summercamp, June 2010 Tom Clausen, EC

TBC Full Electric Vehicle 6.8 PPP GC: ICT for fully electric vehicles 30 July 2010 – 26 Oct 2010 30 July 2011 – 2 Dec 2011 TBC ARTEMIS Summercamp, June 2010 Tom Clausen, EC

TBC Factory of the Future 30 July 2010 – 26 Oct 2010 7.3 PPP FoF: Virtual factories and enterprises 7.4 PPP FoF: Digital factories: Manufacturing design and product lifecycle management 30 July 2011 – 2 Dec 2011 7.1 PPP FoF: Smart factories: energy-aware, agile manufacturing and customisation 7.2 PPP FoF: Manufacturing Solutions for new ICT products ARTEMIS Summercamp, June 2010 Tom Clausen, EC

TBC Future Internet 30 July 2010 – 26 Oct 2010 1.7 PPP FI: Technology foundation - Future Internet Core Platform 1.8 PPP FI: Use Case scenarios and early trials 1.9 PPP FI: Capacity Building and Infrastructure Support 1.10 PPP FI: Programme Facilitation and Support 18 May 2012 – 18 Sep 2012 ARTEMIS Summercamp, June 2010 Tom Clausen, EC

Thank you!