Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association ARTEMIS, from successful R&D to cutting-edge Innovation Rolf Ernst, TU Braunschweig.

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Presentation transcript:

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association ARTEMIS, from successful R&D to cutting-edge Innovation Rolf Ernst, TU Braunschweig Oct. 4, 2011  Brussels ARTEMIS Industry Association The association for R&D actors in embedded systems

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association 2  embedded systems have become a key industrial innovation driver in the last decade  all industrial sectors have profited automotive, aerospace, industrial, energy, health, consumer,...  Europe has developed a world leading position in embedded systems research and technology  enabled by major innovation in embedded systems technology  from small microcontrollers to complex multiprocessor hardware and software  from individual control units to communicating devices that jointly control cars, airplanes, buildings, production lines,... 2 Embedded Systems – Key Industrial Innovation Driver

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association 3  upcoming societal challenges require a new generation of embedded systems  large networks of embedded systems and systems-of- systems for physically widely distributed applications  access to information system infrastructure  built upon the existing highly developed ES technology  examples  electric energy supply  challenges: renewable sources, electromobility  green mobility and transportation  challenges: safety, energy efficiency, mobility for everyone  health, security,... (more in ARTEMIS SRA) 3 Embedded Systems – the Neural Backbone of Society

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association 4  increasing dynamics of energy producers and consumers challenges grid control requiring new solutions  solutions are based on the embedded systems in all devices  global power supply will depend on reliable and secure embedded computer networks spanning a continent  networked embedded systems will make the smart grid work 4 Example 1: Energy Supply - Europe GTM Research: The Smart Grid in Europe

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association 5  more than 40% of the total energy consumption is spent on buildings, and a large amount is spent on city traffic  unconnected building control systems, private devices and transportation systems limit energy optimization  network integration needed as a basis for power grid energy control  new capabilities required as next step  decentralized coordinated city energy control  integrated home, office, and facility networks  integrated buildings and traffic energy control  all based on networked embedded systems 5 Energy Supply - City

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association 6 Example 2: Green Mobility and Transportation - Requirements vehicle network local driver assistance body control entertainment communication car2car com. open traffic management city level traffic optimization energy, CO 2 dynamics traffic control safety individual needs local flow optimization time energy, CO 2 car2infrastr. open

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association traffic management traffic control vehicle 1 ECU1 ECU2 ECUn vehicle 2 bicycle, pedestrian, … Green Mobility and Transportation – Embedded Systems Network 7 Internet wireless local communication in-vehicle field bus (CAN, LIN, MOST, …) Internet becomes part of the embedded network

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association 8 Green Mobility and Transportation – Addressing Individual Needs  Mobility for Everyone  many people suffer from limited mobility due to extraordinary health conditions or to handicaps  embedded system networks can help to increase mobility  monitor, navigate, physically assist, prevent harm  application follows person  moves safety criticality to all embedded networks (healthcare)  requires seamless interaction under safety and real-time requirements homebuildingtraffic work/ recreation

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association 9 Green Mobility and Transportation – Mobility Function Integration Industrial Nomadic Public Infrastructure Public Infrastructure Private Space

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association 10  networked embedded systems technology  robust, reliable, and predictable platforms for widely distributed systems shared by many applications  technologies & standards bridging industries and countries  control technology  for extremely large systems-of-systems coping with unreliable communication, such as wireless and Internet  research: Cyber-physical systems  systems integration  highly automated interoperability between large systems and information infrastructure including Internet of Things 10 Main Innovation Requirements

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association 11  use of the open internet  robustness and autonomy  mixed criticality  open system design verification 11 R&D and Innovation Targets - Selection

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association 12  Future Internet will extend its role from a backbone of information society to a communication and integration vehicle for a rapidly growing world of embedded systems  there will be many more embedded systems using the Internet than people (40 bil./year by 2020)  but Internet is only part of the embedded systems network – no replacement  Internet cannot reach the QoS and robustness of current local and dedicated embedded systems networks  major challenge - must be addressed by embedded systems innovation 12 Use of the Open Internet

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association 13  robustness requirements  robustness against communication failures („Cyberphysical systems“)  robustness against platform deficiencies and errors (untrusted, failing or incorrect components)  robustness against dynamically changing system contexts and systems evolution  autonomy requirements  autonomy for robustness  system parts shall work autonomously in case of communication failures - home networks, medical monitoring in car, traffic control, …  self protection against critical changes and untrusted components, …  autonomy for dynamic change  self configuration and adaptation for systems evolution  semantic interoperability for systems composition/configuration 13 Robustness and Autonomy

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association 14  using shared components and services for safety critical applications drastically increases component requirements  design processes and platform properties enforced by safety standards  require sufficient independence of functions with different criticality  new technologies and design methodologies needed  providing “sufficient independence” for integration  thereby keeping efficiency, flexibility and adaptability for the non-safety parts 14 Mixed Criticality

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association 15  function test of large networked embedded systems  no complete test beds any more  systems are only integrated in the field  systems contain dynamically adapting components of limited trust levels  networks are never down  test restrictions  lab tests should be supported by Living Lab integrations  technical integration test  societal acceptance test and showcase 15 Open System Design Verification

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association 16  many solutions for individual problems must be combined to address upcoming societal challenges  no individual communication or computation technology is sufficient  realistic solutions can only be based on advancements of existing embedded systems technology  well established world leading European technology  existing technology is backbone of products & services  needed innovations are possible if funding is available  European collaboration is essential for success  societal challenges reach across industrial segments  networks span many countries 16 Consequences – A case for ARTEMIS

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association 17  ARTEMIS projects enable innovation  they bring many companies together to reach a critical mass for innovation  they have demonstrated to spur collaboration with leading research institutions  to provide technology solving industrial and societal challenges  to feed back emerging problems to research  examples: formal methods for contracting, real-time and safety systems, embedded computer architectures, security,...  consider necessary time to market innovation!  ARTEMIS projects must be complemented by smaller basic research projects  currently ARTEMIS still profits from research in FP6 & FP7! 17 Consequences – Innovation Infrastructure

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association 18 Thank you for your attention! Rolf Ernst, ARTEMIS Industry Association

Embedded Systems - the Neural Backbone of Society ARTEMIS Industry Association 19  billions of embedded systems are at the core of our technological development  they increasingly collaborate in emerging large networks forming a neural backbone of society  the successful development of these embedded system networks is key to handle the upcoming societal challenges  important technical competences must still be developed in research and brought to innovation  Future Internet, information systems, and services will help, but cannot provide most of the required core competencies and technologies 19 Conclusion