Mixed Criticality Systems and Multicore Roman Obermaisser Agenda - - PowerPoint PPT Presentation

Mixed‐Criticality Systems and Multicore Roman Obermaisser

Agenda

09:00 ‐ 09:30 Welcome and Introductions ‐ Prof Dr Roman Obermaisser, University of Siegen Short keynote address ‐ Prof Dr Heinrich Daembkes, ARTEMIS‐IA President The Commissions view on the Mixed Criticality Systems and Multicore ‐ Z Olivan Tomas, European Commission 09:30 ‐ 09:40 Strategy and vision in context of CPS and "smart everywhere": Background and context of the CPS event & main results from Day 1 Dr Roman Obermaisser, University of Siegen 09:40 ‐ 10:30 Session 1: Mixed‐Criticality Systems and Certification Call 10 Projects ‐ 2013 ‐ Dr Roman Obermaisser, University of Siegen (DREAMS) ‐ Francisco Cazorla, Barcelona Supercomputing Centre (PROXIMA) Call 7 Projects – 2011 ‐ Certification for MCS ‐ Dr Madeleine Faugère, Thales (CERTAINTY, Certification for MCS) National projects ‐ Prof Dr Juergen Becker, KIT Kalsruhe Institute of Technology (ARAMIS)

Agenda (2)

10:30 ‐ 12:00 Session 2: Embedded Multi‐Core Platforms Call 4 Projects ‐2009 ‐ William Fornaciari, Politecnico de Milano (2PARMA) ARTEMIS JU ‐ Philippe Bonnot, Thales (ACROSS, ARTEMIS project) Call 7 Projects ‐2011 ‐ Marcello Coppola, ST Microelectronics (VIRTICAL) ‐ Fabrice Lemonnier, Thales (FLEXTILES) ‐ Salvador Trujillo, Ikerlan (MULTIPARTES) ‐ Torben Hoffmann, Erlang (PARAPHRASE) ‐ Antonio Solinas, Akhela (TOUCHMORE) Call 10 Projects – 2013 ‐ Luis Miguel Pinho, Politecnico do Porto (P‐SOCRATES) Other success stories from 2009 ‐ Jan Beeran, Honeywell (PARMERASA) ‐ Gerard Rawerda, Recore systems (DESYRE) ‐ Florian Broekaert, Thales (PHARAON) 12:00 ‐ 13:00 Lunch

Agenda (3)

13:00 ‐ 14:45 Session 3: Exploitation, Innovation and Commercial Impact ‐ Towards Platform building and industrial exploitation Mixed‐Criticality Community and Innovation Roadmap Exploitation, Innovation and Impact in Multicore systems Panel Discussion on Innovation‐Commercial Impact Arjan Geven, TTTech Marcello Coppola, ST Microelectronics Salvador Trujillo, Ikerlan Philippe Bonnot, Thales Antonio Solinas, Akhela 14:45 ‐ 15:00 Conclusions of Day 2/Future of the area: MCS & Multicore "3 key messages" to be presented in the Joint Closing panel Dr Roman Obermaisser, University of Siegen 15:00 ‐ 15:30 Close of breakout sessions and coffee 15:30 ‐ 16:30 Joint closing panel Report from sessions: ‘3 key messages’ Wrap‐up

Three Key Messages of MCS Workshop

1. TECHNOLOGY: Key technological challenges must be addressed towards cost‐effective development of MCS 2. INNOVATION: Emphasis on innovation for MCS and Multicore as one of the key changes from FP7 to H2020 3. COMMUNITY BUILDING: Concertation by a MCS community is required to build critical mass, foster collaboration and knowledge exchange, influence standards and facilitate technological advances with bigger cross‐domain outputs

Technology Challenges

• Timing analysis methodologies and platform support

for timing predictability (e.g., PROXIMA, PARMERASA)

• Virtualization techniques for resources with isolation

mechanisms and flexibility in application mappings (e.g., FLEXTILES, vIRTICAL, ACROSS)

• Adaptivity in MCS combing design‐time and run‐time

methods and addressing significant EFP (e.g., FLEXTILES)

Technology Challenges (2)

• Methodology and model‐driven development methods

for MCS including customizable toolchains and automation, DSE application design and mapping, formal validation and analysis (e.g., MULTIPARTES, TOUCHMORE, DREAMS)

• Heterogeneous application subsystems with dissimilar

models of computation, platform requirements and timing models (e.g., FLEXTILES, DREAMS)

• Incremental and modular certification techniques for

MCS and multi‐core systems

Innovation Goals

• Integration of development methods and MDE for MCS

into commercial development and verification tools (e.g., PROXIMA, CONTREX, DREAMS)

• Design methodologies and associated toolsets for COTS

components and general purpose commercial architectures (e.g., DREAMS, PROXIMA)

• Hardware‐assisted virtualization in mixed‐criticality

products such as home gateways or secure smartphones (e.g., vIRTICAL, DREAMS)

Innovation Goals (2)

• Use of high performance processors in critical systems

with real‐time requirements (e.g., DREAMS, P‐SOCRATES)

• Integration of runtime resource management into

products and reference designs for energy improvement, power saving, QoS and real‐time support (e.g., 2PARMA)

• Advances in certification of MCS and corresponding

standards including modular safety cases, use of multi‐ core platforms and mixed‐criticality product lines (e.g., ACROSS, CERTAINTY, DREAMS)

Goals of MCS Community Building

• Bundling efforts on mastering technology challenges and achieving innovation

goals

• European influence on standards and joint standardization activities
• Constituency building for a stronger and well identified constituency so we can

position ourselves clearly in H2020

• Connection to open source communities
• Faciliate information flow and interfaces between projects and organization
• Innovation roadmap to give a perspective of what is needed in Europe in the

next decade from all R&D and innovation actors in the area of MCS

• Exploit synergies between HPC and ES worlds
• Cross‐domain exploitation with synergies between application domains, benefits

from larger markets and exploitation of economies of scale

Conclusion

• Increasing importance of mixed‐criticality systems based on

multi‐core processors

• Focus on innovations in the area of MCS with transfer to

business units and products

• Technological challenges in methodologies and platforms

towards the cost‐effective development of MCS

• Eco system building using a MCS community is required to

create critical mass across industry to prevent fragmentation, to support research and innovation development of SMEs and allow a cross‐sectoral, multi‐ platform approach.