Smart Systems Integration in the ECSEL MASRIA 2017 Reinhard Neul Robert Bosch GmbH

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1 Smart Systems Integration in the ECSEL MASRIA 2017 Reinhard Neul Robert Bosch GmbH 1

2 ECSEL MASRIA 2017 Chapter Teams No Chapter Core Team (leader) 6.1 Smart Mobility 6.2 Smart Societies 6.3 Smart Energy 6.4 Smart Health 6.5 Smart Production 7.1 Semiconductor Process, Equipment and Materials 7.2 Design Technologies 7.3 Cyber Physical Systems 7.4 Systems Integration 7.5 Safety and Security (new) Michael Paulweber Patrick Pype Gereon Meyer Matthias Schulze Paul Merkus Pertti Raatikainen Harald Poetter Guenter Lugert Chris Merveille Wolfgang Dettmann Michael Metzger Ronald Begeer Renzo DalMolin Peter Zandbergen Knut Hufeld Georg Menges Jerker Delsing Jo De Boeck Rainer Pforr Francois Brunier Mario DiazNava Ralf Popp Jurgen Niehaus Cornel Klein Wouter Leibbrandt Francesco Rogo Reinhard Neul An Nguyen-Dinh David Storer Daniel Watzenig Francois Tuot Antonio Escobar new 2

3 Essential Capabilities Key Applications ECSEL MASRIA 2017 Structure Smart Mobility Smart Society Smart Energy Smart Health Smart Production Semicon Process Equipment Materials Design Technology Cyberphysical Systems Smart Systems Integration Safety and Security new 3

4 Essential Capabilities Key Applications Smart Systems Integration Cross References Smart Mobility Smart Society H2020 Mobility for Growth H2020 Secure Societies H2020 Climate Action H2020 Food security, agriculture Semicon Process Equipment Materials Design Technology Smart Energy Smart Health Smart Production H2020 Nanotechnologies Cyberphysical Systems Smart Systems Integration Safety and Security PPP Green Vehicle EUREKA Clusters Energy Efficient Buildings JTI Clean Sky National programs, e.g. IKT2020 Factories of the Future H2020 ICT SPARC, the Robotics PPP PPP Photonics21 4

Definition of Smart Systems Integration Information User Energy procurement and storage

Environment Smart Systems are able to describe, diagnose and qualify their environment in

are capable of making predictions, to come to decisions and to take actions.

5 Definition of Smart Systems Integration Information User Energy procurement and storage Sensing Processing Knowledge base Actuation Energy Data communication Integration Environment Smart Systems are able to describe, diagnose and qualify their environment in a given complex situation. are capable of making predictions, to come to decisions and to take actions. mutually address and identify each other. are networked, autonomous and as small as possible to enable the respective application. integrate multiple Key Enabling Technologies. 5

SSI versus CPS Smart Systems Integration Cyber Physical Systems Smart

is more on hardware (but not only) Relies on integration of key enabling

was created in the beginning of ETP EPoSS in 2004 Cyber Physical Systems:

(but not only) Relies on networking of up to bigger cloud based networks

6 SSI versus CPS Smart Systems Integration Cyber Physical Systems Smart Systems Integration: Originates in microsystems technology and MEMS Focus is more on hardware (but not only) Relies on integration of key enabling technologies, in many cases on heterogeneous (3D) integration The term SSI was created in the beginning of ETP EPoSS in 2004 Cyber Physical Systems: Originate in embedded systems and HW/SW-codesign Focus is more on software (but not only) Relies on networking of up to bigger cloud based networks The term CPS was created in the US in an NSF workshop in 2006 (according to Wikipedia) 6

7 Examples of Smart Systems Smart systems for robots in collaborative Environments (Bosch) Intraocular pressure measurement device (Sensimed, STM) Advanced Driver Assistance Systems (Bosch) Minimal invasive cardiac surgery device (Sorin) Recognition system for dangerous substances (FhG IPM) Wireless sensor nodes for IoT (Bosch Connected Devices and Solutions) Smart Hearables: personalised wireless hearing aid (Bragi, NXP) Secure Connected Cars (NXP) NFC medical bands (HealthID Profile, NXP) Positioning System for Robots 7

(multi-parameter sensing, motion control, power control, thermal management, closed loop control) Smart Systems for Automated

8 Key Applications Example Smart Mobility Smart Systems for Electro-Mobility, electric drive train, battery and battery management, charging technologies, etc. (multi-parameter sensing, motion control, power control, thermal management, closed loop control) Smart Systems for Automated Driving without the driver in the loop, on highways and in urban regions, but allowing the driver to intervene (environment recognition, data fusion, positioning/mapping, vehicle control, monitoring of driver condition) 8

Evolution of Smart Systems Levels of Functionality System functionalities determine

actuation as well as signal processing to enable actions Gyro Mouse (Gyration) 2 nd

adaptive Continuous Glucose Monitoring (Medtronic) 3 rd Level Smart Systems perform

9 Evolution of Smart Systems Levels of Functionality System functionalities determine advancements in smartness 1 st Level Smart Systems integrate sensing and/or actuation as well as signal processing to enable actions Gyro Mouse (Gyration) 2 nd Level Smart Systems are built on multifunctional perception and are predictive and adaptive Continuous Glucose Monitoring (Medtronic) 3 rd Level Smart Systems perform human-like perception and action, communicate and are autonomous Fully Automated Driving (Google) 9

10 Evolution of Smart Systems Schedules System functionalities determine advancements in smartness Short-term: Advanced 1st and 2nd level Smart Systems, focusing on functional integration of sensing and actuation combined with control, monitoring, communication and networking capabilities. In many cases these systems need to be self-sustaining and operate stand alone. Mid-term: Strongly increased integration of sensors and actuators, management, energy-harvesting, transfer of energy supporting multifunctional perception, predictive, adaptive and advanced capabilities and self-test, network facilities, and suited for critical environments. Long-term: Strongly improved technology and integration supporting 3rd level Smart Systems with human-like perception, autonomy and decision processes, energy management, self-organizing networks, self-calibration and self-healing. 10

11 Smart Systems Integration Enabling Technologies Micro-electromechanical, photonic, micro-optical and microfluidic components in combination with micro- and nano-electronics Electronics with novel form factors (e.g., large-area or flexible electronics) or mixedsignal electronics Technologies for fabrication and system-level integration and advanced manufacturing equipment and new methods to embed such systems in, for example, garments or robots. Processing technologies such as lithography, chemical and physical etching, plasma and vapor deposition, electrochemical plating, chemical functionalization, atomic layer deposition, (3D-)printing and nano-imprinting, micromachining, forming and handling Integration methods for bonding, welding, gluing, brazing and soldering, molding and micro-molding and encapsulation Materials (metals, ceramics, polymers, semiconductor materials) Methods and tools for automated design and rapid prototyping. Multi-physics and multi-scale simulations as well as testing and quality inspection 11

12 ECSEL MASRIA 2017 SSI Schedules / Roadmaps 1. Building Blocks of Smart Systems (sensors, actuators, controls, interfaces) # Topic \ Time (year of program call) Building blocks of Smart Systems (sensors, actuators, controls and interfaces) SSI generation milestones M1.1: Short-term activities on smart systems M1.2: Mid-term activities on smart systems M1.3: Long-term activities on smart systems MEMS and other physical, chemical and biological 1.1 sensors and systems Effective and efficient mechanical, piezoelectric, 1.2 electrostatic, electromagnetic, inductive, pneumatic, thermal, optical, chemical, biological and other actuators Modular and highly integrated schemes of power control 1.3 and actuation Electrical, thermal, mechanical and biological energy 1.4 management 1.5 Energy generation and scavenging 1.6 MOEMS, digital light, photonics and micro-optics Power electronic inverters/converters and high-density 1.7 energy storage components Suitable and tailored structural, electronic, magnetic, 1.8 piezoelectric, active, fluidic, biocompatible and other materials (for harsh environments) Wide band gap materials for power conversion as well 1.9 as electro-active polymers and metal organic compounds Building blocks for advanced security functions, e.g physical unclonable functions 12

13 ECSEL MASRIA 2017 SSI Schedules / Roadmaps 2. Safe, secure and efficient transfer of information and power # Topic \ Time (year of program call) Safe, secure and efficient transfer of information and power Technologies for intelligent wired and wireless 2.1 interconnection 2.2 Body area networks Fast, compact, energy efficient, fail-safe and secure 2.3 wireless communication systems for energy and data and technologies therefor Standardisation of machine to machine interfaces both 2.4 data and physical Strategies and technologies for the smart management 2.5 of electric energy Technologies for energy generation, harvesting and 2.6 storage Technologies for energy transfer such as wireless 2.7 charging and seamless power supply 2.8 Advanced solutions for thermal management Powerful computational and mathematical methods and 2.9 algorithms for signal processing, data analysis, data fusion, data storage and data communication 2.10 Hardware based data fusion methods and algorithms Dynamic, adaptive and cognitive data processing and 2.11 methods for cognitive cooperation Dynamic integration of systems or nomadic devices in 2.12 swarms Research on interfacing, networking and cooperation to 2.13 enable distributed applications Technologies for mechanical, electrical, optical, 2.14 chemical, and biological interfacing and transmitters and receivers for the transfer of energy and data Advanced intuitive man-machine interfaces and 2.15 technologies therefor Secure data interfaces for the integration into the Internet 2.16 of Things Safe and secure HW/SW platforms including privacy and 2.17 security management 13

14 ECSEL MASRIA 2017 SSI Schedules / Roadmaps 3. Integration methods enabling smart functionality, automation and reliable operation in harsh and complex environments # Topic \ Time (year of program call) Integration methods enabling smart functionality, automation and reliable operation in harsh and complex environments Multi-physics and multi-scale modelling and simulation 3.1 methods for components, systems, data and communication channels Certification standards as well as design rules and 3.2 testing and inspection methods Innovative manufacturing processes for top-down as well 3.3 as bottom-up fabrication Methods and materials (metals, ceramics, polymers etc.) 3.4 for system-level interconnection Methods for the physical system integration in-package, 3.5 on-chip, on-surface, inside printed-circuits, on-tag, infabric, or on-pcb for systems Advanced (additive) manufacturing equipment and new integration methods on unusual substrates such as, for 3.6 example, garments, construction materials or building structures Technologies for smart adaptation, self-testing, selflearning and self-healing at system 3.7 level Legend: planned in WP of ECSEL market oriented Milestone from domain derived milestone, when results at medium TRL needed derived milestone, when results at low TRL needed 14

15 Thank you for your attention 15

ECS-SRA. Introduction and overview. Laila Gide ARTEMIS-IA President

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