3. Introduction
J. Watt - Steam machine IBM – IBM 1401 – First
– steam traction engine commercial computer
on punched card
INDUSTRIAL REVOLUTION COMPUTER REVOLUTION
1784 1960 1970 1990
Distance between people is reduced –
communication increase
HP – Personal computer INTERNET connect people
Distance between people disappear –
communication increase
4. Introduction
July 8 – ERICSSON announce
5 billions mobile phone June 6 – IpV6 release
connections 3.4×1038 addresses
COMPUTER REVOLUTION « SMART » REVOLUTION
2010
People are 2012 Connect the world
connected
Economical
challenges
Ecological
challenges
Demographic
challenges
5. Introduction
Do I need to develop a « SMART » product – system ?
Will I survive if I don’t adopt a « smart » approach of my product ?
8. Numbers
“We project that demand for fab-level microfluidics devices (without chemistry) will
reach some $4.8 billion in 2017, accounting for some 20% of total MEMS
demand, to become the second largest sector of the industry.”
“Biggest growth will be for ongoing screening of food and water
quality, but the clinical laboratory testing, point-of-care diagnostics
and pharmaceutical research applications are also poised for strong
increases”
8
9. Market
High fragmentation of the Smart Systems markets
Segment into several portfolios related to the functions
and applications of the system
Mai 9
2010
10. Market
Bio & Chemical Molecular
Smart Médical
detection for intercaction for
device
diagnostic drug
Technologies Tracability &
for food High Frequency
smart
applications Technologies
communication
Motion & Energy Production Smart textiles
harvesting Process &
packaging
11. Smart Médical
device
Smart systems technology allows:
1. The use of miniaturized implantable devices providing minimally
invasive solutions.
2. To use communicating solutions between sensors and recorders or
data centers to exchange information (in-line with trends in e-Health and
telemedicine).
3. Medical devices using Smart Systems technologies allow:
1. More efficient patient monitoring (at the hospital, at home,….)
2. More efficient therapeutic treatment
13. Bio & Chemical
detection for
diagnostic
Smart systems technology allows:
1. Autonomous system with stand alone use (ex: I-Stat Abbott)
2. Communicating solutions, allowing:
1. Better patient monitoring for medical applications
2. Better quality control for industrial processes
3. New in-vitro diagnostic systems, innovative Point of Care (PoC)
solutions, genetic disease diagnosis
4. Smart systems technologies are currently revolutionizing the
Healthcare industry.
14. Bio & Chemical
detection for
diagnostic
Tests are based on the colloidal gold particles
immunochromatographic technique and use
coated nitrocellulose strips
15. Molecular
intercaction for
drug
Smart systems technology allows:
1. Faster and cheaper Drug Discovery process with cell based
assay as well as genomic and proteomic chips.
2. Automation
3. Screening and multiplexing
4. Reduction of sample and reagent volumes
5. Smart Systems allow the development of solutions overcoming
biotechnologies limits to fasten and make more efficient the
drug discovery process
19. Tracability &
smart
communication
Smart systems technology allows:
1. Cheaper communication
2. Mix of technologies: video, voice, gps,..
3. Screening and multiplexing
4. Reduction of cost
5. Energy savings
20. Tracability &
smart
communication
Smart and
• VoIP Programmable
• GPS Linearized
• Video Transmitters
• Gyroscope
RFID stickers
21. High Frequency
Technologies
Smart wireless systems allows:
1. Lower cost compared to fiber
2. Ease of deployment
3. Proven reliability
4. Easy up-grade of the systems
22. High Frequency
Technologies
SMART Grid & SMART Home
Microwave backhaul, IP/MPLS networking, network management, Network
Operations Center (NOC) Service
23. Motion & Energy
Harvesting
Smart Motion & Energy systems allows:
1. Low cost energy
2. Wide range of application
3. Improve the energy savings
25. Production
Process &
packaging
Smart systems technology allows:
1. Intelligent tools and processes: Sensor integration, embedded systems, real-
time data evaluation, improved process understanding, predictive maintenance etc.
2. Production cost reduction by provision of multiple
sensor/signal- and knowledge- based
3. Intelligent production design process: Sensorial materials as product
models for physical simulation/evaluation
4. User-friendly human-machine-interfaces (HMI): New ways to
communicate status information and justify decisions in part or fully autonomous production
systems.
26. Production
Process &
packaging
Adaptive reaming tool
with integrated strain
gauges and stepper
motor based system
for compensation of
cutting edge wear to
achieve increased
accuracy and
extended tool life
•Control of process while manufacturing of rotorblades
• Extension of service interval by detection of failure
• Early reaction in case of failures
• Detection of loads thereby optimal pitch setup possible
27. SMART MATERIAL
Shape Memory Alloy
Shape Memory Polymer
Soft Magnetic materiaL
Conductive Ink Conductive Acetate
Electro-Textile
Thermo _Chromic _Pigment
Acrylic light diffuser panel
30. Our Offer
Smart Packaging
Smart Materials
Smart IT
Smart device for Life
Science and diagnostic
Smart Coatings
Smart Device
Processing &
SMALL Lab Control
Monitoring
31. Our partner
Create a dynamic environment
Clusters
Industrial
Research
partner
center
Regulation
33. Conclusion
• Smart sensors, smart systems and sub-systems
• –are everywhere
• –enable new functions
• –give competitive advantage
• –allow change of business model
• –play to the strengths of our industry
• But...
• –SSI developments are usually costly, often risky and almost always
require multidisciplinary teams
• –Funding is often indispensable
• –Transnational cooperation often required for necessary expertise
