SLIDE 1 nano inside
An exciting and brave new world…
- Prof. dr. ing. Dave H.A. Blank
Chief Scientific Ambassador, University of Twente MESA+ Institute for Nanotechnology
Chairman NanoNextNL Boegbeeld NWA route quantum/nano revolution
- Capt. of science topteam HTSM
AWTI advisory committee government
SLIDE 2
Citrate synthesis of Nanomaterials
SLIDE 3 nano-particles synthesis
SEM: nano particles after sintering
SLIDE 4
Nano in products (smart textile)
SLIDE 5
Impact of nanotechnology ……………
SLIDE 6
Medicine with nano-particles
SLIDE 7 Imaging with quantum nanodots
CdSe/ZnS Nanocrystal Quantum confinement
SLIDE 8 Deterministic encapsulation & fusion
Chip 25x25 µm and drop generator type with expanding channel
500x slow
E.W.M. Kemna et al., Lab Chip, (2012), 12(16), 2881-2887.
(300x slow)
SLIDE 9 Nanopill for earlier diagnostic
Nano-wires Albert van den Berg
SLIDE 10 NanoMed Diagnostic
Early detection of cancer in urine
Biomarker panels hmDNA: Cervical cancer, Lung cancer, Bladder cancer, Colon cancer
SLIDE 11 superconductor metal half-metal semi-conductor isolator YBa2Cu3O7 SrRuO3 LaCaMnO PrBa2Cu3O7 BaTiO3 diamagnetism ferromagnetic ferroelectric
Building blocks for new functionalities
SLIDE 12 Atomic level control enables design of complex functional materials
- G. Rijnders & DB Nature 433, 369 – 370
Building with atoms
SLIDE 13 Building with atoms: artificial materials
2 nm 2 nm Growth Direction Growth Direction
SLIDE 14
Earlier diagnostics: nanonose
SLIDE 15
Earlier diagnostics: nanonose
SLIDE 16 Human avatars to prevent and cure diseases
internet of healthcare HEALTH EU sustainable healthcare human avatars personalized therapies & drugs preventive healthcare smart aging behavioral engineering
SLIDE 17
Internet of Things
SLIDE 18
Energy for 1 Google search: 2 min of 9 watt LED lamp
SLIDE 19
BlueGene/L rat CPU 80 TF 90 TeraFlops Memory 7 TeraBytes 8 TB
SLIDE 20
BlueGene/L rat Power 50 mWatt 300 MWatt Volume 25 m3 6 cm3
SLIDE 21
Nanoscale programmable architectures
SLIDE 22 Muller
Au/Ti PCMO SrRuO3 SrTiO3 Si I/V
Pr0.6Ca0.4MnO3 grown at : 2J/cm2, 650 oC, 5x10-5 mBar PCMO: 100nm SRO: 60nm Au: 100nm, Ti: 16nm RRAM
Need for complex (oxide) materials (that learn)
2 4 6
0.00 0.02 Current(A) Voltage (V) 20 cycles
Ti/PCMO/SRO/STO/Si 50x50µm
2
HRS LRS
SLIDE 23 Generic Themes Societal Needs
- Scientific output
- Commercialization
- Safe-by-design
Collaboration in themes
SLIDE 24 Facts and Figures
Scientific output to date:
- >1250 peer-reviewed publications
- Impact factor citations >1.78
- 21%publications with IF > 10
- 230 PhD theses
- At least 95 granted EU projects
- 127 unique patents
SLIDE 25 Facts and Figures
Commercialization
- 24 start-ups benefitted from NNNL
- 18 start-ups emerged from NNNL
- 86 demonstrators were developed
- Average Technology Readiness
Level (TRL) from 4.9 to 6.9 The patent-over-budget-filing ratio was 15 times higher than the average within the EU FP 7 programme
SLIDE 26 Facts and Figures
Safe-by-Design innovation
- Risk Analysis and Technology
Assessment (RATA) has been integrated with NanoNextNL, bringing responsible research and Safe-by-Design innovation into practice.
theme participated in about 30 EU projects.
SLIDE 27 Impact of nanotechnology
§ Information Technology Computers, Data Communication § Materials and instruments § Health and medication § Energy and environment § Transport § Safety § Risk & Technology Assessment
SLIDE 28
Shaping the Future
with nano inside