Prof. Ing. Paolo MatteazziChair of NANOfutures ETIP

President of MBN Nanomaterialia spa

What are the nanotechnologies ?

Transfer of technology from

science to practice

Brussels 09-2015

Hip Joint fromBiocompatible Plastics

Batteries, lightweight materials,Catalytic elements

Intelligent/Active clothing and tissues

Reinforced lightwight frames

Pigments

Scratchproofwindows withSelf cleaning lotus-effect

LEDs saveEnergy

Nano lithographyfor processors

Food-Grade Additives(Coffee foamer)Cosmetics Additives

(Sun screens)

Self cleaning surfaces, High resistant cements

ALREADY TRANSFERED

What are the nanotechnologies ?Transfer of technology from science to practice

Brussels 09-2015

What are the nanotechnologies ?Transfer of technology from science to practice

NANOTECHNOLOGY ALREADY IN INDUSTRY

Principal Ktons/year EU

Cabon Black 9500

Amorphous Silica 1500

Metal Oxides 350

CNT, Graphene, Fullerenes 0.3

NanoSilver 0.02

Components for Industrial plant, Energy production, Critical Raw Material substitution, Aerospace

Nanomaterials are classified under REACH. Therefore manufacturers, importers and downstream users of nanomaterials have to comply with the REACH requirements.

Brussels 09-2015

Nanotechnologies are horizontal-enabling convergent technologies which cross all vertical industrial sectors.

Energy

Chemical

Sport

Telecomunications

Computer/Data storage

Constructions

Transportation

Health Care / Pharma.

Biotechnologies

Aerospace / Defence

Agriculture & Food

• They are ‘horizontal’ because they cut across numerous industrial sectors;

• They are ‘enabling’ since they provide the platform, the tools to realise certain products;

• They are ‘convergent’ because they bring together sectors of science that were previously separated

NANOfutures Platform has been shaped

accordinglyNA

NO

TE

CH

NO

LO

GIE

SWhat are the nanotechnologies ?

Transfer of technology from science to practice

HORIZONTAL

ENABLING

CONVERGENT

Brussels 09-2015

NANOfutures EITP

NANOfuturesassociation

NANOfutures is an European Integration and Innovation Platform of which main objective is to facilitate the nanotechnology development and commercialization by connecting all relevant nanotechnology stakeholders

It addresses cross-sectorial needs, joining the efforts of all the stakeholders;

It aims at meeting grand societal and economical challenges through fostering the relevant of sustainable nano-enabled products

It aims at reducing fragmentation, aligning research and innovation efforts for the competitivenes of European nanotechnology

Stakeholders: European Technology Platforms, Industries, Research Institutions, Universities, Associations, Regional and National clusters

HORIZONTAL

ENABLING

CONVERGENT

Brussels 09-2015

The Platform structure guarantees a cross-cutting approach:-10 Horizontal Working Group -11 ETP representatives

NANOfutures EITPINDUSTRIALIZATIONINDUSTRIALIZATION

Tech.Transfer and Innovation FinancingTech.Transfer and Innovation Financing

NETWORKINGNETWORKING

SKILLS AND EDUCATIONSKILLS AND EDUCATION

RESEARCH and TECH.RESEARCH and TECH.

COMMUNICATIONCOMMUNICATION

SAFETYSAFETY

STANDARDIZATIONSTANDARDIZATION

REGULATIONREGULATION

CRITICAL ROW MATERIALSCRITICAL ROW MATERIALS

>1000 Members

Brussels 09-2015

NANOfutures Roadmaps

2012 2015

Actions for Value Chains development

Enabling products in different industrial sectors

Converging on common key issues

Brussels 09-2015

Roadmap Focus: VCs & Markets

VC6 Integration of

nano

VC6 Integration of

nano

Direct manufacturing

Finished net shaped

Semi finished

Catalysis and

filtration

3d structures for optoelectronic

VC3 Structured Surfaces

VC3 Structured Surfaces

Energy (PV batteries,

harvesting)

ICT (Nanoelectronics, photonics)

Transportation

Construction and buildings

Textile and

passive funct.

Medicine (Bio-sensors,

regen.

medicine)

VC4Alloys

Ceramics, Intermetallics

VC4Alloys

Ceramics, Intermetallics

Energy Harvesting & Conversion

VC7 Infrastructure for Multiscale Modelling and

Testing

VC7 Infrastructure for Multiscale Modelling and

Testing Complex Adaptive

Systems for complete product

design

VC2 - Nano-enabled

surfaces for multi-sectorial applications

VC2 - Nano-enabled

surfaces for multi-sectorial applications

Plasma and Vacuum

Engineered Surfaces

Wet Engineered Surfaces

VC1 - Lightweight multifunctional materials

and sustainable composites

VC1 - Lightweight multifunctional materials

and sustainable composites

Textile and sport sector Energy

Packaging

Transportation

ICT

VC5 Functional

Fluids

VC5 Functional

Fluids

Construction and building

Transportation

Medicine &Pharma

Household Cleaning

Cosmetics

WHERE IS THE CHEMICAL INDUSTRY?

Packaging

Cosmetics

Household Cleaning

Textile and

passive funct.

Energy (PV batteries,

harvesting)

Construction and buildings

Energy Harvesting & Conversion

Catalysis and

filtrationMedicine &Pharma

Wet Engineered Surfaces

Brussels 09-2015MaterialsTools

AssemblyProduct

NANOfutures roadmaps consider the whole Value Chain : looked to the production chain to find the gap and define the actions that are present in the roadmap, prioritizing them according to the TRL

Basic R&D,Knowledge

MARKETThere are also subsidiary production/supply chain that complete the development scenario

Roadmap Focus: VCs & Markets

Brussels 09-2015

The complex structure of the whole value chain reflects the complexity

of real problems.A production chain that do not

arrive to a final product does not create a real economic growth.

Brussels 09-2015

The focus is in providing the support to increase the whole cube in up to TRL 9, or to TRL7 for the corresponding pilot line

FINAL PRODUCT AT PILOT LEVEL

The complex structure of the whole value chain reflects the complexity of

real problems.A production chain that do not

arrive to a final product does not create a real economic growth.

Brussels 09-2015

Focusing on the technological GAPs is not enough to arrive at the end with a sustainable product

The framework needs to be expanded also to non-technological actions

Brussels 09-2015

EXAMPLE of Value Chain

VC6 Integration of

nano

VC6 Integration of

nano

Direct manufacturing

Finished net shaped

Semi finished

Catalysis and

filtration

3d structures for optoelectronic

VC3 Structured Surfaces

VC3 Structured Surfaces

Energy (PV batteries,

harvesting)

ICT (Nanoelectronics, photonics)

Transportation

Construction and buildings

Textile and

passive funct.

Medicine (Bio-sensors,

regen.

medicine)

VC4Alloys

Ceramics, Intermetallics

VC4Alloys

Ceramics, Intermetallics

Energy Harvesting & Conversion

VC7 Infrastructure for Multiscale Modelling and

Testing

VC7 Infrastructure for Multiscale Modelling and

Testing Complex Adaptive

Systems for complete product

design

VC2 - Nano-enabled

surfaces for multi-sectorial applications

VC2 - Nano-enabled

surfaces for multi-sectorial applications

Plasma and Vacuum

Engineered Surfaces

Wet Engineered Surfaces

VC1 - Lightweight multifunctional materials

and sustainable composites

VC1 - Lightweight multifunctional materials

and sustainable composites

Textile and sport sector Energy

Packaging

Transportation

ICT

VC5 Functional

Fluids

VC5 Functional

Fluids

Construction and building

Transportation

Medicine &Pharma

Household Cleaning

Cosmetics

WHERE IS THE CHEMICAL INDUSTRY?

Cosmetics

Household Cleaning

Textile and

passive funct.

Energy (PV batteries,

harvesting)

Construction and buildings

Energy Harvesting & Conversion

Catalysis and

filtrationMedicine &Pharma

Wet Engineered Surfaces

NANOFUTURES ROADMAP

Brussels 09-2015

EXAMPLE of Value ChainPRODUCT:

BIODISEL FROM WASTE

COOKING OIL

Gathering WasteCooking Oil

Filtering, Classification

Catalyzed Esterification and Trans-esterification

Byproduct Separation

Nanoparticles Production,tools and techniques

Nanoparticles Engineeringfor Stable catalyzer

Raw precursors

Catalysis and

filtration

Most of these steps are not specifically related only to the Chemical Industry

Most of these steps are not specifically related only to the Chemical Industry

Brussels 09-2015

EXAMPLE of Value Chain

Catalysis and

filtration

PRODUCT:BIODISEL FROM

WASTE COOKING OIL

Gathering WasteCooking Oil

Filtering, Classification

Nanoparticles Production,tools and techniques

Nanoparticles Engineeringfor Stable catalyzer

Raw precursors

Roadmap Actions Calls

Colloidal chemistry, micells, source nanomaterials Coatings, self assembling, etching, sintering

NMBP 01-2016: Novel hybrid materials for heterogeneous catalysis

Characterise and control potential release of particles during manufacture and transport of materials. Understand the hazardous nature of these materials

NMP 3 – 2015: Manufacturing and control of nanoporous materials

Design of material architecturesfor unbounded properties

NMP.2013.1.1-1 Exploration, optimisation and control of nano-catalytic processes for energy applications

Large scale, low cost source of nanomaterials {Obtained by Friction, Plastic deformation, Supercool laser, Self-assembly/ phase separation (organic), In situ crystallization}

Brussels 09-2015

Targeting industrial needs of the different sectors, even for industries that do not

seek for nano-solutions

Heading to a product,

Research, Safety, Regulation, Standardization, should follow a common

plan to avoid dispersion of effort

What are the nanotechnologies ?Transfer of technology from science to practice

The Nanotechnologies are

HORIZONTAL

ENABLING

CONVERGENT

Nanotechnology transfer from science to practice should be shaped accordinglyNanotechnology transfer from science to practice should be shaped accordingly

Brussels 09-2015

FIND THE ON LINE ROADMAP DOCUMENTS:

-“Implementation Roadmap on value chains and

related pilot lines”

-“Appendix to the Implementation Roadmap on value

chains and related pilot lines” at:

http://nanofutures.eu/documents

Please, join our Open Consultation at:http://value4nano.eu

THANK YOU FOR YOUR ATTENTION