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One of the most important drivers to electrify traffic and transportation  are  the  zero emission  levels  –  at  least locally  –  of  CO2,  NOx  and  particles.  Another  significant driver  is  the  energy  efficiency  of  electric  vehicle  which is  substantially  better  than  in  conventional  combustion engine powered vehicles. According to some studies the total efficiency of  electric  vehicles  from  well  to  wheel  is three times as good as the total efficiency of  petrol driven vehicles.

The  European  and  national  emission  reduction  target levels for traffic have been set for 2020 and beyond. It is quite obvious that the targets cannot be met without reducing  remarkably  the  use  of  fossil  fuels,  and  shifting  to electric power in transportation and logistics. Similar mindset was also in the background in 2009-2010 when the studies about the meaning and importance of electric cars and electric mobility for Finnish society in the years to come were carried out. The main result of these studies was the identification of business possibilities for Finnish industry in the fields of mobile machinery electrification, vehicle software, charging technology, automotive industry components and electric mobility infrastructure.

All these significant business potentials gave the Funding Agency for Innovation Tekes a good motivation to launch a specific programme in the field of electric mobility in 2011.

The main target of the programme was to create an  electric mobility  ecosystem, that  could  generate  new knowledge and competence in EV related technologies and services. From the very beginning all the development was focused on international business opportunities. The programme wanted to establish contacts also to international programmes and important business actors.The main approach in the EVE programme was to emphasize piloting, testing and demonstration projects.

As firect results of EVE programme roughly ten new start-ups have been founded and existing companies have increased remarkably their business volume in international markets. Two good examples of the startups are Virta Ltd. and Linkker Oy. Both companies were founded during the programme and have already created business outside Finland.  Other good examples are Visedo and Plugit Finland, who both have already created large business on EV related technologies and services.

Check out the programme's final report here










MATCH STGs Seminar & Workshop

15.2.2017, Radisson Park Inn Hotel,
Martelarenlaan 36, Leuven, Belgium



Kick-Off-Meeting of Representatives of the A4M Sector Technical Groups (STGs)

Materials are essential for most of the industrial sectors in Europe. However, they are not of value without their functions and their functions are related to the manufacturing of components and final products. Beside the combination of materials – manufacturing - function it is important to discuss also the relation to Information and Communimage001ication Technologies (ICT) that will be used more and more in the manufacturing of products (industry 4.0), and materials for ICT are crucial to allow cheaper and more effective manufacturing (e.g. 3D printing) in Europe that is competitive to other countries and continents.
The Alliance for Materials (A4M), initiated by a number of ETP’s that have a strong materials agenda and now having as partner also the two important European materials representing societies (Federation of European Materials Societies, FEMS and the European Materials Research Society, E-MRS) will contribute to create the conditions for an effective integration of stakeholders, views and resources in the field of Materials R&D at the EU level.
The aim to create Sector Technical Groups (STG) is to serve as a reference point (“comprehensive expert group”) and transmission chain for Materials R&D issues in the respective sector chosen in a long term. The Horizon 2020 project MATCH is initiator of this new activity in the following fields: Energy, Transport, Construction, Health and Creative Industry, and should contribute to the definition and promotion of proper R&I topic priorities for the respective sectors.
By this they should also identify materials issues that concern the whole value chain approach of MATCH as e.g. problems with supply chains, challenges in maintaining resource & environment or societal challenges, that may hinder or even prevent possible investments into a technology and reduce the chance of marketable innovations.


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The Match Observatory is a strategic vigilance system aimed at identifying and following the adoption by market of the key research and technology developments in materials required to meet the challenges of the 21st century across major industrial sectors. For this we will follow the evolution of market drivers, market value of the innovations and signals of real market acceptance of the innovations, this is basically TRL7, 8 and 9.


For the implementation of the Observatory tree main activities were defined and planned.

  • Planning of the MATCH Observatory
  • Collection of information
  • Dissemination of information

Planning of the MATCH Observatory

During this phase the main activities carried out were definition of KITs (Key Intelligence Topics) and identification of sources of information.

After a review of the strategic literature about the topic, i.e. EuMat Research Agenda or ETPs documents and a number of questionnaire-based phone interviews with EU national and regional actors on materials science a ranked list of topics where the two more voted topics were selected as primary KITs for the Observatory on four of the sectors. For the Health sectors the input of the experts induced us to completely change our selection into 3 new KITs.

  • Construction: 1) Advanced Insulation Materials, 2) Materials for Thermal / Electricity Generation and Storage
  • Energy: 1) Materials for Energy Storage, 2) Materials for High Temperatures
  • Transport: 1) Integration of Materials, 2) Lightweight Metal Materials
  • Creative Industries: 1) Functionalisation of Textile Materials, 2)Integration of Materials
  • Health: 1) Implantable Materials, 2) Tissue Engineering, 3) Diagnostics (and Therapeutics)

The preliminary identification of sources has been made by different means, such as input from partners, input from experts interviews and searches on directories and general search engines. The result is a preliminary list of sources. Each of them has been categorized according to its coverage, as they can be specific for one of the five relevant sectors, cover some of them or have a general interest in the field of materials. This selection will be updated as new sources become available during the project lifetime.

Collection of information

On September 2015 and according to the distribution agreed in the surveillance plan, partners started collecting information internally in order to fine tuning their respective sources and tools. The information is constantly gathered using a semi-automatic approach that combines the use of internet monitoring agents with more precise selection criteria by human means.

Several online and face to face meetings have been carried out to coordinate approaches and formats concerning the upload of information on the web dissemination tool.

Dissemination of information

As defined in WP3 three main methods have been developed to disseminate information collected by the Observatory.


  • Deliverable D.4.3. RSS (Really Simple Syndication) Channels, available for thedifferent categoriescovered by the Observatory.

  • Deliverable D.4.4. Half-yearlyreports that summarize and connect the most relevant pieces of information using three main groups: market value related news, actors’ movements (company investments, launch of new products, etc.) and research projects and programs. The first of these reports was produced in June 2016 and can be accessed on the Reports page

Additionally a twitter account @InfoObservatory has been created to disseminate Observatory´s posts.

Next steps

The Match Observatory KITs will be updated during the project life taking into account the results obtained in other work packages with the aim to have a broad and accurate range of key intelligent topics, which can contribute to a better understanding about what is to come in the field of advance materials. MATCH observatory will receive inputs especially from WP6 (Roadmap Foresight and roadmap). The sustainability of MATCH Observatory will be studied during 2017 before the MATCH project is over.

RESYNTEX, a research projected funded by the EU’s HORIZON 2020 Programme, aims to create a new circular economy concept for the textile and chemical industries. Through an innovative recycling approach and industrial symbiosis, RESYNTEX, started in June 2015, will transform textile waste into secondary raw materials, creating circularity and reducing environmental impact. RESYNTEX has 20 project partners from across 10 different EU member states, including industrial associations, businesses, SMEs and research institutes.


On 14 September 2016, the European Chemical Industry Council (Cefic) and the European Apparel and Textile Confederation (EURATEX) organized the Experts Workshop on Textile Waste Situation & Textile Waste-to-Chemicals Scenarios. The event, held in Brussels, brought together European textile waste and chemical industry experts to discuss the current situation and trends of textile waste collection and valorization in Europe, and to validate textile waste-to-chemicals symbiosis scenarios developed by the RESYNTEX project.

During the workshop, experts alerted that, currently, many of materials contained in products are still rejected as waste after use, and much of the waste is landfilled or incinerated with high environmental impact. Not enough post-consumer textile waste is separately collected in Europe and a significant residual part of the non-reusable waste does not get recycled. The purpose of RESYNTEX is to change that reality, designing a complete value chain from textile waste collection to new feedstock for chemicals and textiles. The project aims to enable traceability of waste using data aggregation, to develop innovative business models for the chemical and textile industries, to demonstrate a complete reprocessing line for basic textile components, besides increasing public awareness of textile waste and social involvement. Participants highlighted that citizens should receive more information in order to be involved in a new way of thinking and behaving towards textile waste, with focus on sustainability.

An overview of the textile waste situation in Europe was provided by EURATEX and Oakdene Hollins. First, textile waste for the purposes of RESYNTEX is defined as “non-hazardous textile waste and is focused on residual waste currently sent for landfill or incineration, after all re-usable and easily recyclable fractions have been sorted out”, which is accessible to the project from different textile waste streams: production waste, post-use industrial/professional and post-consumer textile waste. According to the Eurostat waste generation data; there is approximately 1 million tonnes of textile waste from households in the 28 countries of the EU collected separately per year. However, collection rates vary extremely widely across Europe, with rates of 30-50% in Western and Northern Europe to virtually 0% in some Eastern European countries.

A first estimate provided by Oakdene Hollins, based on an extrapolation of data provided by 9 textile sorters in different EU countries, shows a total volume of 80,000 tonnes of residual waste generated by the EU28 sorters per year. Out from that volume and the composition of the residual material, which consists of 60% of textile fibres, the total volume of textiles that is accessible to RESYNTEX from that waste stream is 50,000 tonnes per year. More detailed information on the composition of such waste will be evaluated during the project between the partners and contacts to regional textile sorters.

A panorama of the French experience on textile waste and recycling was provided by Eco TLC, a non-for-profit private company directed by a board of industrials that aims to tend towards 100% reuse and recycling for used clothing, household linen and footwear (TLC in French). Every company that introduces clothing, household linen, and footwear items on the French market to sell it under their own brands, must either set its own internal collecting and recycling program or pay a contribution to Eco TLC (accredited by the French Public Authorities to manage the sector’s waste) to provide it for them. The funds collected support research and development (R&D) projects that are selected by a scientific committee to find news outlet and solutions to recycle used TLC, and are used to publicize campaigns organized by local authorities to change consumers waste sorting habits. Every year, 600,000 tonnes of TLC are placed on the French market; however, only 32.5 % of used TLC is collected for reuse or recycling. TLC reported that up to 7% of the collected post-consumer textile quantity is currently incinerated, partly in cement production, or even landfilled.

The Netherlands has a goal of increasing the collection of post-consumer textiles by 50% by 2020. Nowadays, the waste collection is about 90.000 tonnes per year. The low quality materials and non-reusable waste are the main challenges to the waste textile usage. ECAP (LIFE) and REMO were mentioned by Alcon Advies/ Texperium as good examples of projects on textile recycling initiatives. Belgium has an exceptionally high rate of separate textile waste collection due to a dense network of containers and other collection options across the country. The new report from COBEREC shows that, in 2015, 120,000 tonnes of old clothes were recycled in Belgium, 500 million pieces. Lower quality textiles are reused as rags (20%), or their fibers are recycled (17%). And about 8% of textile post-consumer waste is not reusable. An overview of Czech Republic textile waste scenario was provided by INOTEX Ltd: Only 3,000 tonnes of textile waste is separately collected per year and only 3 % of all textile waste seems to be recycled at present.

Cefic described existing polymer recycling business practices in other segments and summarized existing initiatives, pilots, commercial activities and other major research projects in the field of textile polymer recycling. For the RESYNTEX relevant types of fibers in the textile waste, Cefic discussed the relevant market environment. Potential business models suitable for such textile/chemical symbiosis were discussed by the workshop participants, e.g. scenarios describing a regional delocalized sorting and pretreatment of the textile waste and transportation to central chemical conversion plants to achieve economy-of-scale.

The RESYNTEX expert workshop provided an excellent platform to exchange valuable information in between the participants, challenge and validate Textile Waste-to-Chemicals Scenarios as Circular Economy concept. The discussions and conclusions highlighted the enormous value such future symbiosis could create for both sustainability and the economic benefits of the sectors involved and the society as a whole.

Already in 2004 Stefan Böschen, Armin Reller and Jens Soentgen published their story-of-stuff-approach [1]. The authors show that the first foundations for today's Circular Economy were laid in chemistry in the second half of the twentieth century, with the production of new synthetic materials in unprecedented quantities. With this development away from the natural substances the by-production of contaminants also increased and their regulation became soon necessary. Science, the government and industry have developed a set of rules that has been made more and more rigorous by various major accidents in industry and by the emergence of environmental movements. REACH, the European Regulation on Registration, Evaluation, Authorisation and Restriction of Chemicals which entered into force in 2007 and replaced the former legislative framework for chemicals in the EU, is the answer in view of the ecological and societal risks, which might be related with such substances.


Figure 1:  Story of Stuff-Approach (Böschen et al. [1])


A “material history” (Stuff approach see figure 1) going along with a substance should not only investigate it from its source as e.g. a raw material through its manufacturing processes up to its user and finally its end. But it should also be viewed in the context of its cultural, political and economic influences. Among other things, the life-cycle analysis of substances or products is mentioned, but "soft factors" should be included as well as the consumption behaviour of the various societies and their handling of products to which they are exposed daily. The political and legal aspects are also important, and one should not only refer to the own country, but also include in models and assessments the countries from which the raw materials and semi-finished products originate or in which the products are supplied. It is important to have a holistic understanding of the links, not only on a political or economic level, but also for the "average man in the street", the consumer who uses these products and either throws them away or collects them for recycling. This type of "Circular Economy, Ecology and Society" can not be conceived as a short-lived instrument, but must be well planned with a view of longer periods.

In 2015 the European Commission published a Communication from The Commission to the European Parliament, the Council, the European Economic and Social Committee and the Committee of the Regions on “Closing the loop - An EU action plan for the Circular Economy” by which “The transition to a more circular economy, where the value of products, materials and resources is maintained in the economy for as long as possible, and the generation of waste is minimised, represents an essential contribution to the EU's efforts to develop a sustainable, low carbon, resource efficient and competitive economy. Such transition is the opportunity to transform our economy and generate new and sustainable competitive advantages for Europe starting at the very beginning of a product's life. Both the design phase and production processes have an impact on sourcing, resource use and waste generation throughout a product's life”. Various actions are mentioned which will run for the next few years at national and European level, for example: [2]

•    Ecodesign work plan 2015-2017 and request to European standardisation organisations to develop standards on material efficiency for setting future Ecodesign requirements on durability, reparability and recyclability of products
•    Establishing an open, pan-European network of technological infrastructures for SMEs to integrate advanced manufacturing technologies into their production processes
•    Further development of the EU raw materials information system

And regarding Critical raw materials:

•    Report on critical raw materials and the circular economy
•    Improve exchange of information between manufacturers and recyclers on electronic products
•    European standards for material-efficient recycling of electronic waste, waste batteries and other relevant complex end-of-life products
•    Sharing best practices for the recovery of critical raw materials from mining waste and landfills

In Germany the “closed loop recycling” has a long tradition based on the 1994 Act for Promoting Closed Substance Cycle Waste Management and Ensuring Environmentally Compatible Waste Disposal (KrWG) which was amended in February 2012 and entered into force in June 2012. It is based on a five-step waste hierarchy  including waste avoidance; re-use; recycling; energy recovery; and disposal [3].

In October this year the Friedrich Ebert Foundation in Germany published a report from Henning Wilts  on “Germany On The Road To A Circular Economy?” [4] The author questions whether the production of waste really represents a necessary evil of our mode of production or if a world without or less waste becomes possible? And he mentions alternative approaches which change only by name “such as the circular economy, zero waste, closed-cycle, resource efficiency, waste avoidance, reuse, and recycling” that means ways to become aware of the problems that goes along with the massive use of materials – also like water, food or materials to produce energy -  and by this the disappearance of resources if we do not care for the waste and its potential to re-use the materials that it contains. He states that a “world without waste can only be achieved with a holistic concept… taking into account approaches such as avoidance, reuse and recycling of both materials and energy at every stage of the product life cycle to ensure environmental product design from the outset – with recycling at the end”. I do not think that a “world without waste” is a realistic approach, however to reduce and re-use materials wherever possible would be useful for our future society. The idea to change from a linear economy to a “close cycles system” may help already when discussing an idea for new materials, new products as this idea needs already to have the end of the cycle in mind and help to avoid “pillar thinking” when we discuss materials issue in sharply defined areas like education – research – development – processing and finishing of a product with not much emphasis on the links between each step towards the demand of the end-users. Furthermore, we leave these end users alone with the decision what how to deal with the product after its lifetime.

The Ellen MacArthur Foundation, very active in this field, presents a definition for Circular Economy indicating  “that it is restorative and regenerative by design, and which aims to keep products, components and materials at their highest utility and value at all times, distinguishing between technical and biological cycles”[5] . This new approach is based among others on two facts:

1.    A change in the way of using natural resources for energy. Politics moved away from non-renewable energy like oil or coal which is linked to global and worldwide concerns about their consumption and all kinds of pollution, and also from nuclear energy related to problems with the hazard waste and possible high impact incidents for the society like the Fukushima disaster in 2011 towards a politics of renewable energy and a better handling to minimize the energy consumption

2.    A change in the way of using natural materials resources. Due to the fact that Europe is poor in raw materials resources however a leading economy for innovative and emerging products necessary for our economic growth and to attack societal problems, the economy is very much depending on those countries which have the necessary resources. In the early years of the 21st century important raw materials were not available or only at high prices and with risks of supply. Therefore, the European Commission launched the Raw Materials Initiative in 2008 which “set out a strategy for tackling the issue of access to raw materials in the EU by a strategy of three pillars which aim to ensure [6] : fair and sustainable supply of raw materials from global markets and within the EU and a better resource efficiency and supply of secondary raw materials through recycling”.

Janez Potocnik, European Commissioner for the Environment states in his foreword to the Report “Towards a Circular Economy” from 2013 [7]  that  “the European Commission has chosen to respond to these challenges by moving to a more restorative economic system that drives substantial and lasting improvements of our resource productivity. It is our choice how, and how fast, we want to manage this inevitable transition.”

If one is concerned with the Circular Economy within the framework of the materials, it is striking that the topic becomes more and more important since the mid of the 20th century, when more and more materials/elements were necessary to build up the requested functions of the components and especially by the beginning of the 21st century, when scarcity of raw materials - and especially the rare earth metals - have become increasingly important (see figure 2 and 3). As well as some other elements they are vital for innovative products in industrial sectors such as communication, energy and transportation. Europe, owning very few metal ores, is fully dependent on importing metals from other countries. This situation poses a substantial risk of possible supply disruptions of raw and semi-processed materials and components. A problem of awareness concerning supply shortages are especially concern minerals where specific legal requirements have to be met (Dodd Frank legislation in the US, other regulations in Europe).


Figure 2: Intensively used Elements and the drivers behind (Adapted after Achzet / Reller, 2011)

It is often difficult to substitute these materials due to their special functions when processed towards components, which can not simply be exchanged by other elements or components which are more easily to access. The MATCH Project under HORIZON 2020 evaluated the materials and their applications in more than 1000 R&D projects (see Figure 3) and it could be shown that smart materials inclusive coatings and surface structuring are used the most and that applications like energy, followed by manufacturing and transport are the most important fields of application.


Figure 3: Materials research and development and its application (Data from the Project MATCH, funded by HORIZON 2020 under grant agreement n°: 646031)

Frequently, industries underestimate the challenges with regard to availability & cost and of functions of substitute materials for mass production. Besides availability, the question of “deployability” has to be raised: it is not only important what is theoretically available, but also what can be used under legislation and Corporate Social Responsibility (CSR) aspects. CSR is today relevant for European companies, also from an economical point of view: image and reputation depend amongst others on a company’s sourcing policies and its control of impact on the upstream side of the value chain. Further to possible disruptions, the quality of bought materials is also an important aspect. Imports from countries with different or less standards and dispersed supply chains put hurdles on quality control; thus, monitoring systems have to be implemented to ensure a certain quality standard.

Therefore, systems such as "closing the loop" are not only interesting from an ecological and energy perspective, but also from the procurement and utilization of critical raw materials and the control of information about their composition in view of their recycling and re-use. Although a metal’s purity can be fully re-established with proper smelting and refining – e.g. gold or copper on the market has often been re-cycled several times – there are other metals or element compositions which are difficult or too expensive to recycle or can only be down-cycled, i.e. the quality is reduced and the range of applications for which they can be used is very limited. Further on recycled products often bear the reputation of being of lower quality and posing the risk of product failure.

Better information for designers, manufacturers and consumers would be important to help in encouraging a design towards better recycling, improve the recycling rate and steadily inform about new recycling methods to promote a better handling of materials during the whole value chain. As the development of new materials can take up to 10 or 15 years, it would be necessary to discuss the availability of certain materials already during the development and demonstrator phase, i.e. that also universities and Research Technology Organisations, RTO’s should have checklists for new developments. Based on the experience of the author this is not yet the case at many of the materials departments.


Figure 4: 20 Critical Elements and the World primary supply [8]

Similar to the problem of legislation and price insecurities, end-of-life issues are often not considered. Short end-of-life products like electronics with only 2 to 3 years of useful life, consumer goods like small household machines or larger ones like washing machines with about 5 to 12 years and cars with max. about 9 to 10 years become an important “urban mine” for technology metals such as precious and special metals which can be further exploited through comprehensive recycling. The circular economy strategy of the European Union can become an important trigger for improvements in this aspect. Recycling and remanufacturing should be considered early in the development and design phase to ensure alignment with current and future legislation, probable additional costs and enhance sustainability.

A compositional characterisation of the "urban mine" is a necessary prerequisite to optimise the recovery of critical raw materials. However, existing data are scattered amongst a variety of institutions including government agencies, geological surveys, universities, NGOs and industry. In addition, where data relates to the composition of products and waste fractions, different sampling, sample preparation and chemical analysis approaches may have been applied, which makes it challenging to aggregate and compare data. In the EU Horizon 2020 project "Prospecting Secondary raw materials from the Urban mine and Mining wastes" (ProSUM) [9]  a comprehensive, standardised and harmonised inventory of critical raw materials stocks and flows is currently constructed at national and regional levels across Europe.

The Journal of Industrial Ecology from 2006 has published an article from Zengwei Yuan, Jun Bi, and Yuichi Moriguichi on The Circular Economy, a new development strategy in China in which China’s transformation from a planned economy to a market-based one and open to foreign trade and investment was the important step towards a revived economy. This growth highlights also another side of the coin by having a resource depletion and environmental negligence and by this the seriousness of the situation for the society.  Z. Yuan mentioned in this article that “recent research has pointed out that growth of the gross domestic product (GDP) in China has significantly reduced the opportunities of future generations to enjoy natural and environmental resources”.

There are further reports like that from the The European Environment Agency [7] which are discussing the current situation of production and consumption and especially the end of the utility period of goods and their recycling or re-use. One of the important factors to minimize or optimize the use of materials and other natural resources is related to the so called Eco-design to allow “a longer life, enabling upgrading, reuse, refurbishment and remanufacture and sustainable and minimal use of resources and enabling high-quality recycling of materials at the end of a product's life”.  They also propose to improve the recycling processes so to “avoiding down-cycling (converting waste materials or products into new materials or products of lesser quality) and mixing and contaminating materials”. This could help a European economy by “industrial symbiosis (collaboration between companies whereby the wastes or by-products of one become a resource for another)” . The Circular Economy can have a positive or negative impact on the society. A more closed production chain could create new jobs in Europe, but the question is whether the industry will be able to switch to product service systems for further low-paid jobs. It is also necessary to ask whether and how this conversion can be paid for, since not everything will have to be passed on to the industry. The citizen, who wants a more environmentally friendly future, will have to take part in this task. But the question arises as to which sections of society can do this, and how we can avoid to discriminate between certain social groups.


Figure 5: Circular Economy and Source efficiency [10]

Overall, it is important to intensify the research efforts (also an aim in the EAA report of 2016), in the field of materials and in cooperation with other faculties such as industrial design, but also (macro)-economics, social science and environmental sciences. It will be important to gather more fact-based knowledge and evaluated information and to make this available in databases to scientists, industry and politics. By doing so models and action sequences can be made transparent and based on common facts. Here, it still has a lot of demand and ongoing research necessary.

Author: Margarethe Hofmann-Amtenbrink

Dr.-Ing. Margarethe Hofmann-Amtenbrink is owner and CEO of MatSearch Consulting Hofmann, Pully Switzerland, CEO of the ESM Foundation, Zurich, Switzerland and FEMS Immediate Past President.


[1] Stefan Böschen, Armin Reller und Jens Soentgen, "Stoffgeschichten – eine neue Perspektive für transdisziplinäre Umweltforschung“, GAIA 13 (2004) no. 1, pp 19-25
[2] For more information please check
[10] The economy: resource efficient, green and circular, The European Environment Agency, Published 02 Jun 2014, Last modified 31 Aug 2016, 03:14 PM:

Materials criticality: a global challenge, especially for the EU

Global megatrends, including demographic and climate changes, urbanisation and the limits to resources and energy are the drivers of future change [Strategic Foresight: Towards the 3rd Strategic Programme of Horizon 2020, 2015]. The unprecedented trend of population growth in a resource constrained world increasingly forces business and policy makers to integrate sustainability considerations into their decision making.

Non-energy and non-agricultural raw materials underpin the global economy and our quality of life. They are vital for the word’s economy and for the development of environmentally friendly technologies such as renewable energy systems. Especially the EU is highly dependent on imports, and securing supplies has therefore become crucial [ERA-MIN Research Agenda, 2013; Strategic Implementation plan for the European Innovation Partnership on Raw Materials, 2013].

The circular economy as a way out

The last 150 years of industrial evolution have been dominated by a one-way or linear model of production and consumption in which goods are manufactured from raw materials, sold, used and then discarded or incinerated as waste. In the face of sharp volatility increases across the global economy and proliferating signs of resource depletion, the call for a new economic model is getting louder. The quest for a substantial improvement in resource performance across the economy has led businesses to explore ways to reuse products or their components and restore more of their precious material, energy and labour inputs. A circular economy is an industrial system that is restorative or regenerative by intention and design. The economic benefit of transitioning to this new business model is estimated to be worth more than one trillion dollar in material savings [World Economic Forum & Ellen MacArthur Foundation, 2014].

In a linear economy the functionality is lost after a first use or in the best case after some down cycling phases. In a circular economy the goal is to keep the functionality and therefore value of a material as high as possible over a time period as long as possible. Materials will circle throughout the economy without being removed from it in the form of non-functional waste. The circular economy is the economic system in which resources are kept at the highest possible level of functionality at all times.


Figure 1: Material functionality in a linear and a circular economy [VITO, 2015].

Moving from the traditional, linear ‘make, use, dispose’ economy to a circular economy requires increased reuse, remanufacturing and recycling of products. This is an important aspect of the EU’s strategy to ensure the security of raw materials supply [EIP Raw Materials Scoreboard, 2016].

Advanced engineering materials and technologies are key to a circular economy

Advanced engineering materials and technologies present indispensable and exciting solutions for optimal resource use, substitution of critical materials, metal recovery, recycling of waste streams, and shorter loop closures.

Resource efficiency

In minimising the use of materials, advanced material technologies obviously contribute to lifetime extension and repair of products and especially to the use of ever less materials to provide a certain function to a product. To give just a few examples:

  • Additive manufacturing that bring important benefits related to raw materials usage and waste production;
  • Nanostructured materials that deliver superior performance using only minute amount of materials in many possible application areas such as medicine, waste-water treatment, air purification, energy storage devices, composite materials, and consumer goods;
  • Modern surface treatments like physical and chemical vapour deposition technologies that protect tools from wear and corrosion.


The substitution of critical raw materials (CRM) is another approach to mitigate the supply risks of raw materials. As substitution research takes many years to provide realistic solutions, it is a real insurance policy to develop timely research on substitution, to make available a set of options for possible preventive changes in the product design and the elaboration of contingency plans. Examples include:

  • Plasma technology enabling the substitution of fossil-fuel plastics by bio-based polymers for inter alia food packaging applications;
  • Modern multi-scale modelling to predict the magnetic properties of substitutes for REE magnets;
  • Versatile graphene materials with high potential for substituting scare resources for electronic applications.

Resource recovery and waste recycling

While showing vast potential also in this context, advanced material technologies remain particularly unexplored in resource recovery, cycle closure and the use of recycled materials in products. Here are some examples:

  •  Powder processing currently used in powder metallurgy and ceramics used to upcycle fine waste streams in added-value products;
  • New electrochemical processing technology and novel adsorption materials to boost the recovery of CRMs from low grade, complex industrial waste streams;
  • Waste particles upcycled by surface functionalization tailored to the envisaged application, e.g. by surface activation to produce performant composites with high recyclables content. 
  • Novel material processing for mineral waste materials that can have pozzolanic properties upon activation, thus being potential cement replacement binder materials;  
  • Advanced characterization techniques allowing the precise determination of critical element content of waste materials to gauge their economic exploration feasibility. 

It must be stressed though that closing material cycles will not avoid the (sustainable) mining of primary raw materials that are necessary to sustain global population growth. Recycling can significantly contribute to though not to secure the supply of (critical) material resources in the raw materials constrained European economy.

Feeding & closing loops in the Circular Economy

As such, advanced material technologies are key to sustainable mining and recycling, to feed and close cascaded material and product cycles in a viable, growing circular economy.



Figure 2: Circular economy scheme, taken from [Circular economy, A new relationship with our goods and materials would save resources and energy and create local jobs, Walter R. Stahel, NATURE, Vol. 531, 24 March 2016].


Resource efficiency in manufacturing and processing, substitution of critical raw materials, resource recovery and recycling straightforwardly match the above concept of the Circular Economy. Non technological, new business concepts can also greatly support the effective use of raw materials. With the increased provision of services instead of products from economic production, product and material loops can be closed shorter than recycling. Advanced engineering materials can play a major role here as well, e.g. by extending the life time of products by improving the wear and corrosion resistance (shortest cycle), or providing controlled adhesion/release properties to facilitate remanufacturing. Moreover, material technologies may enable the building-in of sensors and communication systems in an Internet of Things approach, to monitor the status of products in a sharing community.    

 The role of EuMaT ETP

The newly established EuMaT WG8 on Raw Materials will act as the leading forum to contribute to the debate about the key role of advanced engineering materials and technologies in resource efficiency, substitution of critical materials, metal recovery, recycling or shorter cycle closure of products and waste, providing market and science based, realistic solutions for the EU manufacturing and processing industries.

The working group aims at triggering research and innovation ideas & activities in the H2020 Research Programme targeting the Societal Challenge of Resource Efficiency and Raw Materials, as well as Leadership in enabling and industrial technologies (LEIT).

As such, sustainable materials management touches upon all seven H2020 societal challenges, in particular the ones addressed in SC5 Climate Action, Environment, Resource Efficiency and Raw Materials.


EuMaT WG8 Raw Materials Chair

Research Manager Sustainable Materials Management Unit

VITO Vision on Technology

Boeretang 200, B-2400 MOL, Belgium



The world's first circular economy road map shows the way to sustainable success. Finland's national circular economy road map is beginning to create new solutions for Finland to offer a world challenged by climate change, dwindling natural resources and urbanisation. The first circular economy solutions are based on areas where Finland is traditionally strong, thus making it possible to offer tens of thousands of new jobs and generating billions of euros in added value each year.

Finland has a real opportunity to create sustainable well-being and a successful carbon-neutral circular economy over the next 5 to 10 years. It maximises the conservation of materials and their value in circulation for as long as possible which, in turn, keeps the volume of emissions they produce to a minimum. The road map shows how to make the transition to a circular economy.

The change requires co-operation across sectoral and industrial boundaries. In many cases, the most attractive opportunities for new operating methods, for services made possible by digitisation and for extending the circulation of materials can be found somewhere in the middle.

"The effectiveness of new solutions ultimately stems from the fact that they can be expanded and duplicated both elsewhere in Finland and around the world," says Mari Pantsar, Director of Sitra - a public fund aimed at building a successful Finland for tomorrow. She stresses that the work is just beginning. "Systematic change will require more fresh and even radical ideas in the future."

According to Sitra estimates, the circular economy would generate 2 to 3 billion euros in added value each year by 2030. The Club of Rome estimates that over 75,000 new jobs would be created.

The world's first national circular economy road map was drafted under the direction of Sitra in co-operation with the Ministry of the Environment, the Ministry of Agriculture and Forestry, the Ministry of Economic Affairs and Employment, the business sector and other key stakeholders.

Will SMEs become forerunners?

"Large Finnish companies have already embraced the change they will be required to make in order to take on the new global challenges they will face," says Sitra Senior Lead Kari Herlevi. "The world needs clean and smart solutions more urgently than ever before in order to ensure well-being that is based on the sustainable use of the environment."

"Will Finnish SMEs also make it into the forerunners with their new innovations and solutions before they become mainstream?" he asks. "And do municipalities offer them an environment conducive to development?"

The essence of the circular economy road map is to bring together a large number of outstanding pilots. The Technology Industries of Finland, University of Jyväskylä and a group of companies are developing a facility for recovery of precious metals from electronic waste. Currently 50 million tons of electronic waste is generated globally and only 15% of that is treated properly. At the same time, we are facing a shortage of several precious metals that are needed to manufacture electronic equipment and growing amounts are needed in new applications such as LED lighting.

The Minister of Agriculture and the Environment Kimmo Tiilikainen hopes that the circular economy will boost Finland's economic growth and competitiveness: "The road map published today challenges us all to make changes. I'm very happy to see so many committed to advancing the circular economy. We need small-scale, rapid trials and long-term policies of change," he says.

In June 2017, Sitra will hold the world's first international circular economy conference in Helsinki (


Animation of the recycling facility for electronic waste, WeeeFINer:



Over the past few years direct bonding of III-V semiconductors on Si has emerged as a promising alternative to hetero-epitaxy for the hybrid integration of active – amplification, emission in the direct gap III-V - and passive – guiding, switching in the indirect gap Si -  optical functions in next-generation photonic integrated circuits (PICs) [1-9]. Such PICs offer a variety of advantages, foremost among which is the dense integration of advanced optical functions using sub-100nm patterns in the Si guiding layer. The processes used to pattern the Si may, however, deteriorate the quality of the hybrid bonded interface. Given the localized nature of such patterns it is highly desirable to have a technique to evaluate this quality on or in the immediate vicinity of these patterned regions.

The quality of a bonded interface, i.e. the strength of adhesion between the III-V and Si  is expressed in terms of the surface bonding energy – the energy per unit area required to adiabatically and reversibly separate the two materials. This surface bonding energy can be measured in a variety of experiments during which the hybrid bonded stack is deformed until the interface yields. Among these experiments, the double-cantilever beam experiment (DCB) has been repeatedly shown to yield reliable measurements in the case of Si on Si and InP on Si bonding [4,5]. Nonetheless, given the centimetric samples required to carry out the measurement, it is better suited to wafer-scale measurements of the surface bonding energy.

The authors have developed a nano-scale analog to the DCB experiment. In this case, instrumented nano-indentation is used to locally deform the InP membrane. Within a certain range of applied indentation loads, the InP membrane is elastically debonded in the vicinity of the indent, forming a blister next to each facet of the indent. The geometry of the blister is recorded using atomic force microscopy and, using well established models for the DCB experiment, the surface bonding energy is measured. Scanning transmission electron microscopy is also used to understand the underlying mechanism responsible for the debonding and to correlate the geometrical features of the blister with those of the buried debonding crack that are required to measure the surface bonding energy [10-12]. The method is here applied to InP membranes bonded to Si using a variety of bonding methods. The application of the method on InP bonded on sub-100nm patterned Si is also discussed.

Eric 6 1

Figure 1: Low-magnification BF-STEM image of an InP/Si hybrid bonded stack. Direct oxide-free bonding was used in the present case. The image shows a cross-section of the blisters that forms during the nano-indentation experiment. The imprint of the indenter tip is clearly visible in the image, as is the dislocation-dense zone, located immediately below the imprint. The inset shows a magnification of the debonding crack that starts at the left edge of the dislocation-dense zone. From Reference [10].


Eric 6 2

Figure 2: AFM images (6 x 6µm) of debonding blisters in InP bonded (a) oxide-free on bare Si, (b) oxide-free on patterned Si, (c) thin oxide-mediated on bare Si, and (d) thin oxide-mediated on patterned Si. The height scale for all images is 55nm. After Ref. [12].

Using the AFM images and theory [13,14], the surface bonding energies for InP bonded to Si were measured and found are ~1J/m² in both direct oxide-free and oxide-mediated bonding on bare Si. A higher bonding energy is expected to be attained at higher annealing temperatures – such temperatures may, however, be undesirable in CMOS-compatible process flows for the targeted PICs. Nonetheless, a surface bonding energy equal or higher than 1J/m² indicates strong covalent bonding that result in a mechanically stable interface, suitable for most PIC applications.

In the case of InP membranes bonded to patterned Si, the debonding blisters where found to extend farther away from the indent for an equivalent height. This observation, a priori, indicates a lower debonding energy. This is not, however, true as the surface bonding energy has to be related to the actual surface available for bonding. When bonding to patterned Si – the patterns are square arrays of holes – the surface available for bonding is approximately 78.7% of the Si surface. The surface bonding energy measured in this case, however, is 57% lower than the one measured on bare Si for the same bonding process. A closer inspection of cross-sections of the samples in STEM revealed that the edges of the patterns where rounded off, and that actual surface available for bonding is indeed closer to this value.

The method combining instrumented nano-indentation in conjunction with AFM or STEM, is shown to provide reliable, precise, and localized measurements of the surface bonding energy of InP bonded to Si in a variety of bonding schemes. The localized nature of the measurement method render particularly useful in evaluating the adhesion of InP to nano-patterned Si – configurations that prevail in advanced PICs. The underlying mechanism for debonding relies on mechanical properties that InP shares with other III-V semiconductors. The method presented here can, therefore, be applied to other III-V/Si or III-V/III-V hybrid bonded stacks.


K. Pantzasa, E. Le Bourhisb, G. Patriarchea, G. Beaudoina, and A. Talneaua

a Centre de Nanosciences et de Nanotechnologies, CNRS, Univ. Paris-Sud, Université Paris-Saclay, C2N – Marcoussis, Marcoussis 91460, France, This email address is being protected from spambots. You need JavaScript enabled to view it.
b Institut P’, CNRS – Université de Poitiers – ENSMA, UPR 3346, Futuroscope Chasseneuil 86962, France, This email address is being protected from spambots. You need JavaScript enabled to view it.

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Acknowledgments: The authors would like to gratefully acknowledge funding from the CNRS RENATECH network and the Agence Nationale de la Recherche projects COHEDIO and ANTIPODE.