EIT RawMaterials Projects

The ambitious vision of EIT RawMaterials is realised by the creation of a structured collaboration within the Knowledge Triangle, which is the basis of the EIT model.

Call for Innovation & Education Projects is now open!

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EIT RawMaterials Projects Timeline

392 Projects
Project Portfolio
Innovation Themes
Innovation Areas/Lighthouses

SAPII: Successful Application of Process Integration in Industry

Objective

The objective of the project is to create and deliver high-quality education on the application of Process Integration (PI) in metallurgical process industries and related industries to improve energy and material efficiency. Process Integration is a relatively new field in the metallurgy which has drawn on techniques from chemical and energy engineering and adapted to mining and metallurgy. PI is a powerful tool to identify and implement both internal optimisation of processes as well as industrial symbiosis with other industries and society. The impact will result from raised awareness and adoption of PI methods leading to both short-term and strategic-level optimization and identifying the impact of new technologies.

The solution (technology)

Course material will be developed and then delivered in modules to industry and PhD students. The course will be designed to cover theoretical and practical aspects of PI.  Partners in the activity will contribute their own experiences and concrete examples which will be integrated into the modules. Particular emphasis will be on overcoming barriers to implementation of results. Participants in the courses will be drawn from industry, institutes and academic from metals and mining industries.

Partnership

  • RISE Research Institutes of Sweden AB (Swerea MEFOS AB) (Lead Partner)
  • LuleÃ¥ Tekniska Universitet (LTU), Sweden
  • Höganäs AB
  • Luossavaara Kiirunavaara AB
  • SSAB EMEA AB (SSAB)
  • ArcelorMittal Maizières Research (AMMR)
  • University of Liége (ULg), Belgium

Programme Co-ordinator: Mikael Larsson, Swerea Mefos AB/RISE, mikael.larsson@swerea.se

Mineral Processing/Resource Efficiency

ScaVanger: Sustainable Supply of Nb, Sc and V from Liquid Waste from TiO2 Plants

Project duration: 1 January 2021 – 31 December 2023

Objective

ScaVanger will ensure the steady supply of 100 % Sc, and 2 % Nb and V for the EU to become leader in growing markets. Recoverable resources are contained in liquid acid waste from TiO2 production (1.5 million t/y in EU), but landfilled at 6 M€/100 kt/y. The first plant based on developed hydrometallurgical technologies will produce ScF3 (5 t/y Sc), Nb-concentrate (92 t/y Nb), V-compounds (170 t/y V).

The solution (technology)

ScaVanger will upscale an innovative hydrometallurgical technology for successive Sc, Nb, and V extraction from the TiO2 acid waste solutions. Thus, ScaVanger is setting the foundation for a sustainable supply for the EU of these critical metals (100 % Sc and about 2 % Nb and V demand), while contributing to the EU’s circular economy action plan.

ScaVanger technologies are integrated in the relevant hydrometallurgical production flowsheets of the TiO2 pigment industry to avoid waste transport and to share investments. The waste is cleaned from harmful elements (U, Th), which will be stocked according to EU regulations, before the extraction of the target elements. This newly installed plant will bring several valuable metal products to the market: Sc2O3, ScF3, Nb-concentrates, V-salts and V2O5 essentially for the alloy industries. ScaVanger will also prove that these products fulfill the market quality requirements given by our advisory board, particularly through aluminothermic treatment. The remaining waste is cleaned and can be used for by-product manufacturing (e. g. (Ca(NO3)2, Fe-Mn oxyhydroxides) for solar panels, the medical, electronic and environmental sectors, cement additives and agricultural applications. HCl and waters are reused in the plant.

Partnership

  • Catura Geoproject Geosciences Conseils, France
  • Enalos Research And Development, Greece
  • Meab Chemie Technik GmbH, Germany
  • National Technical University of Athens (NTUA), Greece
  • Rheinisch-Westfaelische Technische Hochschule Aachen (RWTH Aachen), Germany
  • Orano Mining (Lead Partner), France
Mineral Processing/Resource Efficiency

SELISI

01 January 2018 – 31 March 2020

Objective

The use of renewable energy is now becoming the only option to limit global warming. One of the possibilities of making renewable energy is using solar cells (photovoltaics). Most solar cells are made on a silicon substrate called wafer. The thickness of a silicon solar cell is about 200 µm.

During the wafering operation, 40 % of the silicon gets lost during this cutting step, the dust generated is called Si-kerf. Recent silicon cutting technology changes tend to facilitate Si-kerf recycling.

The solution (technology)

The SELISI project is aiming to recover and prepare this Si-kerf to re-inject it into Si production value chain at TRL 7. Recovery and Si-kerf preparation pilot line will be set-up. The aim of the project is to recycle the maximum amount of Si-kerf by making silicon ingots up to 100% recycled Si-kerf.

Partnership

  • French Alternative Energies and Atomic Energy Commission (CEA), France (Lead partner)
  • ECM Greentech SAS, France
  • Resitec AS, Norway
Sustainable Mining

SERENE

01 January 2018 – 31 March 2020

Objective

This upscaling project aims to improve the mining industry’s water balance management capabilities by providing a new dynamic, predictive water balance solution to the market. This solution helps the mining industry monitor an entire mine site’s water balance in real-time. It provides them with a possibility to create short-term forecasts for a site’s water volumes and water quality in different production and environmental conditions.

The project demonstrates that IIoT Framework based, cost-optimized monitoring systems facilitate rapid upscaling of water monitoring networks reliably, securely and cost-efficiently. Therefore, the industry can establish more extensive measurement networks which provide more accurate real-time data on mine site’s water resources.

The solution (technology)

The project’s output is a true end-to-end IoT Application Platform that remotely connects monitoring stations, device management, data collection, data modelling, simulation and visualization and integrates them with cloud services. This IoT application platform enables software-as-a-service and remote service type of business and enables the fastest way to provide water management expertise also for remote mining locations.

SERENE extends the current water balance modelling practices by integrating the dynamic production operations with the hydrological water cycle external to concentrator plants. In addition, it demonstrates that online data can be integrated with the dynamic modelling tools to give a real-time visibility to the entire site’s water balance. Efficient history and status reporting as well predictive scenario calculations that base on the dynamic models enhance operational decision-making and enable better planning of investments and water resource use in mining operations.

Partnership

  • Outotec (Finland) Oy, Finland (Lead partner)
  • Aalto University, Finland
  • Balder Consulting AB, Sweden
  • Fundación Tecnalia Research & Innovation, Spain
  • GreenDelta GmbH, Germany
  • Langis Oy, Finland
  • Mondo Minerals B.V. Branch Finland, Finland
  • Tecnalia Ventures, S.L., Sociedad Unipersonal, Spain
  • Technical Research Centre of Finland Ltd. (VTT), Finland

SETI: hands-in SummEr school on critical raw maTerials: Innovation and entrepreneurship

Objective

The ultimate goal is to train Master students into problem solving and give them the tools needed to promote their ideas with a business and innovation oriented approach. The summer school is intended as a complement to existing and new Master initiatives in which the EIT RawMaterials pillars are the focus, and as key tool for the achievement of the EIT labelling. There will be a deep interaction of the Master students with lecturers from academia, research centres and industry: this will allow each participant to get a feeling of what to expect when choosing the path after the degree. The hands-in approach, the team work, the challenge proposed in the school and the final award are tools put in place to start shaping the upcoming professionals in concert with the needs of the companies and empowering them with an I&E; background so to become future entrepreneurs.

The solution (technology)

SETI aims at creating a methodological approach, which can be considered as a first attempt to introduce I&E; oriented summer schools in the academic programme of the EIT RawMaterials. In order to work in teams and guarantee enough time for mentoring and pitching sessions, the target is 40 students total. The participation from other European and non-European countries will also be encouraged. The school represents an occasion for the KIC to communicate and disseminate the strategic importance of the issues related to critical raw materials and their substitution while encouraging the discussion on innovative approaches and solutions. Moreover the lessons are expected to stimulate discussions and brainstorming moments, therefore having a positive impact on the community for what concerns the realization of novel research and educational initiatives. The school has been designed with a modular idea in mind: the T-shape approach combining the technical vertical with I&E; transversal can be easily adapted to any topic with a minimum effort, and it can complement the Master initiatives of any of the KIC education partners and of the academia in general.

Partnership

  • Università degli Studi di Trento, Italy (Lead Partner)
  • Hub Innovazione Trentino S.c.a.r.l. (HIT), Italy
  • Katholieke Universiteit te Leuven (KU Leuven), Belgium
  • Marangoni S.p.A., Italy
  • National Technical University of Athens, Greece
  • Université de Bordeaux, France

SINReM: International Master of Science in Sustainable and Innovative Natural Resource Management

Project duration: 1 January 2016 – 31 December 2019

Objective

The International Master of Science in Sustainable and Innovative Natural Resource Management (SINReM) programme educates a new range of professionals focused on developing technology, engineering and re-inventing the value chain to make it more sustainable. SINReM gives its students a broad view on the entire value chain and its different aspects. They acquire knowledge on the different (technological) options for optimising flows of natural resources in the different parts of the chain, ranging from resource exploration over sustainable materials use and use of resources in production processes to recovery/recycling of resources from end-of-life products.

The solution (technology)

SINReM graduates are trained to excel in creativity, have an entrepreneurial mindset, a multidisciplinary view and innovative problem-based technology development skills. They are qualified for a professional career in the private sector (supporting companies in making processes, products and services more sustainable), research sector (applied research at universities or research institutions, or in-company research) and the public sector (consulting in local, regional and (inter)national administrations, defining and implementing policy for sustainable development). The SINReM programme intensively promotes networking and exchange of knowledge and experience between different nationalities, in particular
between academic and non-academic partners, scholars and students from Europe and non-European countries.

SINReM is offered by a consortium of 3 leading Higher Education Institutes complemented by a wide range of non-academic partners active in mining and georesource exploration, chemical and environmental technology, development of sustainable materials and recycling technology. Student mobility within Europe is an integral part of the programme, which contains 120 ECTS (2 years).

Strong interaction with the professional sector is targeted through intensive cooperation with the non-academic partners in thesis research, internships, lectures and seminars. The SINReM programme also provides complementary skills training in innovation management, entrepreneurship, and business case development. The language of instruction is English. Graduates obtain the joint degree “International Master of Science in Sustainable and Innovative Natural Resource Management”, jointly awarded by Ghent University, Uppsala University, and TU Bergakademie Freiberg.

Partnership

The application is now open! For more information, please visit the SINReM website.

Programme co-ordinator: Prof. Gijs du Laing, Ghent University, gijs.dulaing@ugent.be

https://youtu.be/yBB_Jq9zsUU

Circular Economy

SINReM-PLUS: SINReM: Promoting Entrepreneurial and Innovative Learning of University Students

Project duration: 01 January 2020 – 31 December 2023

Objective

The aim of the project is to implement genuine entrepreneurial actions in the SINReM programme; strengthen the focus on circular economy; and expand the programme to recruit more European students as well as students with an economics background.

The solution (technology)

Through science prep-courses, research prjects and courses focusing on circular societies as a whole, SINReM will hence create a larger recruitment pool of highly skilled graduates for companies being confronted with raw materials supply risks.

Partnership

  • Technische Universität Bergakademie Freiberg (TUBAF), Germany (Lead Partner)
  • BASF SE, Germany
  • Ghent University, Belgium
  • Sandvik AB, Sweden
  • UMICORE NV, Belgium
  • Uppsala Universitet (Uppsala University), Sweden
  • Vlaamse Instelling voor Technologisch Onderzoek NV (VITO), Belgium

For more information, please visit the project website.

Substitution

SIRIUS: SIlicon nanopaRticles based composItes UpScaling

Project duration: 1 April 2017 – 30 September 2019

Objective

Most batteries used in mobile but also on electric vehicles applications rely on graphite anode, which is a critical raw material for Europe such as silicon metal.
So the large and still increasing markets energy supply and mobility run into resource scarcity. This resource scarcity will become even more relevant in future if we do not find efficient and sustainable substitutes for those materials. Furthermore, graphite anodes have reached their limits in terms of performances, that’s why current market expects new anodes alternatives.

The solution (technology)

The proposed approach will help to secure raw materials supply by working on two aspects. On one hand the use of silicon gas precursor to obtain silicon metal and the partial substitution of graphite. On the other hand the development of high capacity anodes is a way to reduce the anode materials quantity in batteries. The goal of the SiRIUS project is to develop high capacity silicon – carbon composites anodes for lithium ion batteries targeting high energy density applications and intermediate cycle life to meet requirements of portable electronic and automotive markets. Members of this consortium cover each vertex of the knowledge triangle, with leading partners from industry (Task partners SGL Carbon and Varta Micro Innovation, and recent associate partner Nanomakers), applied research organizations (CEA) and one university (UPPSALA University). The joint project and the linkage of synergetic capabilities and assets of the partners in SIRIUS contribute to enhancing industrial competitiveness, innovation capacity, education and environmental and social sustainability for European industry players along the whole battery value chain – from materials supplier to battery manufacturers.

Partnership

  • Nanomakers, France (Lead Partner)
  • Commissariat à l’énergie atomique et aux énergies alternatives, CEA (French Alternative  Energies and Atomic Energy Commission), France
  • SGL Carbon GmbH, Germany
  • Uppsala Universitet (Uppsala University), Sweden
  • VARTA Micro Innovation GmbH, Austria

For more information, please visit the project website.

Mineral Processing/Resource Efficiency

SisAl: SisAl Slag Valorisation

Project duration: 1 January 2021 – 31 December 2023

Objective

Today Si and HPA are made non-sustainably; for each tonne of Si you make a lot more CO2, plus harmful pollutants. This problem is resolved by SisAl, by replacing carbon with secondary Al for Si production, and in parallel making a slag being a perfect precursor for HPA. If successful in up-scaling, NTNU through a spin-off (licences), SiQAl & Mytilineos (HPA), and CALEF (CO2 looping) will commercialise the sustainable technologies and products.

The solution (technology)

Silicon and High Purity Alumina (HPA) are vital raw materials for the transition to the low carbon society; silicon as a dominant photovoltaic (PV) material for solar energy applications and as an important ingredient in light-weight applications (automotive and others), while HPA is a key material in Light Emitting Diodes (LEDs) and increasingly in Lithium Ion Batteries (LIBs). Unfortunately, both Si and HPA are today produced non-sustainably; for each tonne of Si you make a lot more CO2, plus harmful pollutants. Similarly, HPA is today made from ultrapure primary aluminium, having a large CO2 footprint.

The promise of the SisAl process is to resolve this problem of non-sustainable raw materials, by replacing carbon with secondary aluminium sources (scrap, dross) as reductant for Si production from quartz (SiO2), and in parallell making an intermediate slag which is a perfect precursor for HPA processing. By introducing integrated CO2 looping, the already superior low CO2 footprint of the SisAl process is strengthened. Elkem (Si), SiQAl & Mytilineos (HPA), and Calef (CO2 looping) will commercialise the technologies and products (Si & HPA) for the benefit of end users requiring sustainable raw materials with a minimal environmental and CO2 footprint.

With the SisAl process the transformation to a low carbon circular economy and other key challenges are turned upside down into new European opportunities. Carbon leakage means moving industry to countries with less strict emission regulations, giving no positive or even negative effects on global emissions. A reversed carbon leakage would be to move industry back to Europe, and by replacing just one traditional silicon smelter in China with a new SisAl smelter in Europe, we have estimated that 50 million Euros will be saved annually in avoided societal emission costs.

Identified commercial exploitation opportunities to be targeted in the KIC KAVA Upscaling Project “Sisal Slag Valorisation” include:
– Technology for production of high purity alumina (HPA) from SisAl slags, to be commercialised by SiQAl and Mytilineos;
– Product HPA – to be produced and commercialised by SiQAl and Mytilineos for the European market ;
– Technology for production of silicon and SisAl slags (i.e. the basic patented SisAl technology) to be licensed by NTNU as commercial owner;
– Product Silicon metal (produced along with SisAl slags in the basic SisAl process) – from secondary streams to be commercialised for the global market by Elkem, Europe’s largest Silicon producer and trader;
– CO2 looping technology for metallurgical applications, with an initial focus on co-production of alumina and calcia from SisAl slags, with Calef and Walter Tosto as commercialising actors.

The project consortium covers the value chain from raw material provider to product user, with partners from SME´s, companies, institutes and universities.

Partnership

  • BNW Energy, Norway
  • Consorzio Per La Ricerca E Lo Sviluppo Delle Applicazioni Industriali Del Laser E Del Fascio Elettronico E Dell’ingegneria Di Processo, Materiali, Metodi E Tecnologie Di Produzione, (CALEF) Italy
  • Elkem AS Technology Kristiansand, Norway
  • ENALOS Research and Development, Greece
  • Fraunhofer-Gesellschaft zur Förderung der angewandten Forschung e.V. (Fraunhofer), Germany
  • MYTILINEOS S.A., Greece
  • National Technical University of Athens – NTUA, Greece
  • Rheinisch-Westfaelische Technische Hochschule Aachen, RWTH Aachen, Germany
  • SiQAl UG, Germany
  • WALTER TOSTO, Italy
  • Norwegian University of Science and Technology (NTNU) (Lead Partner), Norway