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

PROCHAINE: Development and delivery of lifelong learning training “Design and upscaling in mineral processing” for people working in the sector

Project duration: 1 May 2017 – 20 April 2019

Objective

The intent of this course is that after participating in this lifelong learning programme, professionals can contribute to the development of more efficient and better-controlled ore beneficiation processes, which have less environmental impact.

The solution (technology)

This project will develop an advanced level, practical training program. The target learners are professionals working in the mining sector. The learning objective is for professionals to gain an advanced understanding of the practical issues as well as a theory concerning the design and upscaling of ore beneficiation processes; and, how design and upscaling relates to the operations and economics of mineral processing plants. The course will make extensive use of state-of-the-art simulations and pilot facilities.

Partnership

For more information, please visit the project website.

Sustainable Mining

ProSkill: Development of a Skill Ecosystem in the Visegrád Four Countries

Project duration: 01 January 2020 – 31 December 2022

Objective

The aim of ProSkill porject is to combine fundamental engineering and soft skills to create unique, creative individuals with critical thinking who are uniquely prepared to succeed in technical business applications in their professional lives.

The solution (technology)

A skill ecosystem strategy is developed to reduce the negative effects of skill problems. To implement it a pilot project is launched with the direct and active participation of colleges for advanced studies.

Partnership

  • University of Miskolc, Hungary (Lead Partner)
  • VŠB – Technical University of Ostrava, Czech Republic
  • Slovak University of Technology in Bratislava (STU), Slovakia
  • Politechnika Slaska (Silesian University of Technology), Poland
  • European Federation of Geologists (EFG), Belgium

For more information, please visit the project website.

Recycling

PyroFlex: network on pyrometallurgical expertise and infrastructure for residue treatment

Project duration: 1 January 2016 – 31 December 2018

Objective

PyroFlex unites partners with strong expertise, unique equipment and infrastructure in high-temperature extractive metallurgy that can deal with complex low-grade residues, allowing the recovery/removal of valuable elements present in low concentrations, as well as to produce a clean slag by hot stage engineering and controlled solidification for subsequent valorisation. PyroFlex has an overall aim to stimulate cooperation and development in pyrometallurgical processes and to decrease the barriers to pursue innovation in high-temperature residue treatment. The network provides easier access to a broad range of pyrometallurgical and related infrastructure (for partners in the network), which are typically expensive and requires specific expertise to be properly operated, and offers comprehensive services to outside clients.

The solution (technology)

The PyroFlex Network is part of a more holistic ZeroWaste umbrella network targeting the extraction of valuables from low grade, complex wastes and ores while upcycling the residues to added value products. PyroFlex aims to reach these objectives by building a network of pyrometallurgical expertise and infrastructure, primarily for lab scale equipment, providing proof of concept, complemented with thermodynamic calculations and process models. For this reason, a system to simplify cooperation within the network, and provide services to outside customers will be developed and installed. To strengthen and expand the network, the detection of common project opportunities for KCA and KAVA will be pursued. The target customers of the network are large industries, SMEs and organisations active in extractive metallurgy, as residue producer, processer or both.

Partnership

For more information, please visit the PyroFlex project website.

QMFormA: A NoI with expertise in the use of computational Quantum Mechanics to tailor design alloys to match application specific material properties

Objective

To consolidate a network of world-leading expertise that delivers services to companies that seek to develop a competitive edge via designing new materials from a bottom-up perspective.

The solution (technology)

The solution comprises of:

  • Establishing a network of experts that have a proven track record in designing new materials from a bottom-up perspective, using highly accurate, quantum mechanical simulations
  • Promoting the network by holding seminars for companies’ R&D personnel
  • Selecting and working with a number of cases to illustrate the possibilities of quantum mechanics design
  • Disseminating these cases to a wider audience, illustrating the time savings and other benefits compare to traditional trial and error alloy design approaches

Partnership

For more information, please visit the project website.

R2R-GeoMet: Raw to Recycled – a geometallurgical approach

Objective

To coordinate and deliver integrated training and education initiatives suitable for practical training to industry and to complement masters programmes to support resource characterisation and geometallurgical integration throughout the mining and recycling value chains. This course delivers integrated training and education initiatives suitable for practical training to support resource characterisation and geometallurgical integration.

The solution (technology)

Resource characterisation is strongly linked to the emerging discipline of Geometallurgy, a cross-discipline approach that requires broad awareness of the many aspects of the mining value chain including exploration, mine design, planning, optimisation, valuation, and rehabilitation. Effective education in this area must be based on a fully integrated approach that provides broad awareness before focussing on specialist tools and knowledge.

The R2R-GeoMet Raw to Recycled programme develops and delivers a range of practical “how to” short courses for industry professionals and students as well as longer term courses that will complement existing programmes to support resource characterisation and geometallurgical integration.

The course structure is aimed at three components:

  • a detailed overview module that can complement existing programmes (e.g. EMC, Recycling Hub ) – 2 weeks;
  • a course for practitioners (industry and research) to introduce methods, outcomes and integration – 2 to 3 days;
  • a series of modules designed to follow up the introductory programme and offer practical, hands-on training of specific aspects of integrated resource characterisation – one to two weeks per module.

Partnership

RACE: RAw Communication & Engagement

Objective

RACE’s primary objective is the development and enhancement of awareness and understanding of the broad area of raw materials (RM), and the potential careers available in this field through the development and implementation of a training module targeted at working professionals, Higher Education students (postgraduate), and Higher Education staff.

As participants progress through the module they will develop and enhance their own under- standing of Responsible Research and Innovation (RRI), in the context of Raw Materials. They will also develop communication skills and the ability to showcase the incredible potential of working in this important field. Participants will engage in carefully developed and selected assignments which will enable them to communicate an understanding of RM and which will promote careers in the field among the target audience.

The solution (technology)

The module will be delivered utilising best pedagogical practices, ensuring problem-based, inquiry-based and experiential learning. Guest lecturers from the fields of business, entrepreneurship, marketing and STEMM communication will conduct workshops with participants across topics relevant to raw materials. The mode of delivery will incorporate blended learning, practical workshop sessions, debating impact and ethical issues associated with raw materials through the use of case studies, and media training.

Partnership

Programme co-ordinator: Dr Sarah Hayes, University of Limerick, sarah.hayes@ul.ie

Substitution

RACE-TP: Lightweight Recyclable Automotive thermoplastic CompositE structural parts for large series production

C-RTM Process Scheme

Project status: Completed.

Objective

Over the past 50 years, the automotive industry has seen a continuous increase in the use of more and more sophisticated materials in answer to increasing levels of functionalities and safety in the vehicles, and it is now mandatory due to the need to reduce CO2 emissions to less than 95 grams emitted per km to make a step change in the weight reduction of vehicles. The current solutions that are under development to reach this goal rely on the use of new materials such as high strength steel, aluminium, magnesium, or organic based glass or carbon composite materials. In that context, the aim of the RACE-TP project is to contribute to the industrialization of a new thermoplastic composites technology based on acrylic chemistry recently developed by Arkema.

The solution (technology)

The proposed solution is based on a new thermoplastic composites technology based on acrylic chemistry, a technological approach that has been chosen initially to answer the technico-economic requirements defined with the French auto manufacturers and tier-one auto suppliers Renault, PSA, Faurecia and Plastic Omnium in the Compofast and FastRTM projects. The technology combines several advantages of interest for this type of applications:

  • A low resin price as compared to other chemical solutions insuring that the cost of ownership of parts will be competitive with metal solutions;
  • A short supply chain due to the use of the RTM process, with a direct supply of resin to the final part manufacturer (Tier-one or Car manufacturer) that also guarantees the best possible economics;
  • Access to the direct manufacture of complex 3D parts;
  • Possibilities to assemble parts by welding or gluing;
  • The recyclability of the parts, with the possible re-use of the material in injection moulded thermoplastic parts for the automotive industry.

Partnership

 

Mineral Processing/Resource Efficiency

RADIUS

01 January 2018 – 31 March 2021

Objective

The main objective of this project is to achieve the maximum level of recycling ensuring OEM’s requirements and highly minimizing the environmental impact. This ambitious objective will be achieved thanks to the Consortium expertise formed by 8 partners.

The solution (technology)

The RADIUS project will develop automotive components based on recycled aluminium alloys, containing aluminium, magnesium and silicon metal scraps.

Partnership

  • FAGOR EDERLAN, S.COOP, Spain (Lead partner)
  • Bay Zoltan Nonprofit Ltd. for Applied Research, Hungary
  • BEFESA Aluminio S.L., Spain
  • EDERTEK S. COOP., Spain
  • INNSIGHT srls, Italy
  • Institute of Non-Ferrous Metals (IMN), Poland
  • Leiden University, Netherlands
  • SILICIO FERROSOLAR S.L., Spain
Circular Economy

RAIDMAP: RAw Ideas for Materials Projects

Project duration: 15 October 2018 – 31 December 2018

Objective

Master degree students are often not ready for the real world and there is lack of communication between industry and academy. RAIDMAP wants to smooth the edges through a series of coordinated events. 

The solution (technology)

Properly trained master students and tutors from industry will join together to develop new up-scaling and BIC projects ideas under the umbrella of KIC-RM principles. 

Partnership

  • Università degli Studi di Padova (University of Padova), Italy (Lead Partner)
  • Norwegian University of Science and Technology (NTNU), Norway
  • Kungliga Tekniska Högskolan, KTH (Royal Institute of Technology), Sweden
  • Fraunhofer-Gesellschaft zur Förderung der angewandten Forschung e.V. (Fraunhofer), Germany

For more information, please visit the project web page.