SUBSTITUTION OF RARE-EARTHS FOR ADVANCED NOVEL MAGNETS IN ENERGY AND TRANSPORT APPLICATIONS

Digital, Industry & SpaceHORIZON-RIAID: 101129912
EC Contribution
€67,595
Consortium Size
14 orgs
Start Year
2024
Summary

Modern technologies required for the transition to a climate-resilient sustainable green and digital future (wind generators, electric motors) heavily rely on rare-earth (REE) permanent magnets. However, with China covering 98% of the supply to Europe in 2022, the continent is left in an extremely vulnerable position with respect to these critical raw materials. In this framework, BEETHOVEN seeks to address the challenge brought forward in the Topic description to reduce the amount of REE employed in the new energy sector.The main goal of the project is to develop innovative and sustainable advanced magnetic materials that substitute REE in the energy and transportation sectors. We will work on developing and upscaling 3 types of magnetic phases: high-entropy alloys, ferrite-based composites and W-type ferrites, that could be deployed at large scale in the permanent magnets market. Substitution will be demonstrated in final applications by developing REE-bonded magnets for automotive components, and by designing and building prototypes for a REE-lean wind generator, a REE-free flywheel and a REE-free/lean e-motor for electric vehicles. With a total budget of 7.5 Million €, balanced between the parallel technological developments and across the project´s value chain, BEETHOVEN will address the 6 activities specified in the Topic Description. To do so, a team of experts from 14 partners and 10 countries -with demonstrated experience working collaboratively at the frontier of knowledge in the permanent magnet sector- has been assembled. The successful implementation of the project is expected to put BEETHOVEN in the position to contribute to the expected outcomes and wider impacts of the call by reducing Europe´s REE magnets imports by an estimated 2,200-4,900 tons by 2033. The key technologies, skills and materials to achieve this impact will be developed within EU borders, contributing to a more resilient, autonomous and industrially competitive Europe.

Consortium (14)

Project Results (12)

Source: CORDIS, the EU research results database.

Publications (9)
A simple and industrially scalable process for recycling hexaferrite ceramic magnets
Open Ceramics· 2025DOI
Alba Berja, Daniel Casaleiz, Cecilia Granados-Miralles, Karla Kosmač, Boris Saje, Tina Frangež, Slavko Dvoršak, Zoran Samardžija, Benjamin Podmiljšak, Jose Francisco Fernández, Adrián Quesada
Defining magnetic properties required for rare earth element free permanent magnets for electric vehicles
IET Conference Proceedings· 2025DOI
Sandra Eriksson, Marcelo. D. Silva, Petter Eklund
Growth and magnetic domain imaging of barium hexaferrite thin films with a Co overlayer
Boletín de la Sociedad Española de Cerámica y Vidrio· 2025DOI
Guiomar Delgado Soria, Eduardo García-Martín, Sandra Ruiz-Gómez, Clara Gutiérrez-Cuesta, José Francisco Marco, Cecilia Granados-Miralles, Eva María Trapero, Santiago Sánchez, Michael Foerster, Lucía Aballe, Juan de la Figuera, Adrián Quesada, José Emilio Prieto
Growth of MnWO<sub>4</sub> nanowires on W(110) by high-temperature oxygen-assisted molecular beam epitaxy
Journal of Materials Chemistry C· 2025DOI
Kalina Fornal, Clara Gutiérrez-Cuesta, Adolfo del Campo, Anna Mandziak, Pawel Nita, José Emilio Prieto, José F. Marco, Juan de la Figuera
Journal of the European Ceramic Society
Journal of the European Ceramic Society· 2025DOI
Alba Berja, Cecilia Granados-Miralles, Daniel Casaleiz, Jesús Guzmán-Mínguez, Tina Frangež, Jose Francisco Fernández, Adrián Quesada
Nano-patterning using ultra-thin alumina membranes
Materials Today Nano· 2025DOI
Claudia Fernández-González, Sandra Ruiz-Gómez, Ana Arché-Núñez, Lucas Pérez, Célia Tavares de Sousa
Recovery of Rare Earths from End‐of‐Life NdFeB Permanent Magnets from Wind Turbines
ChemSusChem· 2025DOI
Lorena Alcaraz, Olga Rodríguez‐Largo, Gorka Barquero‐Carmona, Alba Berja, Adrián Quesada, Félix A. López
Self-Propagating High-Temperature Synthesis of High-Entropy Composite in a Ti–Cr–Mn–Co–Ni–Al–C System
Ceramics· 2025DOI
Alina Zurnachyan, Abraam Ginosyan, Roman Ivanov, Irina Hussainova, Sofiya Aydinyan
Thermally driven rock-salt to spinel transition in high-entropy (CoFeMnNiZn)xOy oxides: Effects on magnetic and mechanical properties
Chemical Engineering Journal· 2025DOI
Hasmik Kirakosyan, Ani Sargsyan, Yeva Grigoryan, Alex T. Sheardy, Khachatur Manukyan, Marieta Zakaryan, Harutyun Gyulasaryan, Adrian Quesada, Cecilia Granados-Miralles, Sofiya Aydinyan, Suren Kharatyan
Deliverables (3)
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