Critical Materials in Circular Economy of Cities (Romulus) 2022-2025
Romulus explores the occurrence and chemical composition and properties of critical metals, integrating this with research on the circular economy of cities. The programme examines processes, products and services that are based on sustainable development.
The growth of developing economies increases the demand for natural resources further. Cities use critical materials or elements in many places, such as households, buildings and different structures. Towards the end of the materials’ life cycles, it is necessary to reclaim critical materials or elements and reuse or recycle them. Especially the reserves of rare natural resources are dwindling fast. It is ever more important to secure the reliable and undisturbed availability of metals that are necessary for applications of ICT, communications and new environmental and energy technologies. Batteries for electric cars, panels for solar power production, and high-power permanent magnets for wind power production all include rare-earth metals which are defined as critical and other elements which will be defined as critical in the future. The poor availability of these strategically important metals and other elements is caused by many different reasons. Europe is dependent on the import of metals. The European Commission aims to secure the reliable, sustainable and reasonable priced availability of raw material. The European mining industry cannot provide raw material for all technologies. Efficient recycling is necessary to improve the reliability of raw material availability.
The programme studies the deposits of high-demand metals and their chemical characteristics in different matrices, and develops cost-effective processes for metal beneficiation, separation, recovery and purification in accordance with the principles of sustainable development. The programme considers both pure recycling processes and existing primary processes that integrate metals or intermediates rich in metals. The programme also studies the scalability of processes and cost-effective and sustainable waste recycling and creates system-level modelling know-how for circular economy solutions. The themes can be researched from multiple perspectives, such as system theory, industrial ecology or value creation in recycling.
Recycling of materials requires new legislation, other policy instruments and understanding of consumer behaviour and responsibility. The research of these themes is an essential part of the programme.
Separating usable material from urban waste (urban mining) is one of the ways to secure the raw material industrial production needs. Electronic waste, for example, is often many times richer in certain metals than ore (e.g. circuit boards in Cu, Au, Pt, Pd, Ag). The recovery is also more cost-effective. However, products have only small amounts of certain technology metals (e.g. In in flat screens, Co in circuit boards), which is why the recycling process loses a large amount of elements. Enabling cost-effective recovery requires new innovations.
Utilising the materials in urban structures (e.g. buildings, structures including underground pipes and cables, electric and electronic waste) requires knowledge of material composition. The wide range of different waste materials is a research challenge. In each case you must find out how to reclaim the desired element in an environmentally friendly and cost-effective way or solve the question of material recycling or reusing in another way. A functional circular bioeconomy is central in achieving the goals of sustainable development.
Critical Materials in Circular Economy of Cities (Romulus), funding €7 million, funding period: 1 Jan 2022-31 Dec 2025
Projects belonging to the Romulus Academy programme are listed below. You find more information about the funding decisions on our WebFocus page.
Towards urban symbiosis of critical raw materials: collaborative value creation models in circular ecosystems (UrbanSymbiosis)
- Project description (pdf)
- Katri Valkokari, Technical Research Centre of Finland Ltd.
- Anna Aminoff, Hanken School of Economics
- David Lazarevic, Finnish Environment Institute SYKE
Multi-level governance of critical materials for future electric mobility (GoverMat)
- Project description (pdf)
- Marja Elina Huttunen-Saarivirta, Technical Research Centre of Finland Ltd.
- Ari Jokilaakso, Aalto University
- Ulla Lassi, University of Oulu
- Rauno Sairinen, University of Eastern Finland
Municipal solid waste incineration residues as secondary resource for metal recovery and construction materials
- Project description (pdf)
- Mirja Illikainen, University of Oulu
Viable magnesium ecosystem: exploiting Mg from magnesium silicates with carbon capture and utilization (MAGNEX)
- Project description (pdf)
- Päivö Kinnunen, University of Oulu
- Erkki Levänen, Tampere University
- Ron Zevenhoven, Åbo Akademi University
Ecodesign of solar technologies for urban environment (ECOSOL)
- Project description (pdf)
- Kati Miettunen, University of Turku
- Pekka Heikkinen, Aalto University
- Annukka Santasalo-Aarnio, Aalto University
FUSUMIN - Focused Ultrasound for Urban Mining
- Project description (pdf)
- Ari Salmi, Helsingin yliopisto
SmartCycling. Optimising the circular economy of batteries with artificial intelligence aided designs
- Project description (pdf)
- Rodrigo Serna, Aalto University
- Milica Todorovic, University of Turku
Governing Transition to a Circular City: Engaging public and private stakeholders in the circular economy
- Project description (pdf)
- Pekka Valkama, University of Vaasa
- Ari-Veikko Anttiroiko, Tampere University
M-ERA.NET 3, funding period 1 Sep. 2022 – 31 Aug. 2025, Academy of Finland funding €1.25 million and EU funding €0.7 million.
M-ERA.NET is a strong European network of public funding organisations supporting and increasing coordination and convergence of national and regional funding programmes on research and innovation related to materials and battery technologies to support the European Green Deal.
Nanocarbon materials for sustainable battery technology (NACAB)
- Project description (pdf)
- Miguel Caro, AALTO University
- Tomi Laurila, AALTO University
- Tekla Tammelin, VTT OY
Gradient- and multi-material processing of next-generation solid-state-lithium-batteries using direct material processing
- Project description (pdf)
- Ashish Ganvir, University of Turku
Gallium Oxide Fabrication with Ion Beams
- Project description (pdf)
- Flyura Djurabekova, University of Helsinki
Bio-sourced alternatives for lithium-silicon anodes
- Project description (pdf)
- Vesa-Pekka Lehto, University of Eastern Finland
Bio-inspired interfaces for the development of next generation degradable multi-phase materials
- Project description (pdf)
- Mikko Salomäki, University of Turku
M-ERA.NET 3, funding period 1 Sep. 2024 – 31 Aug. 2027, Research Council of Finland funding €1.25 million
Fully Bio-based Advanced Filtration Systems for Removal of Emerging Pollutants from Water (BAPUR)
- Patrik Eklund, Åbo Akademi
Optimization of Interfaces in Quasi-solid state Lithium Metal Batteries (3Interfaces)
- Tao Hu, University of Oulu
Advanced degradable nanocellulose-based matrix for stem cell differentiation and burn wound healing
- Esko Kankuri, University of Helsinki
Sustainable and Highly Durable Nanowire-Based Flexible Transparent Conductive Surfaces for Advanced Electronics
- Gaurav Mohanty, Tampere University
Sustainable and Highly Durable Nanowire-Based Flexible Transparent Conductive Surfaces for Advanced Electronics
- Vipul Sharma, University of Turku
Steering group (until 31 Dec 2024)
- Timo Repo, Scientific Council for Natural Sciences and Engineering, chair
- Mika Pantzar, Scientific Council for Social Sciences and Humanities, vice chair
- Sirkku Juhola, Scientific Council for Biosciences, Health and the Environment
- Satu Ojala, Scientific Council for Natural Sciences and Engineering
- Susanna Näreaho, Scientific Council for Natural Sciences and Engineering
- Kari Herlevi, The Strategic Research Council
- Jaakko Soini, Fortum Waste Solutions Oy
- Mari Vaattovaara, University of Helsinki
More information
- Questions about calls and grant management: helpdesk
- Saila Seppo, Senior science advisor, tel. +358 29 533 5109
- Anna Kohonen, Coordinator, tel. +358 29 533 5152
Our email addresses are in the format firstname.lastname(at)aka.fi.