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An innovative thermochemical cycle based on solid sulphur

SULPHURREAL

SULPHURREAL demonstrates an innovative approach to the direct storage of concentrated solar energy in solid elemental sulphur. The basic idea is to use concentrated solar energy to cyclically drive a series of chemical reactions that interconvert sulphuric acid and sulphur.

project participant
Completed
Energy Climate adaptation Climate neutral industry Life cycle analysis
Other than Sweden
3 years
c.a 3,98 million EURO
Division: Division Materials and Industry

SULPHURREAL aimed to demonstrate and validate a breakthrough approach for next generation, carbon-free, direct conversion of solar energy into chemicals storable for a virtually unlimited time, based on elemental sulphur produced and consumed on-demand via an integrated solar-aided thermochemical cycle. The concept is a combination of three major process steps, namely the H2SO4 decomposition, SO2 disproportionation and elemental sulphur combustion. The proposed combination integrates renewable energy sources (solar energy) with valorisation of non-CRM substances currently produced as industrial by-products from oil and gas (solid sulphur) and steel industries (Fe-containing slags) and industrial-scale chemicals production (sulphuric acid industry) in absolute accordance with a circular economy environment and industrial symbiosis.

RISE leads the work package with system integration, conducting life cycle assessment, and hazard and operability analysis (HAZOP) to provide input regarding environmental aspects and risks and safety in the development phase.

Yoon Lin Chiew

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Mats Zackrisson

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7. Affordable and clean energy
9. Industry, innovation and infrastructure
13. Climate action
Centre for Research & Technology Hellas (CERTH), Greece Agenzia per le Nuove Tecnologie, l’Energia e lo Sviluppo Economico Sostenibile (ENEA), Italy Karlsruhe Institute of Technology (KIT), Germany RISE Research Institutes of Sweden, Sweden University of Patras, Department of Chemical Engineering (UPAT), Greece Trinity College, University of Dublin, (TCD), Ireland ExoMatter (EXM), Germany Saint-Gobain (SG), France
Projekt logo: Sulphurreal Project end date: Energy storage Sekundär områdes navigation:
Circular transition
Power production
Biobased circular processes

Unlock the potential of aluminium: sustainable solutions and innovative partnerships

Sustainable aluminium

Aluminium is crucial for a sustainable and competitive future due to its lightweight properties, strength, and recyclability. However, challenges remain, such as energy-intensive production with significant carbon emissions and complex recycling processes that may negatively impact material quality. At RISE, we offer expert support to tackle these challenges, streamline processes, and unlock the sustainable potential of aluminium.

The role of aluminium in sustainability

Aluminium is an indispensable material, valued for its lightweight nature, strength, corrosion resistance, and recyclability. It plays a vital role in the transition to net zero, supporting sustainable solutions across various industries, including energy-efficient transportation and durable, lightweight construction materials.

The challenges in aluminium production and usage

Despite its advantages, significant challenges exist in the production and use of aluminium. Production is energy-intensive, with high carbon emissions and environmental impacts from bauxite mining. Although highly recyclable, effective recycling and scrap management pose challenges due to potential impurities and variations that can affect product quality. Additionally, by-products from the manufacturing process can be difficult to manage in an environmentally friendly and cost-effective way, potentially impacting profitability and competitiveness.

How RISE can support you

RISE is here to help minimise these challenges and promote the sustainable use of aluminium through a combination of services and expertise in research, development, and innovation.

What we can help you with

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Contact me to drive progress and innovation in sustainable aluminium development. We are here to support you throughout the entire process, from concept development to the final product!

Johan Fast Berglund

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Do you have questions or want to know how RISE can support sustainable aluminum development? Get in touch with us!

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Division: Division Materials and Industry Casting Sekundär områdes navigation:
Circular transition
Metrology
Production and manufacturing

Circular Handheld Machines from an Environmental and Human Perspective

NollVib Cirkularitet
Handheld machine

By applying future-adaptive design to handheld machines, project NollVib Cirkularitet aims to minimize vibration-related injuries, increase automation in the manufacturing industry, and extend machine lifespan.

Coordinator
Active
Work environment
Not applicable
3 years
6,9 MSEK
Division: Division Materials and Industry

Background and Challenge

Vibration injuries are a major occupational health issue across Europe. On May 22, 2023, the EU adopted a new Machinery Regulation that introduces a revised approach to the mechanisms behind vibration injuries, including a requirement to report high-frequency shock vibrations. This has led to a stronger focus on handheld machines and the potential for well-designed models to reduce vibration-related injuries.

Circular business models rely on long product lifespans and high utilization of products with low environmental and climate impact. Through robust, flexible, and upgradable product design, it is possible to reduce vibrations while also promoting environmental sustainability.

However, today’s products are rarely adapted for circular business models. Instead, they are often designed in ways that risk making them unattractive, outdated, or prone to premature wear and failure.

Purpose and Goals

The project aims to apply future-adaptive design principles to both existing and new machines to support climate, environmental, and social sustainability. It focuses on developing circular machines that comply with the EU’s new regulations, featuring interchangeable components and modules that simplify repair and upgrading. The objective is to reduce environmental impact while minimizing the risk of vibration-related injuries.

Solution

The key to designing future-adaptive products is a "future-proof" product architecture. This means creating a product that is inherently designed for easy repair and upgrades over time, as new needs emerge. This includes not only components and hardware but also new software integrated into the machines as part of a circular business model. For example, sensors and software that monitor and record vibration exposure.

Intense vibrations not only raise the risk of vibration injuries but also hinder automation. Vibration can cause robotic machines to malfunction. By developing low-vibration machines, the level of automation and robotics in manufacturing can be increased.

A longer product lifespan also leads to significant improvements in the product’s environmental and climate performance.

The innovative aspect of the project is applying this approach to a range of handheld machines in the manufacturing sector, including impact wrenches, chisel machines for cast scrap removal and grinding/cutting machines.

The prototypes will demonstrate how the choice of materials and manufacturing techniques impact the lifespan and environmental burden. This contributes to building competence among manufacturers and companies that repair and upgrade machines. The project will also apply environmental analyses (life cycle assessment) to identify which parts of the manufacturing process have the greatest environmental impact and need to be addressed.

The measures are relevant in industries other than the automotive sector, such as the construction and building sector, as well as the stone industry, which are large users of handheld machines.

Expected short-term impact

  • Increased knowledge and experience among participating companies in designing products tailored for circular business models.
  • Low-vibration machines for both humans and robots are available on the market. Increased potential for automation.
  • Upgraded existing machinery that meets new regulations – occupational health and safety.
  • New business opportunities for existing machinery; e.g., modular solutions that can be machine- and individual-customized.
  • Dissemination of results to other industries; e.g., the construction and building sector, as well as the stone industry.

Expected long-term impact

  • Handheld machines designed for a circular business model.
  • Reduced climate impact during the use and manufacturing of handheld machines.
  • Increased competitiveness for the manufacturing industry with a healthier workforce (fewer work-related injuries).
  • Compliance with the EU's new Machinery Regulation 2023/1230 and subsequent regulations for machine manufacturers.
  • Safe and attractive workplaces for both women and men.
  • Internationalization of results and the project.

Carolina Pettersson

Forskare
+46 10 228 47 37 Read more about Carolina
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8. Decent work and economic growth
AB Holsbyverken i Vetlanda Atlas Copco Industrial Technique AB SKF Mekan AB Volvo Business Services AB TM Verkstad AB
Funders without URL: Vinnova Project end date: Circular transition Sekundär områdes navigation:
Design
Sensors and sensor systems
Production and manufacturing
Materials and durability

Can poultry manure incineration improve sustainability?

Poultry manure incineration

This project aims to develop and test a concept for waste-to-energy conversion for poultry manure by investigating technical alternatives that could be viably implemented in Sweden.

Thermochemical conversion of poultry manure allows farmers to generate their own renewable energy while allowing reuse of phosphorus and potassium through the ash.

Project manager
Completed
Circular transition Energy Agriculture Life cycle analysis
2 år
1,3 MSEK
Division: Division Bioeconomy

The overall goal of this project is to determine if thermochemical treatment of poultry manure, through either combustion or pyrolysis, could improve profitability of poultry farming while helping achieve energy independence and reducing environmental impact of production.

Current practices for land application of manure are regulated by the EU Nitrate directive and in Sweden even stricter national regulations limiting phosphorus application. This means that poultry farmers often need to take on more land to spread the manure, which adds considerable costs to production. Storage of poultry manure must also be done in a manner that limits losses until it can be applied as a fertilizer, which further increases the cost of manure handling.

Given the current situation with runaway energy costs and the need to reduce the carbon footprint of agriculture, using poultry manure for energy production is an alternative use worth consideration.

Andras Baky

Senior projektledare
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7. Affordable and clean energy
9. Industry, innovation and infrastructure
Project end date: Agriculture Sekundär områdes navigation:
Circular transition
Power production
Chemical products and processes

Water Wise Societies

Water Wise Societies

Water Wise Societies, one of five programs within the innovation initiative Impact Innovation, work for transition towards sustainable water for all. Impact Innovation is funded by Vinnova, Formas and the Swedish Energy Agency, the aim is to contribut to global competitiveness through sustainable development transformation.

Koordinator
Active
Water
5 år
Division: Do not use - Division Built Environment

Mission: Sustainable Water for All

Water shall be available in the quality and quantity needed for people, society, businesses and society to flourish, despite a changing climate. Sweden is the leading partner for water related innovation and solutions.

What do we mean with sustainable water for all?

The program summarize the aims in four areas: 

Programmet sammanfattar målsättningarna i fyra områden: Vattenresilienta samhällen, välmående sjöar och vattendrag, tillgången till vatten och klok användning av vatten.

Water-resilient societies that are built and  managed in harmony with water and are resilient to climate change and crises. 

Thriving and healthy water sources  that are protected and future-proofed. Sources of pollution are identified, assessed and, if needed, reduced or removed.

Access to water for all to support  thriving ecosystems, safe drinking water,  hygiene, food and energy production,  and competitive business.

A wise use of water in which all of society  harvests and uses only the quantity and quality  of water they need. Resources in water are  safely reused in circular systems.

Program Office

The program is led by RISE Research Institutes of Sweden together with  IVL Swedish Environmental Institute, Stockholm Environment  Institute, Svenskt Vatten, Linköpings Science Park  and Lund University.

Program Director is Magnus Arnell.

Magnus Arnell

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Elin Flodin

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Projekt logo: Logotyp för Water Wise Societies Project end date: Water Sekundär områdes navigation:
Circular transition
Resource-efficient cities
Climate adaptation

Don't miss the mark – here's what it takes to make your circular business fly

Circular business

Circular products and services that are received with little interest are not doing much for the green transition. New research shows what it takes to create circular offers that customers actually want.

There are several examples of companies that have managed to combine circularity with economic success. Easy-to-navigate second-hand sites are one example, reliable car-sharing services another. The common denominator? Companies have created attractive circular offers with the end user in mind.

"Instead of making money by using finite resources and selling them cheaply, these companies are making money by closing loops so that resources can continue to flow. Many circular business models are about retaining ownership of the products in order to better control the flows. In practice, this can mean that the users are not the real owners of the product," says Anneli Selvefors, senior researcher in business design at RISE.

But what about companies with a long history based on a linear business model? According to a report from Luleå University of Technology published in 2024, there are no examples of large companies that have successfully scaled up a circular business model and replaced the old one. "There are many aspects that make it easier to stay in the linear world," says Sara Renström, senior researcher in technologies for interaction at RISE.

"It is difficult to convert an entire company, and the fact is that it is still financially viable to work with the linear business model. But in a future where resources are even more scarce than they are today, it will be harder to sustain that way of working."

Do you really understand your users?

Sara Renström and Anneli Selvefors have researched the enablers and barriers to creating attractive circular offers. Circular offers are a prerequisite for the transition to a circular business model. After interviewing 13 companies at different stages of their transition and reviewing the literature on the subject, the researchers identified a number of different areas that are important for companies' ability to develop circular offers that customers actually want.

Much depends on understanding your users and their needs. It may sound simple, but research shows that simply asking your customers what they need and want is not enough. Often users don't know what they need until the solution is available.

"For creative design work, which we believe is critical to creating really good circular value propositions, you need to start looking at what people do and use. That's one level deeper than just talking to customers. The next level is to find out what they feel and dream about," says Sara Renström.

We have found that an organisation working together on this issue can more easily develop attractive circular offers.

More collaboration along the value chain

Getting to know your customers actively, for example through user surveys, is therefore a prerequisite for creating attractive circular offers. It is also important that the team conducting these surveys is in close contact with the company's production and marketing departments. Then the insights don't get stuck at the first stop.

"If the user perspective is allowed to permeate all departments of the company, it becomes something to collaborate on. Of course, it is possible to run a successful business anyway, but we have found that an organisation working together on this issue can more easily develop attractive circular offers," says Sara Renström.

It's not just a question of getting good cooperation within your own organisation, but also cooperation with other actors along the value chain. For example, a company that wants to move from selling products to renting them can enlist the help of an IT provider to create a digital platform from which the rental can take place.

"There are opportunities for all businesses"

It is a challenge to move away from the linear approach that has served companies well for decades and to create entirely new, circular offerings. This is where RISE comes in. RISE has extensive expertise in circular value propositions and business models.

"We can help identify user needs in relation to the client's specific niche. We can also help at a strategic level, thinking together about how they can work with users during the development process. It can also be about identifying possible partners in the value network and initiating the collaborations needed to move forward," says Sara Renström.

"There are opportunities for all companies to strengthen their own capabilities and conditions for developing circular offerings and business models that are more attractive than their linear predecessors," says Anneli Selvefors.

What is a circular business model?

At its core, a circular business model is about harnessing the potential of circular resource flows to create, deliver and capture value over time. Business models are often based on circular offerings of services and products that are designed to work over time by being repairable and upgradeable. By making it easier for products to be shared by multiple users and used over time, business models can reduce the need for new resources. Circular business models can also include opportunities to return materials and components to the production cycle rather than to waste.

6 enablers for attractive circular offers

  1. User involvement that creates a deep understanding of user needs.
  2. A development process that benefits from user insights.
  3. A vision and direction that addresses user-related challenges from a sustainability perspective.
  4. A market strategy that enables the adaptation and communication of circular offers to different market segments and trends to increase impact.
  5. A business ecosystem that connects key stakeholders to address user-related sustainability challenges and create long-term impact.
  6. An organisation that leverages internal capabilities and external drivers to address user-related sustainability challenges.

Read the RISE report: https://www.sciencedirect.com/science/article/pii/S0921344924002222

Anneli Selvefors

Senior forskare
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Sara Renström

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Circular transition Sekundär områdes navigation:
Innovation management
Design
Service innovation

Cirkulär industriell vattenanvändning med enzym-baserad reningsteknik

Cirkulär industriell vattenanvändning
vatten tapp

Projektet validerar cirkulär prestanda för innovativ och högteknologisk vattenbehandlingsteknik genom att tillämpa internationella standarder för cirkulär ekonomi, miljöteknik och digitala produktpass för att rikta vattencirkularitet.

Projektledare, koordinator, delatagare
Completed
Certifiering Kemiska processer och produkter Medicinteknik Vatten
Ej tillämpbart
1,5 år
1 314 995
Division: Använd ej - Division Samhällsbyggnad

Projektet kommer att använda en innovativ och högteknologisk reningsteknik, Zymatic, för att och validera Cirkulär prestanda på process-/avloppsvatten från en industri. Projektet kommer att tillämpa standarder för Cirkulär Ekonomi för att hjälpa till att identifiera en eller flera vatteninitiativ och sedan utvärdera initiativen för fullskalig kapacitet. När projektet valt ut vilken process/vattenström som ska användas kommer interna och externa piloter genomföras för att validera teknikens prestanda och övervaka dess cirkulära prestation. Slutligen kommer reningstekniken att testas ytterligare på liknande strömmar för att förutsäga återanvändbarheten och överförbarheten av lösningen till andra vattenströmmar.

Vattencirkularitet är viktigt för industrier när det gäller hållbarhet, skydd av ekosystem och för ökad konkurrenskraft. Inom kemisk tillverkning, såsom läkemedels- och medicinteknikindustrin och dess värdekedja, är möjligheten att återanvända avloppsvatten till olika produktionsområden eller stödjande processer av stort intresse. Nya regelverk har ökat intresset för vattenåteranvändning de senaste åren. Ett exempel är EU:s ökade krav på industrier genom vattendirektiven Urban wastewater treatment directive (UWWTD) och Surface-and Groundwater Directive (SGD). Här omfatt nya direktiv principerna om att ”förorenarna ska betala”. Detta ger projektet en möjlighet att kombinera innovativa reningslösningar, nya ISO-standarder med behovet av att hitta nya vatteninitiativ.

Tatiana Nevzorova

Senior forskare
+46 10 516 67 04 Read more about Tatiana
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3.Hälsa och välbefinnande
6.Rent vatten och sanitet
9.Hållbar industri, innovationer och infrastruktur
14.Hav och marina resurser
15.Ekosystem och biologisk mångfald
Project end date: Vatten Sekundär områdes navigation:
Cirkulär omställning
Produktion och tillverkning
Bioteknik
Kemiska processer och produkter

Introductory training in Life Cycle Assessment, LCA

LCA

Do you want to learn more about Life Cycle Assessment (LCA), and how you can use LCA to calculate, evaluate and reduce the environmental impact of your products or services? Then this introductory training is for you.

LCA is a widely used method for identifying where in the value chain the largest sources of emissions occur, the hotspots. Once an LCA has been carried out, it can be used to support decisions on improvement measures and to communicate results both internally and externally. 

Aim

RISE offers this introductory training in LCA to help companies and organizations understand the methodology behind LCA in accordance with the ISO standards 14040/-44. Participants will learn how to interpret results and understand the opportunities and limitations associated with LCA.

This is a proven digital training concept conducted over two half-days, with the aim of providing participants a basic understanding of LCA as a tool. The training sessions cover the fundamentals of conducting a life cycle assessment, including methodology choices, interpretation and communication of results. It also provides insights into the application of LCA in the world of research, public sector and business. The training combines lectures, discussions, and exercises to optimize the learning experience.

Time and place

The training runs over two half days and is held online.

Content

The training does not require any prior knowledge of LCA and includes the following parts:

  • Introduction to the life cycle perspective and life cycle assessment
  • The four phases according to ISO 14040/-44
    • Goal and scope
    • Inventory analysis
    • Impact assessment
    • Interpretation of results
  • Application and communication of LCAs
  • Environmental Product Declaration (EPD)
  • Current topics in the field

Target audience

The training is open to anyone interested in gaining a deeper understanding of LCA as a tool.

Company-specific or in-depth training

If the current dates don't suit you or your company, please contact the training coordinator below to book a company-specific training.

We also offer customised trainings, in-depth training and coaching within the LCA field, for example related to industry-specific areas, EPD, PEF, Greenhouse Gas Protocol, social LCA, or in the form of a practical workshop to help your company get started and take the next step with the LCA work at your company.

Interested in taking the next step? Read more about our in-depth training: In-depth training in Life Cycle Assessment (LCA) | RISE

sv
2-3 mars 2027
02 Mar 2027 - 03 Mar 2027
08:30-12:00
7500 SEK (excluding VAT)
16 out of 16
Digitalt
Sv/Eng
Division: Do not use - Division Built Environment

Emelie Gäskeby

Kundsupportadministratör
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Emanuel Glans

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Circular transition Sekundär områdes navigation:
Construction
Production and manufacturing

The EU is taking strong measures to boost the extraction of critical metals and minerals

Minerals

Since May 2024, the EU's Critical Raw Materials Act has been enforced across the entire union. The goals are ambitious: within a few years, the EU aims to increase its self-sufficiency and recycling of critical metals and minerals, while simultaneously reducing reliance on individual countries."What remains now is the "how": learning from each other and balancing different interests," says Christina Jönsson at RISE.

The new legislation mandates development across numerous industrial sectors.

"We are still largely waiting for the 'how' to be put in place," says Christina Jönsson, Senior Researcher and Vice President at RISE. "The path to realizing these ambitions is not yet carved out, but we already know that this will affect strategic projects, require more efficient permit processes, and impact several industries."

Increased clarity on the origin

Industrial firms across multiple sectors may henceforth need to clearly disclose the origin of materials in their products. These requirements already align with other EU regulations, like the ecodesign directive and the batteries regulation. Raw material suppliers will be directly impacted, whether they are mining companies or companies in the recycling sector, as they are expected to substantially increase their raw material contributions compared to current levels.

"We are unsure whether there will be requirements to extract specific metals and minerals when managing streams containing them. Hypothetically, picking up iron from the ground might require managing other identified critical metals, possibly with various support systems to ensure economic feasibility. That is one potential approach to achieving the ambition: To gain access to secondary material streams that would otherwise end up in landfills." 

More efficient permit processes

Christina Jönsson points out that that these hypothetical requirements could be regulated within the permit processes.

"Everyone agrees that the permit processes need to be faster. We already know that we have access to pretty much all the material needed for transformation and electrification. All we have to do is to increase the extraction rate, and not waste years on complex processes. One possible approach could be national administration, or a national task force with the right expertise supporting the county administrative boards."

Faster processes do not necessarily mean that the environmental issues associated with extraction are overlooked, states Christina Jönsson. Rather, it's about clearly addressing the conflicts of interest and making decisions. 

"It's about balancing competing interests against one another. Would it, for example, be okay with increased local emissions into the water, if it leads to reducing the use of fossil fuels with global implications? We have to be able to make those kinds of trade-offs.

Recycled raw material accounts for only one percent

In Sweden, battery production is now growing into a major industry. Therefore, there should have been foresight regarding the need to supply the industry with sustainable raw materials, Christina Jönsson argues.

"Extraction in Sweden has two major advantages. Firstly, that we can extract with greater sustainability, environmentally and socially. Secondly, that we have access to several metals and minerals that are lacking elsewhere."

Wind power, solar energy, hydropower, electrification, batteries – all these sectors require critical metals

At the same time, the recycling rate must increase. The proportion of recycled raw material in production is less than one percent. Christina Jönsson emphasizes the need for industries, which currently vary significantly, to learn from each other.

"The mining industry's knowledge of primary raw materials is needed. The recycling required relies on fairly knowledge-intensive chemical expertise, partly found in the mining sector today. The operators should be capable of transforming some of their operations through modest knowledge transfer. When initiating new extraction, it's crucial to adapt the entire process – from extraction to product – to manage various streams beyond virgin materials. This approach enables the development of systems capable of handling circular flows right from the start!"

"RISE can contribute through research and innovation, by convening stakeholders, engaging in skill transfer, and providing facilities for testing and demonstration. We also review standardization and requirements: for example, when should the same requirements be applied regardless of the material used, and when can different requirements be applied if it allows for greater use of recycled materials? These are the types of questions we can assist in answering.

The challenge can be overcome

All in all, Christina Jönsson is optimistic. She argues that we have long known what needs to be done, but it is only now that things have started to move sufficiently.

"For a long time, there have been lists of critical metals and minerals, and with the altered security situation in Europe, several strategic needs have been brought to light. However, it is the necessity of transition that ensures what we have long known needs to be done is finally being accomplished. Wind power, solar energy, hydropower, electrification, batteries – all these sectors require critical metals, which are largely available underground and even more extensively utilized around us. Clearly, this challenge is achievable."

Critical Raw Materials Act legislation throughout the union

Since May 23, 2024, the EU's Critical Raw Materials Acts have been enforced as legislation across the entire union. There are 28 metals and minerals classified as particularly critical. Within six years, EU countries must domestically extract at least 10 percent of these materials, account for 40 percent of their processing, and significantly increase recycling compared to current levels. Dependency on individual countries should be reduced, with no more than 65 percent of imports coming from any single country.

As of now, Sweden only meets the requirements for one metal on the list—copper. Meeting the criteria for all other materials will require collaborative efforts among industry, authorities, and policymakers.

Christina Jönsson

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Composites Sekundär områdes navigation:
Circular transition
Energy and electrification
Chemistry

Student Competition NEB Design Challenge resulting in creative designs

New European Bauhaus Competition mingle Photo: Malin Grönborg

The New European Bauhaus (NEB) is an initiative by the EU Commission that aims to harness the potential in culture and the creative sectors of architecture, art, and design to ramp up climate action efforts. Ursula von der Leyen, President of the European Commission, has stated that “If the European Green Deal has a soul, then it is the New European Bauhaus, which has led to an explosion of creativity across our Union.”

In 2023, RISE was entrusted by the Nordic Council of Ministers to coordinate a student competition to inspire, educate, and allow transdisciplinary student teams in the Nordic countries. The competition task was to co-create design ideas based on the overall vision of the New European Bauhaus and its three core values: Beautiful, Inclusive, and Sustainable.

The competition 2024 - solutions for the reuse of four sites

In the spring of 2024, student teams took on the challenge of designing innovative and creative solutions for the adaptive reuse of four sites: Kvarteret Hammaren in Umeå (Sweden), Verksgata 54 in Stavanger (Norway), a military area in Kuopio (Finland), and Gadehavegaard in Høje-Taastrup (Denmark). A common goal for the property owners of these sites was to investigate the possibilities of transformation instead of demolition and redevelopment.

The competition was divided into two phases. The first phase was open for all student teams to present design ideas for one of the competition’s four sites. Almost a hundred students from Nordic universities submitted 29 design proposals, and 12 proposals were selected to be further developed and refined in phase two according to the jury’s instructions. During the award ceremony in Umeå on May 30th at Umeå School of Architecture, a team was crowned the winner for each site.

Image: Malin Grönborg
  • Kvarteret Hammaren in Umeå, Sweden 
  • Winner: Intertwining narratives by Malin Dybeck, Molly Myrsten, and Sophie Sjöberg, Lund University, Sweden. 
  • Military Area in Kuopio, Finland
  • Winner: Resilience of togetherness by Veera Annala and Annika Annala, Aalto University, Finland. 
  • Verksgata 54 in Stavanger, Norway
  • Winner: Fjordnest by Albina Lampa and Isabelle Olsson, Chalmers Institute of Technology, Sweden.
  • Gadehavegaard in Høje Taastrup, Denmark
  • Winner: Again and Again by Nils Österberg and Adam Sävhage, KTH Royal Institute of Technology, Sweden.e.

The NEB Design Challenge serves as one example of RISE's involvement in the New European Bauhaus initiative. Find out more projects and initiatives about it:

•    New European Bauhaus - En grön samhällsutveckling byggd på mångfald och inkludering (in Swedish)
•    Stor satsning på Sveriges kompetens inom träbyggande och cirkulärt byggande (in Swedish)

The Design Challenge was organized by the Nordic Council of Ministers, Nordic Carbon Neutral Bauhaus, Finnish Ministry of Environment, and the Research Institute of Sweden in collaboration with Architects Sweden.

Jury assessment

The jury, consisting of Camilla Berggren-Tarrodi (RISE), Marlene Johansson (RISE), Ambra Trotto (EIT Culture & Creativity), Maja Westman (Kvarteret Konstruktörer), and Patrik Karlsson Ryberg (RISE), appreciated that the students’ proposals spanned the full spectrum of architectural intervention, from new imaginative functions within existing buildings, through careful readaptations, to large-scale transformations.
 

Among the many competition entries, the winning teams’ creative and empathetic design proposals serve as models for more sites with similar prerequisites than those in the competition, and as inspiration with great relevance for the entire construction industry. Also, in times of great uncertainties in the world, the competition's design proposals convincingly demonstrate how communities can strengthen society through architecture.

To enable positive societal transformation and achieve the goals of the Green Deal, all the core values of the New European Bauhaus remain central, and continued efforts are required from students, professionals, and policymakers. 

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