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What role will biomass have in future energy systems?

Bioplant

The use of biomass has become a controversial issue in the debate about future energy systems. Some regard it as essential for the green transition. However, others warn of the negative effects of using forest residues for energy purposes. So, what do two researchers specialising in energy systems analysis have to say on the matter?

The Swedish Environmental Protection Agency states that increased use of sustainably produced biofuels will play a key role in Sweden's transition to net zero emissions. However, there are growing concerns that using biomass, particularly forest raw materials, as an energy source is affecting biodiversity.

"Biomass in the form of forest residues is an important raw material for renewable energy, particularly in the EU, where it accounts for a significant proportion of renewable energy usage. However, we need to find new, more efficient ways of utilising these residues,” says Karin Pettersson, an energy systems researcher at RISE who specialises in the role of biomass in the transition.

She continues:

"There are several ways to increase the use of bound carbon in biomass that would otherwise be emitted. One approach is to address point emissions and address them through bio-CCS, whereby carbon dioxide is captured and stored permanently to create negative emissions. Another option is to convert biomass or captured biogenic carbon dioxide, along with hydrogen gas, into products such as fuels or chemicals."

High demand in the aviation and maritime sectors

The EU's Green Deal initiative aims to achieve climate neutrality by 2050. In this plan, biomass is assigned several functions, ranging from ensuring energy security to limiting climate change. However, biomass is a limited resource. Using residual products more efficiently is one solution, as is prioritising the use of biomass where it will be most effective.

"It's all about identifying where there is a long-term need for green carbon atoms. This includes the aviation sector, among others. Looking at scenarios up to 2050, electrification will only be able to phase out a small proportion of aviation sector emissions,” explains Karin Pettersson.

Other sectors where biomass will be needed in the future include shipping and the chemical industry, where it serves as a sustainable source of carbon for new chemicals and materials. As mentioned above, there is also a need to store carbon in order to achieve net-zero emissions, since eliminating some emissions is difficult and expensive. In the long term, we will even need to achieve net-negative emissions if we are to limit global warming in accordance with the Paris Agreement.

"The question 'What should biomass be used for?' is ultimately a societal issue. However, research can provide analyses of conflicting goals and opportunity costs for different priorities," says Markus Millinger of RISE, who conducts research in energy systems analysis with a focus on energy system modelling.

In a research study published in the journal Nature Energy, Millinger found that, in the long term, the value of carbon atoms from biomass exceeds the value of the energy they contribute. The location of biomass within the energy system is not as important, provided the carbon atoms are utilised and can be reused.

I believe that the more sustainable biomass we agree to use, the easier the energy transition will be.

“Is it possible to remove biomass from the energy system?”

'We will need green carbon atoms in the sectors we have mentioned, and we can say with some certainty that we will need to generate negative emissions," says Markus Millinger, continuing:

"The more sustainable biomass we agree to use, the easier the energy transition will be. However, the market alone will not be able to solve this; new regulations and policies will be required at both the national and European levels.”

"Responsibility to share insights"

At RISE, the issue of biomass's place in the future energy system is being approached from many angles. Researchers and experts are investigating the role of biomass in Sweden and Europe over time, developing cutting-edge technology and testing research results and innovations in demonstration and testing environments. RISE also supports companies in developing and scaling up technology for converting biomass and carbon dioxide into products such as chemicals, fuels and materials, which contribute to climate benefits, job creation and economic growth.

"Biomass is a multifaceted subject that often arouses strong feelings. As researchers, we must avoid that in order to describe the system objectively. We also have a responsibility to share our knowledge and insights with all decision-makers in the energy system and biomass sector,” says Markus Millinger.

What are green carbon atoms, CCS and energy system analysis really?

The terms "green", "renewable" and "sustainable" are used to describe carbon atoms from sustainable biomass, captured biogenic carbon dioxide, and carbon dioxide captured from the air. They also describe circularly recycled non-fossil carbon from waste and industrial process streams.

Biogenic carbon dioxide is part of nature's short cycle and originates mainly from the respiration of plants and animals, the decomposition of organic material, or the combustion of biomass.

CCS stands for carbon capture and storage, i.e. the separation and storage of carbon dioxide.

Bio-CCS is employed when carbon dioxide of biogenic origin is captured and stored in order to achieve negative emissions.

Energy system analysis is a method of investigating, modelling and evaluating energy flows, resources and technologies within a society's energy system. The aim is to understand how different parts of the system interact, and analyse cost-effective system solutions and conflicting energy supply goals.

Karin Pettersson

Forskare
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Power production Sekundär områdes navigation: Circular transition

PLANTOMYC - A sustainable leap in alternative protein innovation

PLANTOMYC
Plantomyc

With increasing demands for sustainability and reduced environmental impact, innovative solutions for alternative proteins are essential. The PLANTOMYC project brings together plant and fungal proteins, using mycelial protein biomass (MPB) to develop nutritious, tasty and minimally processed meat substitutes.

Koordinator
Active
Bioeconomy Biorefinery
Region Västernorrland
4 år
Division: Division Bioeconomy

Alternative proteins on the plate are becoming more common. Using advanced fermentation techniques, the PLANTOMYC project aims to recycle by-products such as starch-rich pea protein residues into meat substitutes to provide breakthrough solutions for the sustainable food of the future. This near-zero waste approach not only reduces waste, but also generates value-added products such as flavour-enhancing ingredients and functional beverages from the fermentation process. These will undergo extensive evaluation to assess their nutritional benefits, functional properties and sensory appeal. By increasing the technology readiness level (TRL) with the support of industrial partners, PLANTOMYC aims to strengthen Europe's competitiveness in the global market for alternative proteins. The project thus paves the way for a sustainable and innovative future in food production.

Optimising the production of alternative proteins

PLANTOMYC aims to address the major environmental and consumer challenges in the alternative protein market. Through innovative solutions, the project aims to increase consumer acceptance of alternative protein sources and strengthen the sustainability of food production through the following initiatives:

  • Valorizing food industry residues: Utilizing Brewers Spent Grains (BSG) and Pea Protein Isolates Byproducts (PPIB) as substrates for fermentation, promoting circularity within the sector.
  • Developing functional ingredients: Transforming fermentation broth into value-added products, such as flavor-enhancing ingredients or functional beverages.
  • Moving toward clean labels: Creating minimally processed, nutritious products that align with clean-label trends in food production.

With this holistic approach, PLANTOMYC is helping to shape the sustainable food system of the future.

RISE role and mission

RISE is coordinating the project, which combines state-of-the-art fermentation technology, circular resource use and consumer-oriented product development to optimise the production of alternative protein sources by combining pea protein isolate (PPI) and MPB. RISE's expertise in fungal biotechnology includes screening, fermentation and optimisation of mycelial protein biomass (MPB) production using recycled by-products such as pea protein starch. Work is also carried out to assess the techno-economic feasibility of our innovations.

The work will be carried out at RISE's modern research facilities in both Örnsköldsvik and Gothenburg, which are part of the Bioeconomy Arena.

Vaskar Mukherjee

Principal Scientist
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Abhishek Bhattacharya

Senior Researcher
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2. Zero hunger
3. Good health and well-being
8. Decent work and economic growth
9. Industry, innovation and infrastructure
12. Responsible consumption and production
15. Life on land
17. Partnerships for the goals
Project end date: Offer-pages: Bioeconomy Arena: test and scale up bio-based solutions with RISE Food Sekundär områdes navigation:
Circular transition
Production and manufacturing
Biotechnology
Biobased circular processes

Mistra Co-Creating better blue (C2B2)

Mistra Co-Creating better blue (C2B2)
Mistra C2B2

Fishermen, offshore wind power, the defense, transport vessels and more – many quite different activities focus on the Swedish sea basins. For the blue economy to function in a sustainable way, stakeholders in the field need to be able to cooperate and coexist, and also agree on a common overall perspective.

Leads work package Open, data-driven innovation & emerging technologies, and leads LivingLab Väst.
Active
Not applicable
Not applicable
2027-08-31
50 million SEK, plus 10 million SEK co-financing from stakeholders.
Division: Division Safety and Transport

The Mistra Co-creating Better Blue (C2B2) research program covers a broad spectrum where academia, business, authorities and civil society are involved. Within C2B2, different stakeholders will jointly formulate what a sustainable marine environment that benefits everyone can look like – and where the result depends on each being able to put aside a more narrow-minded focus on their own advantages

The work is based on relevant research and is carried out interdisciplinary in a number of work packages: 1) ecosystems and climate, 2) data-driven innovation and new technology, and 3) governance and adaptive management.

In addition, there are three LivingLabs, focusing on the Gulf of Bothnia, the Baltic Sea Proper and the Kattegat-Skagerrak. Those with interests in the Swedish sea basins who choose to participate in LivingLabs, do it to share their different perspectives on a sustainable blue economy in discussions and workshops.

C2B2 also runs its own communications activities with both internal and external focus. The work in the different packages takes place closely together with eleven different partners who all contribute expertise in research and technology.

In addition, there are the stakeholders, more than 20 organizations from different sectors, who all have at least one foot in the blue economy.

The research program lasts four years and has funding of SEK 50 million from the Mistra research foundation.

Jessica Hjerpe Olausson

Enhetschef
+46 70 080 60 18 Read more about Jessica
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Dusan Petrovic

Projektledare
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14. Life below water
University of Gothenburg RISE Research Institutes of Sweden Chalmers Marine Environment Institute Umeå University Chalmers Industrial Technology Stockholm Environment Institute Swedish National Data Service Stockholm University IVL Swedish Environmental Institute IHE Delft Institute of Water Education
Project end date: Maritime Sekundär områdes navigation:
Circular transition
Power production
Data Science

From debt to innovation: New perspectives offer solutions to climate change

 People on the move on the street in an urban environment

Climate change has long been characterised by reactive thinking and blame. But meeting the challenges of the future requires a new perspective that puts human needs and innovation at the center. – Businesses and cities should see climate change not as a blame game, but as an opportunity to innovate, says Dennis Pamlin, innovation expert at RISE.

Hur kan vi hjälpa dig?

Är du nyfiken på hur ditt företag kan samarbeta med andra aktörer för att skapa hållbara lösningar på mänskliga behov? Kontakta oss genom att fylla i formuläret:

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Ever since the Kyoto Protocol was signed in 1997 and the world's nations agreed to reduce emissions by 5.2 percent, the climate issue has largely been about one thing: meeting targets by optimising existing systems. 

The issue was, and in many cases still is, reactive and blame-driven. Dennis Pamlin describes this as a static problem perspective.

– It assumes the world is the way it is. We have talked so much about the urgent that we forget that the world is changing very rapidly, he says, adding: 

– At the same time, climate leadership has become almost a matter of creative accounting. The sustainability world has created its compliance-driven ecosystem of offsetting and reporting. You want to be able to say you are doing a lot.

Mission Innovation to accelerate green innovation and development

During COP21, as part of the 2015 Paris Agreement, 20 of the world's leading economies launched Mission Innovation – an initiative to accelerate innovation and development in green energy and new technologies.

– That is when something exciting happened. We said we're going to let go of the old perspective, we're not going to look backwards, we're going to look at innovations that drive development forward, says Dennis Pamlin.

But changing the perspective has proven easier said than done. – A lot of people are a little shocked at first when you say we should not focus on reducing emissions. They think you're a climate denier or crazy, Dennis Pamlin says with a laugh. – Of course we need to continue to reduce emissions in many places. But what we are saying is that you should shift your focus to human needs. We cannot have companies and cities looking at climate as a liability issue, they should be looking at it as an innovation issue that drives their business.

We cannot have companies and cities looking at climate as a liability issue, they should be looking at it as an innovation issue that drives their business.

A paradigm shift in sustainability

There is a paradigm shift in sustainability with the expanding innovation agenda at its centre.

– Instead of trying to create a less bad version of our current society, we want to push forward and make the world a better place. That's Mission Innovation, to try to think in new ways, to be passionate about how you can help create tomorrow instead of feeling guilty about the past, says Dennis Pamlin.

For example, instead of just electrifying the car fleet and continuing to build cities around cars, we should focus on smart urban planning that encourages cycling, walking and new solutions – Imagine a world where a drone delivers medicine directly to your home, instead of you being stuck in a queue to pick it up. These are the kinds of solutions that not only simplify people's lives but also reduce resource use, says Dennis Pamlin.

Tools measure positive effects of innovations

Within the framework of Mission Innovation, RISE has taken on a role as a leading international partner for climate innovations. RISE is leading the work on Net-Zero Compatible Innovations, with Dennis Pamlin as executive director. They have developed a tool that measures the positive effects of innovations – not just for specific businesses, but for humanity as a whole. 

– Sweden is often seen as a country of innovation, but what do we actually measure? The number of patents or educational programmes is not everything. Measuring how innovations improve society is harder than measuring marginal improvements on a car, but we need new indicators to see how we are making the world better. To succeed, we need to collaborate more and create structures that steer us in the right direction – even without perfect data, says Dennis Pamlin.

RISE plays a key role as a catalyst for climate innovation by combining technical expertise with national and international collaboration. Through partnerships with cities, startups and global networks, the institute also connects actors.

– We have developed tools to help actors identify their strengths and weaknesses, with a focus on linking human needs, solutions and export opportunities," says Dennis Pamlin.

Cities and companies can use the tool to analyse their needs and resources to create conditions for sustainable cooperation and long-term development. From mapping stakeholders and resources to identifying common goals and initiating collaborations that strengthen both local solutions and global opportunities, the tool makes it easier.

Creating collaborations for new types of solutions

For example, a city may identify a problem but lack insight into what solutions exist. At the same time, there may be start-ups in the same city that have developed relevant solutions but have not focused on those needs.

– By creating partnerships between these actors and also involving export actors, we can not only solve local problems, but also give startups the opportunity to spread their solutions internationally, says Dennis Pamlin.

Do you want to know how your company can work with others to create sustainable solutions to human needs? Contact innovationsagendan@ri.se or fill in the form below to book a workshop, consultancy or demonstration of the tool.

MISSION INNOVATION

Mission Innovation is a global, public and private initiative launched in November 2015 during the COP21 conference in Paris. It aims to accelerate innovation and investment in clean energy and sustainable solutions to meet global climate goals and reduce carbon emissions. The goal is to drive technological progress in the energy sector and support the transition to a sustainable energy future.

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Andreas Johansson

Chef strategisk forskning och affärsutveckling
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Climate adaptation Sekundär områdes navigation:
Circular transition
Innovation management
Service innovation

Sustainable growth of Swedish aquaculture - today and tomorrow

Sustainability of Swedish aquaculture
.

Sweden imports most of the seafood it consumes. Many wild fish stocks are exploited at an unsustainable level, but aquaculture offers potential for increased seafood production. This project aims to analyze the environmental, social and economic sustainability of Sweden's aquaculture production today, and investigate potential future scenarios.

Projektledning, hållbarhets analyser och kommunikation
Active
Bioeconomy
Not applicable
2 år
Division: Division Bioeconomy

In this project Swedish aquaculture will be analyzed using the three pillars of sustainability; environmental, economic and social sustainability . The analysis will include the most important species for food production: rainbow trout, char, tilapia, clarias and mussels.  

Environmental sustainability

Life Cycle Assessment (LCA) will be the main method to quantitatively evaluate the environmental impact (climate impact and eutrophication potential) of the main production species in Swedish aquaculture. However, LCA has limitations and is most useful for calculating environmental impacts on a larger geographical scale, therefore this method will be complemented and integrated with additional analyses. As a complement to LCA, environmental data will be collected from aquaculture farms to enable modeling of eutrophication potential linked to Swedish aquaculture at local and regional level.

Economic and social sustainability

In addition to environmental sustainability, economic and social sustainability will be analyzed using social life cycle assessment (SLCA) and a mapping and analysis of the market potential for the Swedish market of domestic seafood from the producer and trade perspective.

Future scenarios

Once a baseline of current production is established, sustainability analyses will be carried out of a number of realistic future scenarios (e.g. increased production with existing or new technology, increased land-based production, different feed composition, etc.) Results will support companies, authorities and other decision makers in leading the aquaculture industry to sustainable growth.

Communication and dissemination of results

The knowledge and results generated from the sustainability analyses will be communicated widely on several occasions. Partly in writing on this website, in scientific reports and a popular science report in Swedish, partly orally at a workshop with the industry, podcast, and at an open seminar, and presented at a relevant conference or equivalent.

 

The project is partly financed with EU funds from the European Maritime, Fisheries and Aquaculture Fund (Havs-, fiskeri- och vattenbruksprogrammet - Jordbruksverket.se).  
 

Markus Langeland

Forskare
+46 10 516 66 35 Read more about Markus
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Yannic Wocken

Projektledare
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6. Clean water and sanitation
12. Responsible consumption and production
14. Life below water
15. Life on land
Projekt logo: EU logo Funders without URL: Europeiska Unionen (EU) - Project end date: Agriculture Sekundär områdes navigation:
Circular transition
Health and life science
Agriculture

Green Carbon Black

Green Carbon Black
Green carbon black

Carbon black is one of the world's most widely used carbon-based chemicals. The main objective of this project is to take a holistic approach and investigate the entire value chain from raw materials to economic calculations and quality testing of the end product, bio-based carbon black.

Koordinator
Completed
Biorefinery
Region Norrbotten
4 år
3 MSEK
Division: Division Bioeconomy

Carbon black is one of the world's most widely used carbon-based chemicals. Carbon black can be simply described as a fine powder of carbon formed during the incomplete combustion of organic materials. Carbon black is used, among other things, for paints and printing inks, but above all as an additive in car tires and other industrial products. Today, carbon black is produced from heavy, fossil-based fuels, which leads to large emissions of fossil greenhouse gases.

The main objective of this project is to take a holistic approach and investigate the entire value chain from raw materials to economic calculations and quality testing of the end product, bio-based carbon black. The first step in the proposed project is to investigate how different renewable raw materials (for example, wood powder, pyrolysis oil and upgraded pyrolysis oil) affect the yield of carbon black and its material properties. Based on the material properties of carbon black, suitable areas of use are evaluated, while techno-economic calculations across the entire value chain provide the answer to the most suitable alternative(s).

Henrik Wiinikka

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Project end date: Sekundär områdes navigation:
Circular transition
Biobased materials
Chemical products and processes

ABATE, turning biomass into green fuel

ABATE
Turning biomass into green fuel

The ABATE project aims to demonstrate the integration of thermochemical and biochemical processes to convert biomass residues into advanced bio-based refinery intermediates for sustainable transportation fuels.

Participants, work package leader
Active
Bioeconomy
Region Norrbotten
4 years
9 057 775 EURO
Division: Division Bioeconomy

Achieving the EU targets for climate neutrality and circular economy will require scaling up and de-risking of novel technologies. When it comes to advanced biofuels, it is essential to demonstrate sustainable, climate-neutral, resource efficient and cost-effective value chains, to accelerate industry mobilisation and enable commercialisation by 2030. Commercially available thermochemical technologies are currently limited either by increased process costs and energy requirements or the availability of raw materials. 

The ABATE project aims to demonstrate the integration of thermochemical and biochemical technologies to valorise residual biomass into cost-competitive, carbon-neutral advanced bio-based intermediates, which will directly substitute fossil fuel hydrocarbons in conventional oil refineries. The ABATE consortium will build on existing research conducted in the Horizon 2020 BioMates project which validated at TRL5 a two-step valorisation process for lignocellulosic biomass. This creates a strong basis for further technology scale-up and demonstration in ABATE.  

The first step of the ABATE technology involves feedstock flexible – including ash-rich feedstock – pyrolysis to produce bio-oil and biochar. The second step of the ABATE technology involves stabilising the fast pyrolysis bio-oil into an ABATE (advanced bio-based refinery intermediate), via a single hydrotreating step enabled by a novel catalytic system. The ABATE intermediates will be carbon neutral to carbon negative, enabled by an ionic-liquid-based carbon capture and utilisation (CCU) system and the agronomic valorisation of biochar as an alternative to combustion. The stabilisation process will be efficiently integrated with green hydrogen production and biological CCU through biomethanisation. ABATEs can be directly fed into conventional refinery plants, enabling the direct defossilisation of the refining sector as well as transportation fuels and chemicals.  

End use will be demonstrated via co-feeding with refinery intermediates rendering marine and aviation transport fuels, supported by feasibility and business plans. The ABATE project aims to scale-up and intensify the technology to achieve a greenhouse gas (GHG) emissions reduction of between 90%-120% at industrial scale. This will be done by optimising processes and integrating them with renewable energy components, thereby minimising fossil energy use.  

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9. Industry, innovation and infrastructure
Projekt logo: Abate logo Project end date: Fossil-free fuels Sekundär områdes navigation:
Circular transition
Power production
Mobility
Chemical products and processes

Microplastic analysis of fibres from textile materials

Name of service (page headline, shown in promos – maximum of 70 characters incl. spaces): Microplastic from textiles Lead (include SEO-words and the main benefits for your target groups. Stick to one paragraph, maximum 2-3 sentences):

We offer both qualitative and quantitative analysis of microfibres from textile sources, both synthetic (microplastic) and natural.

Purpose/Benefit:

Microplastics, particularly in the form of fibres, have become a persistent environmental concern. These minute threads, originating from synthetic textiles such as polyester and nylon, are often invisible to the naked eye. They have infiltrated our oceans, soils, and even the air we breathe, posing a significant threat to ecosystems and human health.

To tackle the microplastic issue, RISE has partnered up with various startups, washing machine manufacturers, and governmental bodies. 

We utilize established techniques for measuring fibre release and develop new methodologies tailored to specific purposes.

By assessing your production processes, we can propose measures to minimize environmental effects while preserving product quality.

 

Method (what/which methods are used to perform the service):
  • Analysis of microplastic release during lab-scale washing according to SS-EN ISO 4484-1:2023
  • Analysis of microplastic release during household washing machine cycles (In-house method)
  • Testing and development of various filter solutions for washing machines
  • Comparative studies of washing programs, filter solutions, or washing machines
  • Gravimetric and/or microscopic analysis as per your requirements
Delivery (what does the client get after performed service – e.g. a report, certificate etc.):

Written report in Swedish or English with obtained results.

Area: Textile Contact person (Enter one name per field. Activated personal contact pages will appear automatically):
Carina Berglund, Forskare
Anne-Charlotte Hanning, Projektledare
Microplastic fragment from fleece fabric
Field measurements: No Price type: 1 Division: Division Materials and Industry Preparation: No preparation required Standards:

SS-EN ISO 4484-1:2023

In-house methods

OEKO-TEX® STANDARD 201 M-47 & ML-47– Glitter fastness

Certification and marking: Not applicable Type of service: Testing / Analysis / Evaluation Instrument: Not applicable General area: Not applicable Delivery level: Not applicable
carina.berglund@ri.se,anne-charlotte.hanning@ri.se
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Textiles Sekundär områdes navigation:
Circular transition
Metrology
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Chemical and biological analysis
Tjänstetyp tagg: Provning

Circular road infrastructure

Circular road infrastructure
Project meeting

Starting from bio-based and circular raw materials, tomorrow's asphalt is developed.

Coordinator
Active
Circular transition
2 years
Division: Division Bioeconomy

The project includes material flows from biomass as well as recycled components from tires. The aim is to create sustainable asphalt materials with a reduced proportion of fossil binders and optimized technical performance. The goal is a reduced climate footprint, a good working environment, good air quality and safe pavements for cyclists and pedestrians.

Viveca Wallqvist

Senior Forskare
+46 10 516 60 76 Read more about Viveca
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Project end date: Infrastructure Sekundär områdes navigation:
Circular transition
Mobility
Biobased materials