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The role of industry for sustainable water in 2050

Sustainable industrial water 2050
Industrial use of water in the future

We explored how industry's water use contributes to Water Wise societies (WWS) mission of Sustainable water for all 2050. As a result, the challenge with industry's sustainable water use was described, key actors identified and future scenarios, prioritized system movements and proposals for efforts in next stage of WWS was drawn up.

Coordinator
Completed
Water
2024-2025
Division: Division Bioeconomy

Industry is the Swedish social sector that uses the most water, around two-thirds of total water use. Swedish industry has higher consumption than the corresponding companies in southern Europe and there is a good opportunity for efficiency gains.

Despite this, both society and industry lack focus on industrial water use in Sweden. With more conscious water management, industries can, themselves and in cooperation with other actors, reduce environmental impact, ensure socially important water supply, improve process performance and reduce costs.

The project contributed to global competitiveness by supporting Swedish industry to increased resource efficiency, sustainable transition and increased resilience. The project was led by RISE with participating actors from industry, VA organisations, municipalities and regions, as well as authorities.

In cooperation, the project group:

  • Identified and involved more key players, also internationally
  • Used foresight methodology to define future scenarios for how industry's water use develops and interacts with society
  • Produced prioritized system moves
  • Identified interventions in the next stage of WWS to optimize industrial water management
     

 

Do you and your company/organization want to contribute to future work with sustainable industrial water of the future? Please contact the project coordinator!

Lina Lindahl

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Lars Hamberg

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2. Zero hunger
3. Good health and well-being
6. Clean water and sanitation
9. Industry, innovation and infrastructure
11. Sustainable cities and communities
Project end date: Water Sekundär områdes navigation:
Production and manufacturing
Circular transition
Resource-efficient cities
Climate adaptation

NEXTBAT

NEXTBAT
NEXTBAT

Next generation technologies for battery systems in transport electrification based on novel design approach to increase performance and reduce carbon footprint.

Project Manager RISE
Active
Additive manufacturing Artificial intelligence Batteries Digital infrastructure Digitalisation Product safety
Not applicable
3,5 years
4,9 million Euro
Division: Division Bioeconomy
The NEXTBAT project is at the forefront of innovation, driving forward advancements in battery technology for a more sustainable future. In our latest video, we feature Anwar Ahniyaz a dedicated member of RISE working within Work Package 1 (WP1), who shares valuable insights into their role, achievements, and upcoming milestones in the project.

Green battery systems for transportation

The transportation sector is responsible for 25 % of European greenhouse gas emissions and faces challenges in decarbonisation. Electrification emerges as a potential solution, although current batteries and materials require improvement. The EU-funded NEXTBAT project aims to accelerate safe and sustainable electrification of transport and mobile applications within the EU by delivering next-generation technologies. To achieve this, the project will incorporate battery management systems at the cell and system unit levels to enhance battery life. 

Additionally, innovative electronic sensing and actuating systems will be integrated to further extend battery life, ultimately reducing the carbon footprint of battery systems. NEXTBAT’s main objectives are to establish reliable and innovative battery systems as well as to enhance recyclability and interoperability.

General Consortium Meeting: Advancing Battery Technology in Stockholm 19-20 Juni, 2024.

Anwar Ahniyaz

Senior Forskare
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7. Affordable and clean energy
8. Decent work and economic growth
9. Industry, innovation and infrastructure
11. Sustainable cities and communities
12. Responsible consumption and production
13. Climate action
16. Peace, justice and strong institutions
NEXTBAT Project Marks Milestone with First Review Meeting
Projekt logo: NEXTBAT logo Attach document: Project end date: Batteries Sekundär områdes navigation:
Circular transition
Electromobility
Mobility

SOURCE

SOURCE
Batterylab

RISE coordinates the project SOURCE which is a European funded initiative bringing together key industry partners to create sustainable solutions for producing battery-grade synthetic graphite.

Coordinator
Active
Batteries Circular transition Electromobility Energy Material transition
Not applicable
4,3 years (active months 36, but with frozen time due to amendments then 52 months indeed)
6,8 millon Euro
Division: Division Bioeconomy
Image: Source project

SOURCE helps to accelerate the transition to a more sustainable and cost-effective battery supply chain. Sustainable rOUtes foR synthetiC graphitE production for high-performance lithium-ion battery anodes. 

By using alternative raw materials such as bio-waste, and recycled carbon sources, the project seeks to reduce dependence on petroleum-based resources while improving energy efficiency in the production process. 

The innovative solutions will be tested in industry-relevant prototypes, enabling rapid adoption across the industry to promote a cleaner, more sustainable battery supply chain. The key outcome of the SOURCE project is the development of environmentally and economically viable methods to produce battery-grade synthetic graphite. 

The project will introduce energy-efficient production processes, efficient recycling technologies, production of sustainable graphite from biomass, and the creation of high-performance battery grade anode materials. 

This will significantly reduce the reliance on petroleum-based coke for synthetic graphite production and strengthen the competitiveness of EU graphite suppliers and anode manufacturers in the global market.

The project members recognize the challenges of reducing the current dependence on petroleum-based coke, as well as the high energy consumption and production cost of graphite. As such, they have laid out specific objectives to address these challenges and improve the sustainability of the entire EU EV battery value chain.

  1. Optimisation of carbon precursors
  2. Pilot scale production of battery-grade synthetic graphite
  3. Pilot scale production and evaluation of anode materials in LiBs
  4. Economic and environmental sustainability assessment
The project has kicked-off! Our consortium gathered in Stockholm for our first annual meeting to connect, collaborate, and dive into the work packages and planned activities. The presentations sparked engaging discussions, setting the stage for a strong start.

Anwar Ahniyaz

Senior Forskare
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Natalia Anna Wojas

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6. Clean water and sanitation
7. Affordable and clean energy
9. Industry, innovation and infrastructure
11. Sustainable cities and communities
12. Responsible consumption and production
13. Climate action
Granode Materials AB (GRANODE)
Project end date: Batteries Sekundär områdes navigation:
Circular transition
Production and manufacturing
Biobased circular processes
Biobased materials

Exploring pathways to low-impact consumption futures

Area – Exnovation for sufficiency
Snowy tracks in a field

Sustainable design and circular innovations are often promoted as solutions to our unsustainable consumption. But what if the solution actually lies in removing, rather than inventing something new? This project explores how exnovation – the removal of something existing – can be used to reduce resource-intensive consumption.

Coordinator and project management
Active
Design
Region Stockholm Region Östergötland Västra Götaland Region
3 years
6 MSEK
Division: Division Digital Systems and Societal Transformation

Sufficiency is about reducing consumption while ensuring everyone has the opportunity for well-being. It is a central strategy for achieving climate goals. Today, the focus is often on promoting sustainable consumption through the introduction of innovations. But this risks missing the fact that unsustainable structures, policies, practices and products must also be phased out. This project therefore questions whether innovation – the introduction of something new – is the only path to sustainable consumption and instead explores how exnovation – the removal of something existing – can contribute to future consumption in line with climate goals.

In the project, we explore exnovation from a theoretical and practical perspective. Through literature reviews, we lay the foundation for a theoretical framework linking exnovation to sufficiency-oriented consumption. We then explore in practice how exnovation can contribute to sufficiency-oriented consumption futures at three different levels: in households, in organisations, and at the societal level. These investigations are conducted through interviews, focus groups, and field experiments. In this way, we learn how an exnovation mindset can be developed and applied at all three levels.

The insights from the project are summarised in various ways. We develop future scenarios and describe how actors at different levels can use exnovation to find pathways to such futures, which we call exnovation journeys. Through co-creation processes, we develop tools to support an exnovation mindset among actors at different levels. During the project, we disseminate the results in various ways, for example through scientific publications, presentations, seminars, and workshops where we co-create or test tools.

The project is led by RISE and carried out together with the Royal Institute of Technology (KTH). The project members consist of Sara Renström and Anneli Selvefors at RISE and Pernilla Hagbert, Camilla Andersson and Karin Bradley at KTH.

Are you curious about exnovation?

Do you want to stay updated on the project? Would you like to be invited to presentations, seminars, focus groups, workshops, or other activities? Would you like to participate in exnovation experiments? May we interview you? Or would you like to collaborate in some other way? Then you can sign up for our contact list via the turquoise button above to the right. You can also contact the project leader, Sara Renström.

Sara Renström

Senior Forskare
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Anneli Selvefors

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12. Responsible consumption and production
Information on the processing of personal data relating to the contact list (In Swedish)
Attach document: Project end date: Circular transition Sekundär områdes navigation: Service innovation

Collaboration key as northern Sweden takes the lead in green transition

Urban environment in Luleå on a sunny day

Cities rank high in quality of life surveys. Unemployment is low and access to higher education is good. At the same time, they have renewable energy, metals and minerals that are crucial to the development of green technology. It's all about the north of Sweden, of course. Several top politicians have described it as a "shop window to the world" when it comes to industrial change. But it's not just the industry that needs to develop, society also needs to keep pace. To achieve this, the region must act as one, with combined forces.

It is now well known that there are resources in north that Sweden and Europe need in order to transform. Both large and small companies have chosen to locate in the area. One example is the defence industry in Örnsköldsvik, which is developing rapidly.

A regional resource that is not so often highlighted in this context is the strong social capital. This is the view of Jonas Joelsson, Research and Business developer at RISE in Umeå. 

– The region holds the keys to the development that the whole of Europe needs to make. It is certainly about natural resources in the form of green energy, forests, clean water and minerals, but it is also about the social capital. There is a high level of trust in the system among residents, and when there is a list of the best places to live in Sweden, all the cities in northern Sweden are in top 15, he says: 

– At a time when social divisions and polarisation are major problems, it is a great advantage to be able to build on the trust that exists in Sweden and especially in the north. The social fabric is a European issue. In building sustainable, inclusive and attractive cities, wherever they are, the cultural and social sectors play an important role in creating attractiveness and cohesion.

The region holds the keys to the development that the whole of Europe needs to make. It is certainly about natural resources in the form of green energy, forests, clean water and minerals, but it is also about the social capital.

Jonas Joelsson

"A virtual million city"

The North Sweden European Office, an association of regional actors in Norrbotten, Västerbotten, Jämtland Härjedalen and Västernorrland, describes how the region is considered part of the European Arctic with the most sparsely populated population structure in the EU – and at the same time has one of the strongest innovation systems in the Union, with an attractive urban environment. 

– I like to describe our region as a European systems demonstrator or mega testbed. The region as a whole has a current population of 900,000, and there has been talk of an increase of 100,000 in the context of the initiatives. That is a total of one million people, a virtual million city, you might say. The view of northern Sweden as a single entity gives the actors here more peace of mind and security in the face of change, says Albert Edman, Senior Project Manager at RISE in Umeå.

Individually, cities and municipalities would struggle to implement the infrastructure projects needed to keep the green industrialisation wave going, but together – united as a virtual city of millions - there is a completely different capacity.

RISE has taken on the role of facilitator and platform builder in northern Sweden to make it easier for public and private actors to work together and make joint decisions.  

Common strategy sets the framework for the future

A concrete example of "million city thinking" in action is "Thriving Northern Cities", where Luleå, Umeå, Örnsköldsvik, Östersund and Sundsvall have worked together to develop a strategy for sustainable urban development in the participating cities and in northern Sweden as a whole. One of the strategic goals is to build resource-efficient, climate-friendly and attractive buildings in order to attract people and, not least, investors who are committed to sustainable development.

Albert Edman gives an insight into what the discussions are about at the time of writing.

– In the past, the discussions were about attracting talents, but now the agenda is about retaining talents, i.e. keeping those who are already here. If jobs are lost in one of the larger companies, the region does not want to lose the people who have moved here from outside Europe. It is therefore crucial that other cities in the North are ready to receive and employ these talents as a city of millions.

Continuing to collaborate and mobilise around challenges such as talent retention is essential for sustainable urban development and as a crucial link in Europe's transformation.

– Adopting new ways of working and new knowledge is costly. It is much easier if you can do it effectively together. We are of course working with companies on technical development in detail, but the role of helping to create a structure for cooperation in the North is particularly important for the future, says Albert Edman.

RISE IN NORTHEN SWEDEN

RISE has a strong presence in Northern Sweden. The region is home to around 350 experts in a wide range of fields such as bio-economy, community development and AI/digitalisation. Examples of community development projects that RISE coordinates in the region include Thriving Northern Cities – northern cities lead the transition, Kreativa Norrland, Digital Impact North andThe North Star. 

Jonas Joelsson

Enhetschef
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Albert Edman

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Social sustainability in urban development Sekundär områdes navigation:
Circular transition
Innovation management
Built environment
Service innovation

INNOVATIVE CO-CREATION SOIL HEALTH LIVING LABs

iCOSHELLs
iCOSHELLs

iCOSHELLs addresses the EU's need for sustainable soil restoration through co-creative Living Labs that bring together researchers and stakeholders. The project develops scalable solutions and policy recommendations to enhance biodiversity, climate resilience, and a sustainable future for society and the environment.

Lead Coordinator
Active
Agriculture
Västra Götaland Region
1 September 2024 to 31 August 2028.
€ 11 999 872,50
Division: Division Bioeconomy

iCOSHELLs – Co-Creation for Healthy Soils in Europe

The Importance of Soil and EU Challenges
Soil is fundamental to all life on Earth, yet alarmingly, 60–70% of EU soils are considered unhealthy due to pollution, urbanization, and intensive agriculture, further exacerbated by climate change. This degradation leads to economic, societal, and environmental challenges, including reduced productivity, biodiversity loss, and deteriorating soil structure.

RISE’s Leading Role in iCOSHELLs
RISE Research Institutes of Sweden serves as the project’s Lead Coordinator and also spearheads the development of a Swedish Living Lab in Southern Sweden. This lab addresses soil health challenges linked to intensive agricultural land use, focusing on sustainable solutions for improved soil health.

A Contribution to EU’s “A Soil Deal for Europe”
iCOSHELLs is part of the EU Mission “A Soil Deal for Europe”, aiming to achieve healthy soils across Europe by 2030. The project contributes to three key objectives:

  • Reducing soil pollution and promoting restoration.
  • Enhancing soil structure and biodiversity.
  • Raising societal awareness and knowledge about soil health and its significance.

Innovative Living Labs Addressing Regional Challenges
The project encompasses six Living Labs across diverse European regions, tackling unique climatic and geographical challenges:

  • Southern and central Sweden: Solutions for soil health in agricultural systems.
  • Southeastern Spain (Murcia and Almería): Developing sustainable agriculture ecosystems.
  • The Basque Country (Spain/France): Improving soil structure in wetlands, semi-urban areas, and forest environments.
  • Western Macedonia (Greece): Restoring contaminated mining soils.
  • Northern Italy: Solutions for soil health in rural, urban, and semi-urban areas.
  • Plovdiv Region (Bulgaria): Addressing issues of reduced organic matter, poor soil structure, and biodiversity loss.

A Systematic Approach
iCOSHELLs employs a structured strategy to:

  • Build stakeholder capacity and bridge the gap between science and practical application.
  • Deepen understanding of soil indicators and enhance soil health through scalable methods.
  • Replicate effective soil restoration solutions across different regions.

The Future of Living Labs
The project challenges traditional models by anchoring Living Labs in co-creation, broad stakeholder engagement, and practical application. The vision is to develop standardized, globally recognized labs that serve as benchmarks for future Living Labs.

Sustainable Outcomes for the Future
iCOSHELLs promotes collaboration and knowledge-sharing by serving as a comprehensive soil health database and supporting policy development to ensure a sustainable future for agriculture and the environment.

Tora Råberg

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Nargish Parvin

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15. Life on land
Funders without URL: EU Horizon Project end date: Agriculture Sekundär områdes navigation:
Circular transition
Data Science
Biotechnology

Swedish Soil Health Living Lab

SWE LL
Canola field

The SWE LL is being initiated to address concerns of soil health through a bottom-up, co-creation approach within the Horizon project iCOSHELLS. Challenges such as soil compaction, poor soil structure, loss of soil biodiversity, depletion of organic matter, and nutrient imbalances causing subsequent pollution will be adressed within the project.

Koordinator
Active
Bioeconomy Agriculture
Region Dalarna Region Halland Region Jönköping County Region Kalmar County Region Skåne Region Västmanland Region Örebro län
4 years
Total project budget 12 milion Euros
Division: Division Bioeconomy

Challenges and objectives

The Swedish Living Lab addresses the challenges associated with soil health on crop and animal production farms. Its focus is on issues such as soil compaction, poor soil structure, reduced biodiversity, and nutrient imbalances, particularly phosphorus surplus. The objective of the project is to enhance soil health through the integration of collaborative research and practical implementation. A total of fifteen co-created test sites, in addition to one or two lighthouse farms, will be employed for the purposes of collaborative research and development. 

Solutions and goal

The potential solutions under consideration include crop rotations to enhance soil fertility and nitrogen delivery, cover cropping, conservation tillage, the use of lightweight autonomous tractors, controlled drainage, the replacement of mineral fertilisers with bio-based alternatives, biostimulants and biochar, as well as the sharing of manure between animal and crop farms. It is anticipated that the project will yield improved soil health, augmented farm productivity, and more sustainable agricultural practices.

Network

The Living Lab is led by the Department of Agriculture and Food of the Research Institutes of Sweden (RISE). Key stakeholders include research institutions, such as the Swedish University of Agricultural Sciences, as well as farmer representatives, such as HS Konsult and "The Farming in Balance" network, and relevant authorities, such as the National Board of Agriculture and the National Veterinary Authority. This multi-sectoral collaboration provides a platform for the development and testing of practical solutions. 

Martin Knicky

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Vide Rychel

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3. Good health and well-being
9. Industry, innovation and infrastructure
12. Responsible consumption and production
15. Life on land
Project end date: Agriculture Sekundär områdes navigation:
Circular transition
Biotechnology
Advanced electronics

BioSusTex - Towards Absolute Safe and Sustainable Biobased Textile

BioSusTex

The textile value chain involves a diverse range of materials, end users, and complex applications. Although there is a shift towards greater sustainability, progress is slow and requires more innovative technologies to address issues like low recycling rates, substitution of hazardous substances, and chemical pollutants.

Coordinator and research partner
Active
Material transition
4 years
3 999 853 Eur
Division: Division Materials and Industry

The project “Towards Safe and Sustainable Biobased Textiles” (BioSusTex) aims to demonstrate the rapid development of key technologies that will significantly impact the textile value chain. This need has been highlighted by key industrial partners within the consortium. BioSusTex focuses on cotton and cellulosic textiles, targeting increased recycling rates and the substitution of harmful compounds by:

  1. Delivering an optimized cellulosic fiber recycling process for dope-dyed man-made cellulosics.
  2. Developing efficient and sustainable pre-processing techniques for removing elastane, dyes, and impurities from post-consumer blended cellulosic textiles, while avoiding potential toxic degradation products during processing.
  3. Creating a biobased, PFAS-free water-repellent coating using an innovative methodology with temporary surfactants.
  4. Developing removable biobased, PVC-free print formulations.

Significant improvements in these key technologies, in line with the Safe and Sustainable-by-Design (SSbD) framework, are expected to notably enhance the sustainability of the textile value chain. Additionally, BioSusTex will provide technical solutions and address industry needs for rapid assessment methods by:

  1. Further developing analytical methods and prediction tools related to toxicity evaluation.
  2. Building a novel Decision Support software tool that implements the SSbD methodology.
  3. Creating a database compiling all the data generated in the project.

With this in mind, BioSusTex aims to pioneer key technologies to enhance the sustainability of the textile value chain. These efforts include optimising recycling of cellulosic fibres, developing sustainable pre-processing techniques, creating bio-based water-repellent coatings, and providing analytical methods and prediction tools for toxicity assessment. 

These initiatives are in line with the Safe and Sustainable-by-Design (SSbD) framework, designed to promote sustainable innovation within the textile industry.

Anna-Karin Hellström

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Adriana Angelaccio-Osbeck

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9. Industry, innovation and infrastructure
12. Responsible consumption and production
13. Climate action
Projekt logo: logo Project end date: Textiles Sekundär områdes navigation:
Circular transition
Biobased materials
Chemical products and processes

Growing the food of the future in a unique environment

Person eats with cutlery from plate with fish and vegetables

It's a downward spiral that needs to be broken: climate change is affecting the availability of food resources, while the world's population is growing. Our eating habits contribute to new greenhouse gas emissions that fuel climate change.
Does the solution lie in alternative foods?

Food production in the future is likely to look very different from today. Work is already underway to supplement conventional ingredients and animal products - with bacteria and fungi. 

"We need to find new types of food to replace environmentally unfriendly products, while ensuring long-term supply. It's all about using resources more efficiently to produce equivalent food for people," says Gunnar Westin, who is responsible for RISE's new food technology infrastructure for biotechnology in Örnsköldsvik.

His team works with microbial ingredients, which are microorganisms that either become part of a food or produce components for a food.

"Together with a customer, we can improve something they have tested on a smaller scale or develop something completely new. A common product in supermarkets today is soy protein in various forms, and our facility can test the production of similar foods but with different raw materials to make the process more sustainable," explains Gunnar Westin.

From waste to protein

So how does it work? Put simply, it involves growing micro-organisms such as fungi, yeasts and bacteria in a controlled environment. Fermentation tanks, where the temperature, pH and oxygen supply are controlled, is an example of such an environment.

The micro-organisms need a carbon source to grow and produce biomass (in this case, what eventually becomes food). The Örnsköldsvik plant uses carbon from agricultural and forestry waste streams, such as the cellulose found in sawdust. Biotechnological methods are used to break down the residues into sugars in particular, which can be consumed by microorganisms and converted into protein and other nutrients. 

The first projects to be launched at the Örnsköldsvik facility will involve the development of meat analogues (meat substitutes), plant-based cheeses and kefir.

"We can work with tens of thousands of micro-organisms in parallel. We can also scale up a process on a very large scale and produce several tonnes of material or ingredients. For example, to verify a new process or for a large-scale market test," says Gunnar Westin.

New food-grade environment strengthens RISE offering 

The fact that the facility in Örnsköldsvik is food-grade means that the products made there can be consumed by humans. This is an important factor for food companies that conduct tests with RISE to be able to use a taste panel and conduct market research.

"At RISE, we have expertise across the food chain, including sensory science, process development and product design. The investment in the new infrastructure is an important addition, giving us new opportunities to use our expertise in biotechnology and food to develop new products and technologies. For example, biotechnology allows us to develop new components that we think would work well in a meat analogue, but to turn it into a product that will be well received by the general public, further development steps are required," says Gunnar Westin. 

Getting a new product accepted by consumers is perhaps the biggest challenge in alternative food. 

"It's not enough for a food to be healthy, people have to choose it. Sometimes it's a matter of imitating something that many people like, sometimes it's a new type of product that we have to get used to," says Gunnar Westin. 

Paving the way for commercialisation

Another challenge is to create the right economic conditions. Today, the knowledge and capacity exists to produce almost anything, but consumers are not prepared to pay for such a process by choosing a vegan substitute that costs many times more than the traditional product.

"Where a lot of effort is required to produce a product, it is important that the process is efficient so that the required quantity is actually produced. And if we take a step back, we first need to identify which of the advances in alternative food research are relevant for actual implementation in society," says Gunnar Westin:

With my team's technical expertise in biotechnology and our research colleagues' expertise in food, together we can provide companies with answers as to whether a new idea is worth pursuing or not.

Gunnar Westin, RISE

"With my team's technical expertise in biotechnology and our research colleagues' expertise in food, together we can help companies decide whether or not a new idea is worth pursuing. It's very much about combining the experimental part with the economic modelling, so that you get figures on what a process could look like and what it would cost."

In the end, the companies have enough information to take an investor on the road to commercialisation. What started as a single-celled yeast could then end up in the shops as a meat analogue with an acceptable price tag. 

What are alternative foods?

Alternative foods are foods that can be used as a substitute for conventional ingredients and animal products. Examples include oat milk, which can replace cow's milk, and extruded pea protein, which can replace traditional meat products. In Örnsköldsvik, RISE uses micro-organisms and enzymes to produce proteins for food.

The aim of developing alternative foods is to reduce the impact on the climate, improve animal welfare and provide consumers with healthier or more allergy-friendly alternatives.

Gunnar Westin

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Biotechnology Sekundär områdes navigation:
Circular transition
Food
Biobased circular processes

Classifications of textile waste

ClassiTex

The textile industry is one of the most resource-intensive sectors in the world; every year 116 million tons of textiles are produced globally and large amounts end up as waste. This project will deep dive into an efficient classification system of textiles, that can enable the reuse and recycling of materials.

Koordinator
Completed
Textile
Not applicable
1 år
1,2 milj
Division: Division Materials and Industry
Image: RISE

Although the collection and recycling of textiles has increased, and will continue to increase, there are still major challenges in sorting and managing textile waste efficiently, in particular due to material mixtures and lack of advanced technological infrastructure. Several recycling technologies have come a long way, but a barrier to scaling up is the lack of raw material in large volumes. 

The demand for fibre to fibre recycled raw material is also still very low and there is scarce information to make realistic calculations and see the business case for switching to more recycled textiles in relation to virgin materials. There is a great need for a classification system that covers the most widely used and common fibre blends today and that can help to make the right decisions in product development and purchasing.  The project have focused on further development of a basic framework for assessing the recyclability of textile materials and products. This is a continuation of the Vinnova project Framework for Circular Textiles.

The project has created important synergies with other initiatives in textile recycling, especially where the need for harmonized classification and common data points has been central. Through workshops and close industry dialogues, new contacts have been established between sorters, recyclers, technology suppliers and within standardization work, which strengthens future collaborations and influences upcoming choices regarding recyclability and circular material flows. The work has also generated spinoff effects, including in the form of method development, in-depth environmental analysis and increased consensus on which quality indicators are needed in the next generation of recycling technologies.

The project's clear connection to European standardization work has further strengthened its relevance and created the conditions for wider implementation. Key success factors were the broad support in the industry, the combination of technical analysis and practical verification, and a shared focus on creating a concrete, usable tool. This has laid a solid foundation for future development and continued collaboration in the rapidly growing textile recycling sector.

Download excel file: Public classification tool

Catrine Marchall

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6. Clean water and sanitation
8. Decent work and economic growth
9. Industry, innovation and infrastructure
12. Responsible consumption and production
13. Climate action
15. Life on land
Classification of Textile Waste - final report and classification tool
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Project end date: Offer-pages: Material selection and circular textile design Textiles Sekundär områdes navigation:
Circular transition
Production and manufacturing