Antinutrients – a pitfall in the protein shift?
PLANTOMYC - A sustainable leap in alternative protein innovation
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
Koninklijke Nederlandse Akademie van Wetenschappen
The University of Reading
Udruzenje Za Preduzetnistvo I Inovacije Foodscale Hub
Millow AB
Brøl Aps
Eit Food Clc South S.L.
Atova Regulatory Consulting
Lantmännen
Esu-Services Gmbh
University of Navarra
Division:
Division Bioeconomy
Vaskar Mukherjee
Abhishek Bhattacharya
Pranav Kulkarni
Eleonora Borén
Emma Lindgren
Pooja Dixit
Joshua Mayers
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.
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
Circular transition
Production and manufacturing
Biotechnology
Biobased circular processes
Flexible chemical looping combustion for CHP production
Bio-FlexCLC
The Bio-FlexCLC project aims to develop and demonstrate a full-chain technology that utilizes biogenic residues and wastes for flexible CHP production with the possibility of cost-effective CO2 capture.
Coordinator
Active
Biorefinery
48
3.9 M€
Division:
Division Bioeconomy
Amir Soleimani Salim
Olivia Cintas Sanchez
Daniel Tamm
Diego Peñaloza
Clara Wickman
Erik Fischer
Sennai Asmelash Mesfun
The goal of Bio-FlexCLC is to establish an efficient, and scalable process to convert low-value biogenic residues and organic waste to heat and power with negative or zero emission through CLC-CFB coupled with gas cleaning and CO2 liquefaction.
The idea is to combine the break-through chemical-looping combustion (CLC) technology with conventional circulating fluidized bed (CFB) boilers, a technology widely used in Scandinavia and Europe for combined heat and power production. Bio-FlexCLC concept operating in CLC mode enables CHP production with negative emissions at low-cost while the concept is flexible to switch to CFB boiler mode to produce CHP with net-zero emissions.
The concept has the main features of
- Low cost and energy for CO2 capture, as there is no gas separation equipment needed,
- 100% CO2 capture possible while having low emissions of NOx, SOx and other harmful components,
- low corrosion with improved steam data for improved electrical efficiency,
- flexible system with respect to the heat/power ratio and
- flexibility to operate the system as a normal circulating fluidized bed without CO2 capture if conditions are not amiable for this. With such a flexible system we believe that end-users would be more willing to invest in CHP systems with BECCS even without current policy instruments in place.
Investing in CHP technologies utilizing biogenic and waste fuels, as developed in the Bio-FlexCLC project, offers a range of enduring advantages:
- A fuel combustion facility which can achieve negative emissions with CO2 capture.
- Facilitating the utilization of challenging-to-exploit or low-value bio resources like organic wastes.
- Creating new employment opportunities, particularly in biomass or residue-rich regions, such as rural areas.
- Reducing reliance on fossil fuels and mitigating the need for oil imports.
- Enhancing local and regional production autonomy and supply security.
RISE RESEARCH INSTITUTE OF SWEDEN
AICHERNIG ENGINEERING
GÖTAVERKEN MILJÖ AB
TECHNISCHE UNIVERSITAT DARMSTADT
CHALMERS TEKNISKA HOGSKOLA
SPANISH NATIONAL RESEARCH COUNCIL
NATIONAL CENTER FOR RESEARCH AND TECHNOLOGICAL DEVELOPMENT
1CUBE B.V.
FORTUM POWER AND HEAT POLSKA
VÄXJÖ ENERGI AB
Projekt logo:
Project end date:
Offer-pages:
Bioeconomy Arena: test and scale up bio-based solutions with RISE
Power production
Sekundär områdes navigation:
Circular transition
Biobased circular processes
Chemical products and processes
SOURCE
SOURCE
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
Standard Bio AS
RAIN Carbon
RAIN Carbon
CSIC-INCAR
Accurec
CIDETEC
Life Cycle Engineering SPA (LCE)
TOKAI
PNO Consultants
PNO Innovation
Division:
Division Bioeconomy
Anwar Ahniyaz
Natalia Anna Wojas
Stina Ulfsdotter Starborg
Verónica Benavente
Marie-Louise Wallberg
Juhanes Aydin
Omid Hosseinaei
DHRUBAJYOTI Bhattacharjya
Carla Pérez Morales
Ahmed Etman
Isabel Burdallo
illia Dobryden
Amanda Holst
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.
- Optimisation of carbon precursors
- Pilot scale production of battery-grade synthetic graphite
- Pilot scale production and evaluation of anode materials in LiBs
- Economic and environmental sustainability assessment
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
Growing the food of the future in a unique environment
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.
"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.
Circular transition
Food
Biobased circular processes
Process simulation with Aspen Plus®
Processimulering med Aspen Plus®
Scale-up and evaluation of technical innovations at a commercially viable scale within a simulation environment is crucial for advancing new value chains into practical business concepts. Rise experts can help you with Aspen Plus® simulation tool.
Scale-up and evaluation of technical innovations at a commercially viable scale within a simulation environment is crucial for advancing new value chains into practical business concepts. Rise experts can help you with Aspen Plus® simulation tool.
Aspen Plus® is a commercial simulation platform used to develop comprehensive value chains, aiding in the assessment of plant process performance. RISE experts within process simulation and evaluation can support actors in society and business within biorefinery, carbon capture and storage/utilization, and circular economy areas. Our services include:
- scale-up and evaluation of lab- or pilot- configurations to commercially relevant scale
- design and/or integration of new value chains in existing industrial complexes, such as conversion of biomass and waste to value-added chemicals and fuels via biochemical processes (for example, organosolv ethanol) and thermo-chemical processes (for examples, gasification, pyrolysis, hydrothermal liquefaction)
- standalone and/or integrated assessments of process performance, such as material and energy balances
- evaluation of relevant economic and environmental performance indicators
- supporting digitalization and optimization of existing processes in simulation environments
- feasibility assessments for re-configuration of existing processes to fit into new standards and policies with no or minimal impact to the core business
- integration and optimization of biorefinery concepts in forest industries, such as optimization of feedstock, utilities and chemicals usage
Green transition for the life sciences sector challenging but possible
The life sciences industry aims to improve human health. At the same time, the sector is responsible for a significant climate impact. And the transition faces particular challenges.
"We in the research community can help to better understand what can be changed and provide relevant assessment methods and tools. This will help focus efforts where they are needed and where they will be most effective," says Björn Gregertsen at RISE.
The production, distribution and use of medical devices and medicines have a large climate and environmental footprint. The life science industry needs to do something about it.
“The keys to a green transition lie in many areas: from switching to green carbon sources and reducing material flows, to preventing toxic substances from reaching the ecosystem and making transport more efficient,” says Christina Jönsson, Vice president Marketing, division Materials and production at RISE.
As the life science industry is multifaceted, it is difficult to account for the industry's total climate impact. However, calculations show that the healthcare sector is estimated to account for 4-5 per cent of global carbon dioxide emissions. The majority, 70 per cent, comes from the supply chain, and mainly from transport. And the sector faces particular challenges. The industry is highly regulated, making circular change more difficult to implement than in many other industries.
“Just think of all the disposable items used in healthcare. They have to be of high quality, sterile and non-recyclable due to the risk of infection,” says Björn Gregertsen, Vice President, Life Science, Chemical Processes and Pharmaceutical Development at RISE.
Essential to reduce carbon footprint
Packaging that is in direct contact with medicines and sensitive medical devices - such as sampling devices - is also exempt from the EU's Packaging and Packaging Waste Regulation (PPWR) requirements on recyclability and recycled content until 1 January 2035.
"However, the EU is working intensively on sustainability issues and several other bodies regulating the life sciences industry are also reviewing their regulations. The industry itself is also driving the transition," says Christina Jönsson.
She believes that one way forward is to work much more with differentiation and gives an example:
”The tubes in IVs or catheters that go into the body should probably not be made from recycled products or be recycled. But the disposable plastic gloves that staff use might be.”
Life science companies working on environmental sustainability in harmony with patient safety will gain market advantage
Many factors to consider for a sustainable transition
Finding the balance between stable production, economic viability and proven benefits for biodiversity and climate is a challenge.
“Us researchers can help improve understanding of what can change and contribute with relevant assessment methods and tools. This will ensure that efforts are targeted where they are needed and most effective," says Björn Gregertsen.
Reducing the carbon footprint in the pharmaceutical industry necessitates addressing various issues across the entire value chain.
“By embracing green chemistry principles, companies can minimize harmful emissions and waste,” says Björn Gregertsen. “Additionally, adopting energy-efficient production methods and reducing reliance on fossil fuels for transportation can significantly lower overall carbon emissions. Also, addressing areas like pharmaceutical packaging will make a difference. These combined efforts pave the way for a more sustainable future in the pharmaceutical sector.”
RISE's experts can support companies that want to reduce their impact on people, the environment and the climate through this type of 'green innovation'.
“We're offering advice and circular business models in areas such as material conversion, green chemistry, pharmaceutical development and product life cycle analysis," says Björn Gregertsen.
Sustainable life sciences are the future
It can be wise to get on board with the transition right from the start. Although many of today's regulations have had exemptions for the life sciences industry and healthcare, this is likely to change.
“The issue is on the table but nothing has been decided yet on where, how and when it will be more clearly set out in legislation. But the fact that the discussion is now taking place is a signal for companies to be aware of. The life science companies that work with ecological sustainability in harmony with patient safety will gain market advantages,” says Christina Jönsson.
Several research projects to address transition needs
The life sciences sector includes all activities that develop medical and technological innovations that improve the life and health of people, animals and nature. It also includes the activities of universities in the fields of medicine, biology and health.
Many research projects are underway to address the sector's transformational needs. Here are some examples of projects that RISE is working on:
- Green solvents and biofuels
- In silico solutions for toxicity analyses and chemical exchange
- Tools to analyse environmental and climate impact
- More efficient and safer medicines that can be transported at room temperature
- Material recycling and biotechnology.
This is green chemistry
Green chemistry in the pharmaceutical industry involves developing methods to reduce the use of organic solvents and other environmentally harmful chemicals in synthesis and manufacturing.
The focus is on designing chemicals that can be degraded into harmless degradation products that do not enter the environment after use. It is also a matter of making energy use more efficient and switching from black, fossil-based carbon sources to green, bio-based ones.
Circular transition
Biobased circular processes
Biobased materials
Biotransformation of brewers´ spent grain
FUNBREW
The aim of FUNBREW is to establish bioprocessing technologies for the synthesis in situ of functional compounds in BSG.
Participant and WP leader
Completed
Food
36 m
Division:
Division Bioeconomy
Brewer´s spent grain (BSG) is a byproduct of beer manufacturing and is rich in fibers and protein. Today it is used as animal feed or discarded. The aim of FUNBREW is to establish bioprocessing technologies (fermentation and enzyme treatment) for the synthesis in situ of functional compounds in BSG, such as exopolysaccharides and antioxidants. Bioprocessing results in improved structure as well as enhanced bioavailability of BSG constituents. BSG will be used as an ingredient in pasta, bread and breakfast cereals.
This transnational project is part of the ERA-Net SUSFOOD2 with funding provided by national/ regional sources FORMAS and co-funding by the European Union´s Horizon 2020 research and innovation program.
2. Zero hunger
3. Good health and well-being
9. Industry, innovation and infrastructure
12. Responsible consumption and production
University of Helsinki
University of Bari
Free University of Bozen-Bolzano
Projekt logo:
Funders without URL:
FORMAS
Horizon 2020 ERA-NET SUSFOOD2 Project end date: Food Sekundär områdes navigation:
Circular transition
Biotechnology
Biobased circular processes
The Bioeconomy Research Programme – working with industry for a more sustainable world
The next big breakthrough in the bioeconomy is just around the corner. By participating in our international Bioeconomy Research Programme, your company can help drive developments. This programme brings together leading researchers and innovative companies to co-create the sustainable solutions of tomorrow.
Innovation that creates value and sustainability
Collaboration between industry and RISE creates competitiveness with sustainability at its heart. We work strategically to:
Maximise resource efficiency through innovative processes
Transforming raw materials and materials into high value products
Turn waste into valuable assets
Experience shows that collaborative research is more than the sum of its parts. When companies join forces in research projects, both knowledge and resources grow. Collaboration creates a platform for further development in tailor-made projects.
Bioeconomy Research Programme 2025
The new programme builds on the experience and results of the 2021–2024 programme, which focused on areas such as pulp and cellulose, wood and biorefinery, and packaging materials. The established collaborations and networks from the first programme period provide a solid basis for further development.
Based on in-depth dialogue with industry and analysis of future trends, we have identified strategic research areas for the programme that started in January 2025.
Vision and objectives
The research programme will provide companies with the tools to:
Ensure competitiveness in 5–10 years
Develop sustainable solutions to meet future needs
Build strong research collaborations
Benefits of research collaboration
When companies choose to do research with us, they get:
Access to world-leading expertise
Enhanced expertise in strategic areas
An international network
Cost-effective research through shared funding
Faster time to results and market
Possibility of tailor-made projects
Secure management of intellectual property
Patents and rights that create value
Each participant contributes their expertise and gains access to new knowledge to implement in their business. Together we tackle both long-term research challenges and short-term process improvements.
Focus on sustainability
All projects are evaluated on their contribution to the UN Sustainable Development Goals and a sustainable society. Our work is driven by the ambition to create solutions that have a positive impact on society, now and in the future.
Ongoing projects within the Bioeconomy Research Programme
Barriers
Objective: Biobased alternative barrier materials to replace fossil-based laminates. Concept development from lab to pilot scale.
Consortium manager: Astrid Glasenapp
Corrugated board packaging
Objective: Improve the performance and reliability of corrugated board and packaging through improved properties and relevant measurement methods as well as prediction of performance from properties.
Consortium manager: Astrid Glasenapp
Fiber and additive design
Objective: Improve the performance of papermaking additives by tailoring complexes of additives to the fibre surfaces. Explore the possibilities to improve the unit operations by adjusting bleaching parameters.
Consortium manager: Anna Sjöstedt
Lignin production
Objective: To optimise lignin production, focusing on lowering production cost, CAPEX and OPEX and improving quality by implementing new in-process measurement techniques and post-treatment methods
Consortium manager: Mattias Wennerstål
Paperboard packaging
Objective: To improve packaging performance, including how it behaves mechanically, how it looks when printed and how efficiently it can be converted.
Consortium manager: Ida Östlund
Pulping and bleaching
Objective: To improve the pulping process by applying synergistic implementation of impregnation techniques, oxygen delignification and high defibration point to increase overall yield.
Consortium manager: Oskar Westin
Recovery cycle and water management
Objective: To optimise pulp mill processes with a focus on improving runnability and energy savings, decreased water footprint, and improved wastewater management and valorisation.
Consortium manager: Mattias Wennerstål
Recycled fibres
Objective: To improve recycling processes for difficult to recycle materials and understand how fibre and process water quality is affected by different process conditions.
Consortium manager: Pernilla Karlsson
Tissue
Objective: To investigate how alternative fibres, enzymatic treatment, extended oxygen delignification and different embossing patterns influence tissue properties and/or sustainability of tissue paper.
Consortium manager: Ida Östlund
Related
Please fill in the form and we will get back to you as soon as possible.
bg_4
Division:
Division Bioeconomy
Område:
Bioeconomy
Projektlänkar rubrik:
Relaterat
Circular transition
Sekundär områdes navigation:
Production and manufacturing
Biobased circular processes
Pulp and paper
Biobased materials
Chemical products and processes
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.
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:
Project end date:
Energy storage
Sekundär områdes navigation:
Circular transition
Power production
Biobased circular processes