Category: Foresight, market studies and market roadmaps

FLEXIZYME project

FLEXIZYME project

This project ends on: 31/05/2028

Construction of a FLEXIble and adaptable enZYMatic biotechnological platform for sustainablE industrial production of bio-based fatty amines from side stream materials

FLEXIZYME project aims to develop a sustainable, scalable biotechnological platform to produce fatty amines from renewable biorefinery side streams. Through the integration of enzyme engineering, biocatalysis, and AI tools, the project will contribute to replacing traditional fossil-based production methods with sustainable and resource-efficient alternatives.

Contact:

Annabel Serpico, PhD: annabel.serpico@itene.com

website: https://www.flexizyme.eu/

PROSPLIGN project

PROSPLIGN project

This project ends on: 30/06/2027

Prospecting natural lignin biodiversity towards unlocking value-added bioactive motifs and molecules

PROSPLIGN aims to unlock the potential of lignin as a source of high-value bioactive molecules through an innovative bioprospecting approach combining chemical and enzymatic methods, statistical analysis and high-throughput screening. Using lignin derived from diverse plant species, the project investigates lignin-derived compounds for applications in the pharmaceutical, cosmetics and fragrance sectors. Ultimately, PROSPLIGN seeks to contribute to a new generation of sustainable biobased bioactives while creating greater value from abundant and currently underutilised lignocellulosic biomass.

Contact:

Leanne Eve Frawley: malta@magfi.eu; leafra@magfi.eu

website: https://prosplign.eu/

Bio2PEs project

Bio2PEs project

This project ends on: 30/09/2029

Creating Sustainable Solutions for a Circular Future

Bio2PEs is an EU-funded project developing bio-based and biodegradable polyethylene (PE) and polyester from biomass waste to support Europe’s shift toward a circular plastics economy. Traditional plastics create long-lasting pollution, and Bio2PEs aims to tackle this by introducing scalable, sustainable alternatives aligned with the European Circular Economy Action Plan.

The project will design packaging prototypes in different sizes and assess their full lifecycle, including biodegradability in various European climates. To improve circularity, Bio2PEs integrates innovative features such as self-repairing coatings that extend product lifespan and fluorescence technology that makes products easier to sort and recycle.

Working closely with other EU initiatives, BIO2PEs also promotes consumer adoption of biodegradable materials through interactive labelling and contributes real-world data to an AI-driven tool that recommends the most sustainable material options.

Contact:

Debolina Paul, Digiotouch: debolina@digiotouch.com

website: https://www.bio2pes-project.eu/

BIN2BEAN project

BIN2BEAN project

This project ends on: 30/11/2026

Boosting the market deployment of safe, effective and sustainable innovations for soil improvement from bio-waste, towards regenerative soil systems

BIN2BEAN aims to support EU cities in their transition towards healthy soils and soil regenerative systems, by optimising bio-waste recycling into soil improvers through innovative and economically viable value chains. Specifically, the project supports 3 Living Labs – Egaleo, Amsterdam and Hamburg – through the implementation of a multi-actor and participative approach to implement the following activities:

  • Map local contexts, in terms of state-of-progress, existing initiatives, needs, material and monetary flows.
  • Design a tailored evaluation framework to demonstrate the safety, environmental and socio-economic performance of bio-waste collection systems and soil improvers.
  • Develop a scoring system, fed by data from the evaluation framework, to help cities select the most effective and market-ready solutions adapted to their context.
  • Develop tailored and viable business and/or community models for the highest scored solutions, according to stakeholders’ willingness-to-adopt.
  • Draft local, national and EU policy roadmaps, including waste charging policies and citizen awareness campaigns.

Ultimately, the project will deliver a replication PDCA (Plan, Do, Check, Act) toolbox enabling cities to create a continuous value-based improvement loop towards regenerative soil systems.

Contact:

Sara Daniotti, Consorzio Italbiotec: sara.daniotti@italbiotec.it

Marco Dreoni, ETA: marco.dreoni@etaflorence.it

website: https://www.bin2bean.eu/

BIOPYRANIA project

BIOPYRANIA project

This project ends on: 30/09/2028

BIOBASED MONOMERS FROM SECOND GENERATION BIOMASS FOR HIGH PERFORMANCE POLYMERS, COPOLYMERS AND BLENDS

Advanced polymers play a vital role in strategic European industries, particularly electric mobility and green hydrogen. Yet most high-performance polyamides and polybenzimidazoles are still made from fossil-based raw materials through energy-intensive processes. This increases greenhouse gas emissions and leaves Europe heavily dependent on imported petrochemical feedstocks.
Bio-based alternatives already exist, but many still struggle to meet the requirements of demanding industrial markets. As a result, there is still a clear gap between the availability of renewable resources and the development of advanced materials that can compete with established fossil-based products.
BIOPYRANIA was created to address this gap: the project is developing new circular value chains for the production of high-performance aromatic polymers from European waste wood and forestry residues. These renewable resources will be converted into sustainable molecular building blocks and, ultimately, into advanced polymer materials designed to replace fossil-based alternatives. In doing so, BIOPYRANIA will help reduce dependence on petrochemical resources, make better use of European biomass and strengthen Europe’s strategic autonomy in advanced materials.
The project focuses on two key markets: electric mobility and green hydrogen. For the automotive sector, BIOPYRANIA will develop lightweight, durable and recyclable bio-based polyamides for use in electric vehicle components. For hydrogen technologies, it will develop innovative materials for anion exchange membranes used in electrolysers and fuel cells. These materials will be designed to meet demanding requirements for mechanical strength, thermal and chemical stability, durability and processability.
Rather than treating recycling as an issue to be addressed at the end, BIOPYRANIA considers material design, production, use and end-of-life together from the outset. The aim is to avoid downcycling and make it possible to recover valuable materials from complex, high-performance polymer products.
Overall, the project aims to reduce the use of fossil feedstocks, cut waste generation and CO₂ emissions, and improve the circularity of advanced polymer materials. At the same time, it will support the development of stronger and more competitive European value chains in strategic industrial sectors.
BIOPYRANIA brings together 13 partners from academia, research organisations, SMEs and industry, covering the expertise needed to develop, scale up, validate and assess the proposed solutions.

Contact:

Katrien Bernaerts: katrien.bernaerts@maastrichtuniversity.nl

website: https://biopyraniaproject.eu/

HarWASTing project

HarWASTing project

This project ends on: 28/02/2029

VALORISATION OF HARVESTED AGROFORESTRY BIOMASS WASTE AS FEEDSTOCK FOR VALUE-ADDED BIO-BASED SOLUTIONS AS A GREEN DEVELOPMENT PATHWAY

HarWASTing aims to develop innovative business models based on circular economy (CE) principles to promote bioeconomy in rural areas, by implementing a set of scalable and replicable technological solutions to efficiently exploit underutilised biomass from forestry and agriculture to develop innovative and high-value products. These models will support sustainable management practices and will promote an efficient use of natural resources, reducing overall waste generation and post-harvest losses by implementing valorisation processes and fostering CE principles.
To this end, a methodology will be implemented to collect, treat and revalorize biomass from forest and agricultural harvest, pruning waste and bioethanol process side-streams, respecting the cascade principle for biomass use. A one-fits all technology, Hydrothermal Carbonization, for a higher energy efficient treatment of lignocellulosic biomass residues will be combined with Pressurized Hot Water Extraction and innovative post-treatment technologies, to develop high value added products and avoid any non-valorised side-stream. The whole concept will be demonstrated at small-scale pilot, built-upon existing wood, food and bioenergy value chains to further strengthen their economic and environmental sustainability through synergistic interlinkages between them. Mediterranean, Boreal and Continental bioregions will be studied.
The holistic concept is based on the central valorisation route of Hydrothermal Carbonization and its solid product, hydrochar, that is converted into hybrid wood-hydrochar panels with less than 10% of bio-adhesive for special applications such as fire protection or electromagnetic shielding. A novel support AI-based digital tool for forecasting agroforest feedstock availability will be developed. Innovative digital passports will help to commercialize the panels and bio-adhesives. The hydrochar will be offered on a new digital platform which also serves for networking and for publishing of best-practices.

Contact:

Irene Beleña: ibelena@aidimme.es

website: https://harwasting.eu/

SYMBA project

SYMBA project

This project ends on: 31/12/2026

Securing local supplY chains via the development of new Methods to assess the circularity and symbiosis of the Bio-bAsed industrial ecosystem enhancing the EU competitiveness and resource independence.

Within the EU bio-based sector, disjointed information systems perpetuate inefficiencies, resulting in suboptimal value chains and an uneven distribution of economic benefits. This lack of cohesion hampers progress towards a circular economy and sustainable practices. In this context, the EU-funded SYMBA project aims to reshape the narrative by introducing an innovative industrial symbiosis methodology, backed by a user-friendly AI database. Specifically, the project will create a circular economy blueprint for the bio-based sector. Its innovative approach encompasses a user-friendly AI database and aims to enhance local supply chains, benefit stakeholders and elevate the economic value of final products.
The SYMBA project aims at creating a new and innovative IS method to be replicated within EU according to the local/regional bio-based industrial ecosystem. SYMBA will implement a user-friendly and accessible AI database suggesting regional IS innovative processes to create zero-waste value chains, ensuring more local supply chains; a better distribution of economic and social benefits among the stakeholders and an increase in the economic value of final products.
SYMBA solution, aligned with the EU Bioeconomy Strategy, is based on a threefold approach: i) Creation and validation of new IS methodology for the bio-based sector, starting from existing knowledge and lessons earned from SYMBA consortium partners. ii) Individuation of criteria to select regional hubs. iii) AI database including Monitoring tools, waste relation matrix, networking and cooperation with ongoing EU and local networks.
The partnership has been intentionally selected by its expertise, network with key external stakeholders and geographical reach, bringing together 5 EU countries (IT, ES, BE, NL, DE) to consolidate the maximum outreach of the initiative. It consists of 9 partners with complementary competences: 4 RTD centers (CIRCE, CTB, AIMPLAS; CET); 1 large industry (NVMT); 1 pilot facility (BBEPP); 1 innovative SME (ENCO) and 2 networks (CKIC and ICLEI) with a valuable background in applying IS approach in the bio-based sector, providing services to companies and creating awareness and networking among citizens, policy makers, EU initiatives. Through the involvement of different industrial sectors: agri-food (NVMT); packaging (AIMPLAS); wastewater (CET); textile (CTB); waste valorisation (BBEPP), SYMBA will demonstrate how to shift from a linear to a circular economy contributing to deliver bio-based solutions with reduced environmental impacts on soil, water and air quality.

Contact:

Antonietta Pizza: pizza@enco-consulting.it

website: https://www.symbaproject.eu/

RBRF project

RBRF project

This project ends on: 30/09/2028

Small-scale Circular Green Biorefineries for increasing farmer sustainability and competitiveness and building resilient rural areas

Rural BioReFarmeries brings together farmers, industries and other partners across Europe, to demonstrate a farmer-centred bioeconomy model aimed at maximizing the potential of Europe’s vast grasslands. The project will demonstrate a novel small-scale, decentralized, rural green biorefinery value chain, which addresses the limitations of existing green biorefineries. This small-scale decentralized model places farmers at the centre of the biomass value creation close to their farms, allowing them to co-produce inputs for their farms, with additional high value-added intermediates and products, which will be further developed in collaboration with centralized facilities and downstream industry partners. The model provides a practical implementation of the bioeconomy among a large farmer cohort and builds on the existing farm enterprises and cooperative structures of our partners, enabling collaboration, scale-up, market access, and building synergies across primary and industrial sectors. The project advances state-of-the-art for green biorefinery in terms of operational model, logistics, processing, product development and assessment methods, which collectively deliver a more sustainable and profitable model for farmers and rural communities. The model will serve as a blueprint for farmers to sustainably diversify into the bioeconomy, reducing their farm emissions while creating new products which displace unsustainable alternatives in a range of agri-food markets. Rural BioReFarmeries model will be replicated to diverse regions of Europe, supported by the development of inclusive business models and hands-on training among multi-actor groups and communities in regions of high potential. The project represents a highly replicable model for Europe’s abundant grasslands, helping farmers to deal with sustainability and profitability challenges while helping rural communities to become more resilient while realizing the potential of their local bioresources.

Contact:

Giulia Pastor: refarm@australo.org

website: https://ruralbiorefarmeries.eu/

CIRCULAR BIOCARBON project

CIRCULAR BIOCARBON project

This project ends on: 31/05/2027

Turning urban waste streams into added-value products

CIRCULAR BIOCARBON presents a first-of-a-kind flagship biorefinery designed to valorise the Organic Fraction of Municipal Solid Waste (OFMSW) and Sewage Sludge (SS) into high-added-value end and intermediate products, including coating of direct consumer products, coating of mechanical moving parts, coating of plastic moulding tools, biodegradable and compostable waste bags, green graphene-based devices and products, biodegradable soil mulch films, solid organomineral fertiliser with biostimulant properties and liquid biobased biostimulant.

Contact:

Cristina Garcia-Vera (Project Coordinator): info@circularbiocarbon.eu

website: https://circularbiocarbon.eu/

CheMatSustain project

CheMatSustain project

This project ends on: 31/12/2027

IMPLEMENTING INNOVATIVE METHODS FOR SAFETY AND SUSTAINABILITY ASSESSMENTS OF CHEMICALS AND MATERIALS PARTICULARLY AT NANO LEVEL IN THE EUROPEAN UNION

CheMatSustain is a research initiative, funded by the Horizon Europe Programme of the European Union. Spanning for a 48-month period, our consortium comprises 10 scientific partners from 7 EU countries, alongside collaboration with 1 esteemed UK Associate Partner and lead by the Hamburg University of Applied Sciences.
At CheMatSustain, we recognize the transformative potential of nanotechnology and the significance of Safe and Sustainable by Design (SSbD) strategies in ensuring the safety and sustainability of nanomaterials and nanotechnology. Thus, the project envisions a future where innovative methods for safety and sustainability assessments of chemicals and materials, especially at the nano level, play a pivotal role in achieving a climate-neutral, circular economy continent. Through collaboration, research, and innovation, we strive to pave the way for a brighter, greener future for generations to come.

Contact:

Dr. Jelena Barbir: info@chematsustain.eu

website: https://chematsustain.eu/