The Ambition of GreenFeedBack is to enhance knowledge of the GHG dynamics in the ecosystems and link GHG in terrestrial, freshwater and marine ecosystems to provide a solid basis for estimation of regional and global climate feedback processes taking human pressure on ecosystems into account. GreenFeedBack will study the processes in sensitive terrestrial, freshwater, coastal and marine areas of which some are hypothesized to be tipping elements in the climate system. Thus, we will primarily focus on high latitude terrestrial and freshwater systems, marine shelves and ocean areas and thereby advance the process-based representation of ecosystems in Earth System Models (ESM). The analysis will involve co-design between scientists and stakeholders. We will use data from the ICOS and ACTRIS stations in Europe and the GIOS, GEM and SMEAR network in Greenland and Finland as well as data from dedicated field and laboratory studies. The enhanced knowledge will be used to improve descriptions of the GHG processes for implementation in ecosystem models and ESMs. Hence, GreenFeedBack will improve and apply ecosystem- and Earth System models to advance our understanding of GHGs effect on climate variability over different time horizons.

Scrap-based production of Steel using Electric Arc Furnace (EAF) with possibility of 100 % scrap charges, offers a Circular Economy-based solution to reduce CO2 emissions when compared to the integrated Blast Furnace (BF) + Basic Oxygen Furnace (BOF) route (1.81 tCO2/tsteel for BOF vs 0.23tCO2/tsteel for EAF). However, EAF production of sheet steel is currently not a reality due to the effect of undesired residual elements in the scrap. The aim of CiSMA is to introduce scrap-based EAF steel products into mass-market sheet metal consumer goods with high-quality requirements, currently served with BOF steel (96 % of the market). First, by generating fundamental knowledge on how residual elements, and Copper in particular, interact with sheet Steel and its performance. This will be done combining state-of-the-art methodologies with specialized resources, such as Synchrotron, to design Steel grades and determine safe residual thresholds. Next, scrap as a raw material will be studied together with methodologies to improve its quality and maximize the use of low-quality scrap, through the use of techniques that separate undesired inclusions from the main stream of steel. Finally, by generating a toolbox of enabling technologies to introduce recycled sheet metal in the industry: 1) fast characterization tests for quality control, 2) online test methodologies that can be applied in the press floor, and 3) the development of Machine Learning-enhanced Finite Element Modelling and Digital Twin that allow adapting production processes to feedstock with high variability. These developments will be showcased in applying four steel compositions into two pilot trials for mass-market applications: automotive and white goods. These trials will ensure that the material and production route developed can be readily accepted by the market, demonstrate the developed toolset of enabling technologies, and quantify the environmental improvements achieved compare to the current product.

Regulated or non-regulated pests (bacteria, virus, fungi, nematodes, arthropods or weeds) are responsible of major crops’ losses. Accurate and reliable detection and identification of pests are essential to avoid or reduce economical costs and trade disruptions and to support surveillance activities. In recent years, numerous tests based on new technologies have been developed to meet the different needs. However, most of them are validated on an intra-laboratory basis, through limited test performance studies (TPS) or ring trials, and there is a need to further harmonize practices. The project aims at producing validation data and will include two rounds of TPS. The first one will include combinations of pest/test/matrix, prioritized based on the expertise of the project's consortium. The second round will include other combinations based on the needs expressed by various stakeholders. Priorities for validation will then be better aligned to their needs and to the market. To maximize the impact of the project, calls of interest will be organized to include in the validation programme, kits of suppliers outside the consortium and allow participation to the TPS of voluntary proficient laboratories. Current harmonized procedures in Plant Health for validation and organization of TPS will be improved by including appropriate statistical approaches and by adapting the process for new promising technologies, such as Next Generation Sequencing. Liaison with regional and international standardization bodies will allow large dissemination of validation data obtained in this project especially by their inclusion in harmonized diagnostic protocols. The outcomes of the project will stimulate, optimize and strengthen the interactions between stakeholders in Plant Health for better diagnostics and lay the foundations for structuring the quality and the commercial offers for plant health diagnostics tools thanks to a dedicated association and a quality charter.

The construction sector is the second largest industrial ecosystem in the EU in economic terms, generating 11,5% of the EU Gross Value Added in 2023. However, while creating economic value, the highly polluting materials derived from petroleum also contribute significantly to greenhouse gas emissions, accounting for up to 37% of global operational energy and process-related CO2 emissions. This represents a serious challenge and calls for an urgent transition towards a circular economy. Despite a change taking place in the consumption and production of materials, the sector is facing limits in terms of price, efficiency of materials and social acceptability. The HIBISCUS project aims to revolutionize the building envelope sector by replacing fossil based materials with innovative bio-based alternatives to enhance sustainability, economic viability, and regulatory compliance while reducing the industry's carbon footprint. Coordinated by SOPREMA and 11 partners across Europe, the project uses a thorough methodology to provide new biobased materials for the building envelope thanks to the conversion of several feedstock sources. Partners will demonstrate at pilot scale the feasibility of scaling-up biobased materials while meeting the market standards and the industry’s needs. The project expects to create five bio-based construction materials - (2) waterproofing, (2) insulation and (1) carpentry solutions - with an average of 80% bio-based components and a 25% improved environmental profile. Within five years post-project, HIBISCUS aims to ensure that all materials meet CE-marking standards and attain a 10% market share for bio-based materials. Ultimately, HIBISCUS seeks to consolidate the EU position at the forefront of sustainable construction practices, promoting circular economy principles and supporting more resilient buildings through interdisciplinary research and collaboration.