MULTIPLE will develop cost-effective multimodal monitoring solutions with a breakthrough impact on production quality and efficiency. It will bring cutting-edge OLED-based sensors, snapshot hyperspectral filters and dual-aperture imaging to deliver cost-effective spectrometers and camera cores in a broad VIS/SWIR range, complemented with cost effective laser-based chemometric sensors in the MWIR. On top of these sensors, MULTIPLE will develop novel multimodal monitoring systems that will be IoT native, by combining them with cloud, big data, and deep learning for agile development and orchestration of complex AI-based models to optimize production improving EU manufacturing competitiveness. To develop cost-effective HSI SWIR (0.9-1.7 µm) camera cores ready for volume production. To develop a compact and cost-effective dual-aperture HSI imager combining snapshot CMOS and InGaAs hyperspectral sensors based on mosaic filters covering the whole VIS/SWIR range (0.4-1.7 µm). To develop novel cost-effective spectrometer solutions for highly specific chemometric analysis in an extended VIS/MWIR range (0.4-3.5 µm wavelength), based on innovative OLED sensors and laser-based spectroscopy. To develop embedded deep models for regression, classification and RT control. It will guarantee onsite and online measurements and classification of different types of categories with high flexibility, accuracy, and reliability. To develop an integral and scalable approach to process monitoring, quality assurance, and process optimization through the orchestration of photonic monitoring systems under an IoT native approach. The aim is to leverage SoA cloud and big data technologies to create new services and microservices enhancing decision support tools. To demonstrate MUTLIPLE in 3 manufacturing scenarios: steelworking, woodworking and food

In the current environmental emergency, the food system has to become more productive, inclusive, sustainable, and resilient. SOSFood will therefore use data-exploitation and AI-based technologies to provide a holistic and comprehensive image of the EU food system and develop tailored predictive tools to support well-informed decisions of all stakeholders of the food chain, with a multi-factorial, multi-actor and multi-scale approach, thanks to its multidisciplinary consortium of experts, from private and public sectors, academia research and food system representative (consumers, producers and industries). Although several initiatives have been taken in the same line, none has fully succeeded at considering the global picture of the system or delivering a reliable and accessible message to the target audience. Hence, SOSFood will result in a consolidated food data space focused on sustainability and health and decision-making tools adapted to each level of the chain (a predictive dashboard displaying data and predictions for industries, and a mobile app for consumers comprising an eco-healthy fingerprint visualization plot, a greening indicator of industries, reformulated European recipes promoting healthy, local and seasonal ingredients and general recommendations), following these steps: (1) creating a multi-actor network gathering social, political, legal, economic, technological, food, health, environmental and climatic data, promoting transparency and data-sharing, (2) mapping the food system scenario with a multidimensional strategy, exploiting the interoperability of data with advanced impact analysis and innovative AI-technologies, (3) co-designing solutions i.e., decision-making tools fitting the context and priorities of each user, validated through field case studies to ensure viability and representativeness.

Three key global drivers underpin the increased interest in plant protein-based diets: population-growth, important role of proteins in a healthy diet, and the environmental impact of animal-based food chains. While an increasing trend in proportion of plant sources included in diet is obvious, the current generation of commercial plant-based alternatives is suboptimal. Therefore, more research is needed to develop mild processing techniques for plant proteins and to obtain a comprehensive understanding on the impact of plant proteins on technological and nutritional functionality. Addressing current challenges and shortcomings, Excel4Pro aims to support, with underpinning research and knowledge exchange, the capacity of the national Excellence Hubs of Türkiye, Greece, and Ukraine as a regional launch pad for plant-protein-based novel food economies. Excel4Pro will be used as a critical tool to connect and scale up the strategically selected plant-based protein ecosystems in a single, interconnected and cross-border Excellence Hub dedicated to growing and changing the agri-food sector in Türkiye, Greece and Ukraine by developing novel food products based on plant-based proteins. Collaborative R&I strategies, mentoring programmes, action plans to attract dedicated investment, and an array of upskilling activities for researchers and entrepreneurs will help close knowledge gaps between place-based innovation ecosystems and support the development of more sustainable food systems. Excel4Pro's consortium contains 17 partners (4 Academic, 8 Business, 2 Public Authorities, and 3 Societal Actors) that are well balanced and fully completes the quadruple helix. Excel4Pro is a 4 years project with 6 carefully designed Work Packages that efficiently exploit the consortium's diverse knowledge and expertise to develop solutions to Global Challenges in line with EUGreen Deal, the Farm to fork strategy for a fair, healthy and environment-friendly food system.

The project aims at the development of innovative reclamation and repurposing routes for end-of-life plastic and carbon fibre reinforced polymer (CFRP) components. This will be achieved by employing advanced nanotechnology solutions, Additive Manufacturing (AM) and recycled resources, for the production of high added value 3D printed products with advanced functionalities. In this way, the combination of AM, polymer processing and recycling technologies could constitute a new paradigm of a distributed recycling process, easily implemented at local scale in collaboration with the industrial sector and collection facilities, in order to create competitive, highly customisable products at lower production costs, in a flexible digital environment that fully unravels the potential of eco-design and allows for integration of smart intrinsic self-sensing, self-repairing and recycling options. The project aims to address all aspects and stages of thermoplastic and CF reinforced thermoplastic 3D printing material development from recycled resources, starting with the selection of suitable waste streams, strategies for material repair, compatibilization and upgrade towards AM processing, compatibility between different thermoplastic matrices and the reinforcing fibres and nanoparticles, comparative assessment of various AM thermoplastic processing technologies and closed-loop material optimisation in terms of processability and performance.

The design of biodegradable polymer materials (BDPM) is at the core of BioPackMan, aiming to explore an extended material design space of Polyhydroxyalkanoates (PHAs), Poly(butylensuccinate) and its copolymers (PBS, PBSA) and Polylactic Acid (PLA) to develop tailored compounds that harness synergistic effects, leading to biodegradable, recyclable packaging with application-specific mechanical strength, thermal stability, chemical resistance and gas permeability. Biodegradable compounds will be developed with tailored morphology, to meet diverse flexible & rigid packaging requirements and also embrace a ‘biodegradation as a system property’ approach from initial material and packaging design, considering specific environmental conditions for intended and unintended disposal pathways. By establishing a complete value chain (material producers, compounders, packaging converters and end users), BioPackMan aims to provide a complete set of compounds, sustainable additives and innovative processing technologies for the production of sustainable packaging demonstrators for food, home care and personal care sectors. The target is to obtain benchmark fossil-based products quality, ensuring compliance and safe use in packaging, showcasing that BDPMs can be recycled. Circularity, safety, and sustainability are considered at all stages of development through SSbD framework, and liaise with society & industry, to assure interaction, knowledge exchange and adaptation of circular business models. To secure societal impact, stakeholders will be involved early in the project to identify barriers and facilitate the adoption of sustainable practices.