OpenModel provides an integrated open access material modelling platform designed to be easily integrated with, and usable by, any existing and future EU platforms, e.g., Open Translation Environments (OTE), Materials Modelling Market Places (MMMP), Innovation Test Beds (ITB), and Business Decision Support Systems (BDSS). Furthermore, OpenModel integrates with Life Cycle Analysis as well as the "plug and produce" and characterization open innovation environments to enable better integration of characterization and processing into materials modelling workflows. The OpenModel platform directly addresses the needs of industry for creating and executing standardised advanced materials modelling workflows by offering 5 main ingredients: 1) EMMO based ontology extensions as basis for all developments, 2) An Interoperability layer providing an implementation of EMMO-based Common Universal Data Structures classes (CUDS) for describing any modelling workflow or simulation data in a semantic manner, 3) An Open Simulation Platform based on standardised interfaces and semantic common application programming interfaces (API), to enable integration of third party physics based modelling codes, 4) Smart workflow builders that respond to semantic information and requirements from OTE, MMMP, ITB, and BDSS and creates on the fly advanced workflows taking into account Key Business and Technical Performance Indicators (KPI) utilising the semantic power embedded in the platform, and 5) workflow executors and curators able to perform and manage the results making it readily and transparently available for further control and processing by the other platforms. OpenModel targets multiple use cases and materials with their processing in the fields of environment, aviation and automotive industry, yet OpenModel's scope is generic and can thus address all materials modelling, processing and characterization fields. OpenModel is the platform for materials modelling Services in Europe.

EUReCOMP aims to provide sustainable methods towards recycling and reuse of composite materials, coming from components used in various industries, such as aeronautics and wind energy. The main pathways to achieve circularity will include: i) repairing, repurposing and redesigning parts from end-of-life large scale products and ii) recycling and reclamation of the materials used in such parts; thus, accomplishing reduction of waste and transformation to high-added value products.

As it is addressed by the European Plastics Strategy (European Green Deal & Circular Economy Action Plan 2.0), new methods to reliably calculate, verify and report the recycled content in products need to be developed, boosting the increase of recycled content in everyday products against the use of virgin materials. However, measuring the recycled content is complex, requiring product tracing to the production source. PRecycling aims to develop an easy-to-use methodology for sorting, sampling, tracing and recycling plastic waste streams, including detection and separation of legacy additives, along with standard analysis procedures for both plastic waste materials and recyclates (secondary raw materials) in order to produce consistently high quality, safe-to-use recyclates based on their degradation degree and added-value products with predicted lifetime. Smart tracing via digital systems will be developed in parallel, to ensure the quality and safety of reused materials, targeting a sustainable, transparent and functional Circular Economy Model for the recycling market. The environmental and financial viability of PRecycling solutions will be assessed throughout life cycle and cost analysis in order to reach competitive prices of recycled products. The above will be demonstrated, producing (I) home appliances components, (II) toys/learning resources, and (III) 100% recycled textile, starting from the same sector recyclates and different European regions. However, the proposed methodology in PRecycling could be adapted by many other sectors, i.e. packaging, vehicles, and electric/electronic equipment, triggering significant societal impact apart from commercial and industrial interest. Demonstration activities will serve as part of a community awareness initiative, showing that 'from waste to product' transformation is scalable, replicable, traceable, commercially viable and most importantly, safe to use, both within the same and new supply chain products.

TwinAIR aims to improve urban life by tackling the challenge of indoor air quality (IAQ) improvement by understating its complex interrelationship with external factors. This is achieved by introducing a novel set of tools for identifying sources and tracing a variety of pollutants and pathogens, for enhancing understanding of their effects and assessing their impact on health, for controlling building management systems and services in ways that mitigate part of the impacts and for helping citizens to develop better insights into pollution impacts, along with encouraging healthier, more sustainable choices. TwinAIR embraces bleeding edge innovation in urban sensing (chemical and environmental sensors), data analytics and visualisation (digital maps and real-time video analysis), smart buildings (digital twins and virtual sensors) and behavioural insights (citizen participation, gamification) to deliver a nascent solution. It is implemented across six diverse pilot sites in Europe (ES, IE, UK, SE, DE, EL) with demonstrations covering residential dwellings, public administration buildings, hospitals and schools, along with selected types of vehicles (buses, vans). TwinAIR?s toolsets will empower students and their parents, commuters, workers and residents to make more health-aware personal decisions about their everyday mobility options and use of indoor spaces, through access to insightful analytics and engaging visualisations of their data, as well as by their participation in educational events and activities. At the same time, it will provide rich evidence to transport planners, facility managers and policymakers about factors influencing IAQ and effective interventions for mitigating its effects on health and wellbeing. By democratising cutting edge innovation in sensors, digital twinning and visual analytics, TwinAIR will enable better decision-making about future mobility policies, built environment management and incentivisation of citizens. Project TwinAIR is part of the European cluster on indoor air quality and health.

Nowadays, European manufacturing enterprises are facing a number of challenges in a turbulent globalized market facing unprecedented and abrupt changes in market demands, an ever-increasing number of product variants and smaller lot sizes, intensifying the worldwide competition and causing a continuous pressure on production costs, product quality and production efficiency. Therefore, novel product development strategies for ensuring and optimising the manufacturing of new products or variants in low-volume production systems must be implemented. PIONEER aims the development of an open innovation platform and interoperable digital pipeline for addressing a design-by-simulation optimisation framework. For that, PIONEER implements inline feedforward control strategies for enhancing the efficiency of the industrial systems in high-mix/low-volume production schemes, based on the connection between materials modelling and materials characterisation, simulation-based digital twins and data-driven models, updated through distributed production data from embedded IoT edge devices and product quality. PIONEER is built over five pillars for development a common methodology deployed in two demonstrators by involving multidisciplinary optimisation for ensuring certified path planning strategies for the manufacturing of topology optimised structural elements through Wire-Arc Additive Manufacturing (WAAM) in construction –i.e., low-volume production schemes–, as well as for ensuring an efficient design and manufacturing strategy for the manufacturing of Carbon Fibre Sheet Moulding Compound (CF-SMC) components in automotive –i.e., high-mix production schemes–. PIONEER is built on the knowledge and results gained in i) previous H2020 EU projects; ii) associations –i.e. EMMC ASBL, IOF, VMAP Standard Community, IDTA—; and iii) commercial products from project partners.