High-end endo-atmospheric interception

Expected Outcome: This action will establish a strategic European initiative to develop scalable, modular, and interoperable photonic quantum computing platforms. Proposals for this topic are expected to address and provide credible solutions to at least two major technical roadblocks currently limiting the advancement of photonic quantum computing such as: The lack of deterministic, high-efficiency photonic entanglement and loss-tolerant architectures suitable for fault-tolerant scaling The absence of a standardised, integrated control stack combining photonic hardware, firmware, and system software with reliable benchmarking across platforms Project results are expected to contribute to the following expected outcomes: By 2028, demonstration of a photonic NISQ processor with ≥100 photonic qubits, integrating deterministic single-photon sources, low-loss waveguides, on-chip detectors, and a firmware stack (scheduler, controller, compiler), validated via hardware-agnostic benchmarks and hybrid photonic-HPC applications demonstrating classical-quantum crossover By 2030, delivery of a full-stack, high-connectivity photonic quantum computer, with modular scalability, integrated…

Expected Outcome: Proposals are expected to contribute to all following points: The projects must fulfil the performance targets, at the cell and system level, corresponding to the specific targeted application, to be specified in the proposal. Appropriate KPI must be defined for the energy density (volumetric and gravimetric), Power density and C-rate, number of cycles and cost defined under operational conditions. Boost EU competitiveness in next-generation battery technologies for mobility applications. Develop pilot manufacturing capability for next generation lithium-based batteries. Strengthen the EU battery value chain, including new manufacturing equipment, automation, and scalable production processes. Advance the understanding of next-generation battery interfaces at an industrial scale, ensuring manufacturability, durability, and cost-effectiveness. In the case of aviation, the battery requirements should be compatible at minimum with EASA CS.23 (level 4), CS.27 and preferably with CS.25 categories. Scope: This topic will support the scaling-up of next generation (i.e., beyond generation 3) lithium-based batteries (e.g., semi and all-solid state, generation5) from cell…

Expected Outcome: Excellent capacities in research management are essential for institutions and national R&I systems to enhance their research excellence and capitalize on their R&I activities in a knowledge-based economy and society. The Research Management Facility aims at providing institutions in Widening countries that want to establish or upgrade their research management capacities with tailored support. The Research Management Facility also advises on an implementation strategy to introduce changes in the institutional set-up, in line with the ERA priorities. However, the action does not provide support for the implementation of the strategy. Strong research management ensures effective grant acquisition, resource allocation, compliance with funding regulations, and strategic planning. It supports high-quality research by streamlining administrative processes, facilitating interdisciplinary collaborations, attracting and retaining international high-profile researchers, and optimizing the use of research infrastructures. Proposals are expected to contribute to the following outcomes: Encourage the establishment of stronger research management capacities in Widening…

Expected Outcome: In support of the implementation of the Mission on Adaptation to climate change and of the upcoming European Climate Adaptation Plan , the successful project is expected to contribute to multi-level governance for climate adaptation by addressing all of the following outcomes: The relevant national governance for innovation and climate adaptation is further engaged and mobilised to contribute to the objectives of the Adaptation Mission and benefit from it. In turn, the Mission fosters multi-level governance, supporting Member States, regions and local authorities in their efforts to implement the European Climate Law’s requirements on climate adaptation, and to further develop and update their adaptation plans. Mission solutions are disseminated beyond the regions and local authorities actively involved in the Mission and peer learning opportunities (within and outside) the Mission are strengthened, to bridge the gap between the EU, the national and local levels. Scope: Regional and local authorities are the target group of the proposed activities and as such they are not expected to participate directly in the consortium, but they should benefit from the project…

Expected Outcome: Successful proposals will contribute to the implementation of the EU initiative on Biotechnology and Biomanufacturing, the EU Life Sciences Strategy, the updated EU Bioeconomy Strategy, the EU Biotechnology Act, the Clean Industrial Deal, the European Chemical Industry Action Plan and the upcoming EU Circular Economy Act. Projects results are expected to contribute to the following expected outcomes: Full industrial scale biorefinery and related value chain(s) for the sustainable production of bio-based products using biotech as a key enabling technology. Availability of bio-based products meeting market and technical performance requirements as relevant for their respective application areas. Improvement of sustainability, circularity and resource efficiency compared to relevant benchmark(s). Contribution to increasing the EU’s strategic autonomy, resilience and competitiveness. Scope: Biorefineries integrating biotechnologies, underpinned by sustainably sourced bio-based feedstock, have a huge potential to transform the EU manufacturing landscape, spurring socio-economic growth, fostering job creation and contributing to defossilisation of the EU…

Expected Outcome: This flagship pilot is the culmination of the entire activity catalogue carried out by the CCAM Partnership since its launch in 2021. It will combine in one project the most promising CCAM use-cases across three key domains, with the technological advancements from all its R&I clusters [1] supporting and enabling CCAM systems and services towards market uptake. This action is expected to contribute to all the following outcomes: Large-scale demonstrations of inclusive, user-oriented, and well-integrated CCAM systems and services for people and goods in mixed traffic through Field Operational Tests (FOTs), Technology Pilots, and Living Labs, building upon advanced and emerging SAE Level 2 systems to move towards SAE Level 3 and 4 functionalities, at multiple test sites and corridors showcasing CCAM potential [2] , for a minimum of 12 months. Validation of enabling technologies that facilitate the extension of Operational Design Domains (ODDs) in large-scale operations and enhance perception performance under poor lighting and adverse weather conditions in large-scale demonstrations and pilots. Assessment of deployment readiness and demonstration of technological…

Scope: The high speed and significant manoeuvrability of hypersonic vehicles, particularly hypersonic glide vehicles, create difficult conditions for target detection and tracking, which are exacerbated by changes in radar cross section characteristics. Radar waveforms and signal processing become essential to counter the effects induced by hypersonic threat dynamics. In addition, the last decade has seen a global increase in the use of unmanned aerial vehicles (UAVs) for battlefield intelligence gathering and reconnaissance. Anti-UAV radars therefore need to be developed to detect, identify and track such systems. Innovative approaches (e.g. AI and cognitive methods) can provide the means to select the best waveform receiver filter combination to maximise radar detection and tracking performance also using a feedback loop between the received and transmitted signal characteristics. This topic therefore focuses on the development of an engineering development model (i.e. demonstrator) capable of supporting tasks such as demonstrating the maturity of innovative technologies in the radar domain and supporting the feasibility of implementing such technologies in terms of time,…

Scope: The automatic analysis of tactical situations using fleets of robots, drones and AI is an important research topic that lacks standardised benchmarks and objective evaluation campaigns. This call topic aims to set up a testing environment and organise a technological challenge in which research teams will participate, supported by another topic (EDF-2024-LS-RA-CHALLENGE-DIGIT-AISAP-STEP) and possibly other sources of funding. The testing environment should enable objective comparisons between different approaches. Data should be collected during field tests, annotated and shared to enable the validation of the system performances based on precise evaluation criteria and plans, to be provided as part of the call document. Targeted types of activities: Integrating knowledge, not excluding upstream and downstream activities eligible for research actions. Indicative budget: EUR 7 000 000 for this topic under the EDF-2026-LS-RA-CHALLENGE call. Indicative number of proposals to be funded: One proposal is to be funded for this topic.

Scope: The proposals must demonstrate their disruptive impact on defence applications and address innovative technologies and solutions for defence, including those that can improve the readiness, deployability, reliability, safety and sustainability of forces in defence tasks and missions, for example in terms of operations, equipment, infrastructure, energy solutions, surveillance systems or digital solutions. Proposals must address disruptive knowledge, products and technologies in any area of defence interest (8 ) reaching at least TRL 4 (9 ).In addition, to best complement R&D efforts that already target civil applications and encourage the efficient spinning-in of knowledge, innovation and technological development to the defence sector, this topic also welcomes proposals for add-on research actions to adapt solutions originally developed for civilian applications and previously not applied in defence. Management mode : Action implemented in indirect management by the European Defence Agency. Targeted types of activities: Any activities eligible for a research action. However, proposals must not be limited to studies. Indicative budget: EUR 35 000 000 to support this…

Scope: This topic aims to improve the protection of seabed infrastructure through a comprehensive system, including unmanned assets, advanced sensors, underwater observation, detection, acquisition and communication systems, and integrated command and control. This initiative focuses on the development and validation of such a system for future operations, integrated with maritime command centres for coordinated responses. The approach combines operational levels and innovative technologies to effectively mitigate risk and ensure continuity of operations. Beyond defence technologies, this topic also contributes to the STEP objectives as defined in the STEP Regulation in the target investment area of deep and digital technologies. Targeted types of activities: Studies and design, not excluding upstream activities eligible for research actions. Indicative budget: EUR 30 000 000 for this topic under the EDF-2026-RA-SI call. Range of financial contribution of the EU per proposal : The requested funding cannot exceed EUR 15 000 000. The proposals need to build upon or integrate results that have been achieved within one or several projects funded following an EU programme call with a…