A strong and competitive European Defence Technological and Industrial Base (EDTIB) is a prerequisite for developing defence capabilities and securing European strategic autonomy. EDA has established a structured dialogue and enhanced engagement with industry, which aims to EDTIB and focuses on European entities. This month, the Agency hosted a dedicated workshop for the defence industry, welcoming over 150 experts in-house and online, to update on the state of play and related way ahead of EDA’s activities of particular interest to the defence industry.
Welcoming industry representatives from large, mid-cap, SMEs and industrial associations, EDA’s Director for Industry Synergies and Enablers (ISE) underlined that the establishment of defence initiatives at EU level have created favorable conditions for strengthening the EDTIB. He emphasised that the Agency is committed to fostering an environment that supports the EDTIB, acknowledging its crucial contribution to Europe's overall security and defence.
The participants were updated by EDA experts during the workshop on the five pillars of EDA’s industry engagement approach, notably: Capability Development, Research, Technology and Innovation, Key Strategic Activities and wider EU policies as well as overall support to Industry. The update focused on activities of interest to the industry, including opportunities for potential engagement. Representatives of the European Commission also attended the meeting and provided an update on their current initiatives relevant to defence industry.
Access to finance, 2023 EU Capability Development Priorities & tools for industry
Industry representatives were informed on the Member States joint statement on access to financing that was prepared by EDA through a collaborative dialogue involving participating Member States and the industry. The statement, that was endorsed by 27 EU Ministers of Defence last November, emphasizes on the importance of accessing finance on capital markets, and encompassing both regulatory proposals at EU-level related to ESG reporting and ongoing developments with national financial actors.
The 27 EU Ministers of Defence approved also the 2023 EU Capability Development Priorities (CDP). The 22 agreed priorities provide a valuable overview of the capability development landscape for the defence industry. The workshop allowed industry representatives to address relevant questions on the CDP, primarily what are the next steps regarding the implementation and how industry could be involved in this process.
Clarifications also provided to the participants on how to access to the EDA prioritization platform which contains the Capability Development Priorities (CDP), Strategic Context Cases (SCC), Overarching Strategic Research Agenda (OSRA including the TBB roadmaps) and Key Strategic Activities (KSA) and on the further development of the B2B platform.
EDA also informed the participants about the publication of the Industry Engagement Roadmap 2024 which offers an overview of the EDA activities of interest to the industry, that are planned to take place in 2024 in all 5 pillars of EDA Industry Engagement.
Participants stressed that this workshop could take place one more time per year as the update provided is considered very useful.
The final meeting of the EDA project “Next Generation of Propellers” (NextProp) took place in Brussels this month. NextProp, a cross-domain activity involving EDA’s CapTechs “Naval Systems” and “Materials & Structures”, successfully developed models and tools for the design of low-noise naval propellers. With a budget of 4 million Euros, NextProp was cooperatively funded by Italy, Norway, and Poland. Eight partner entities from these three countries implemented the project over the past three years.
Designing modern naval propellers involves various considerations such as efficiency, weight, durability, cost, and detectability. Testing these propellers through experiments, using either scale models or full-size prototypes, is crucial but can be expensive and time-consuming. Fortunately, advancements in high-performance computing have increased the importance and feasibility of numerical simulations and modelling.
Creating a model for the acoustic field generated by propeller motion is a complex task. It encompasses factors like the flow around the hull, turbulence, fluid-structure interaction at the propeller blades, and the interaction between the hull wake and propeller. This complexity defines a multi-physics and multi-scale problem that needs simplification in a computational model.
Reducing the signatureThe primary project outcome is an improved software tool for the minimisation of the acoustic signature of naval propellers. To this end, models based on hydro-elastic physics are used to predict the behaviour of typical propeller materials, including metals and advanced composites, under operational conditions. Results obtained from NextProp improve the understanding of sound generation and propagation from naval propellers and support advanced low-noise propeller design. Beyond this, NextProp brings forth new methods and setups for experimental propeller tests as well as advanced knowledge of sensor integration for the purpose of condition-based maintenance.
More detailed information on NextProp is available in the executive summary.
In combining knowledge in the fields of hydro-acoustics and advanced material properties, the project has effectively exploited synergies among EDA’s Capability and Technology Groups (CapTechs) “Naval Systems” and “Materials and Structures”. Several Member States support the continuation of the NextProp research line towards further optimisation and validation of the design and fabrication of composite and isotropic polymer propellers, with a follow-up project currently being prepared.
Eight partner entities from Italy, Norway and PolandFFI (coordinator), FiReCo, Light Structures, SINTEF Ocean, CNR-INM, CETENA, Politecnico di Milano, Polish Naval Academy.
To support the EU’s ability to act rapidly and robustly whenever a crisis erupts, the development of a European Command and Control (C2) capability is essential for decision-making, planning, and conduct of missions and operations. Supported by EDA, the European Strategic Command and Control System (ESC2) project concluded a major phase in its aim of to provide a ground-breaking solution that will enable the EU and its Member States to employ the most advanced Command and Control system available worldwide, fully interoperable with the C2 systems of the EU, Member States, NATO, and civilian agencies.
On December 11th, EDA hosted the Closure Session of the ESC2 project with the participation of Member States, stakeholders and industry. The session heard that once the ESC2 system design has delivered in 2023 as expected, a new project will link up with the ESC2 to further develop the system by creating a software prototype in 2025 ready for prompt implementation in the Military Planning and Conduct Capability (MPCC).
Together, the ESC2 and the future follow-up project European Command and Control System (EC2), will provide an advanced and integrated suite of C2 tools designed to support decision-making, planning, and conduct of CSDP missions and operations from the strategic to the operational level. It will provide a Staff-wide set of solutions, exploiting the emerging technologies in key domains such as Information Technology and Communication Systems.
With a total budget of 22 million euros, the project is funded by a group of 6 Member States: France, Italy, Germany, Luxembourg, Portugal, and Spain as the leading nation; as well as the European Commission. Launched under the European Defence Industrial Development Programme (EDIDP), the project gathered 21 companies from 10 different Member States to ensure delivery of a beyond state-of-the-art design for ESC2.
Launched in January 2021, amid COVID restrictions which restricted the first steps of the project, the project team managed to make up time and reach the end of 2023 ready to deliver the system design, after 36 months of work. The complexity and demands of the project required a wide range of actors to ensure the ambitious goals of ESC2 could be achieved.
EDA supports EU Member States acting as the ESC2 Project Manager. In this role, EDA manages Member States financial contribution, monitors the execution of the project plan, provides focused expertise and coordinates all contributing activities. Among the 21 industry partners, companies such as Indra (Spain), Thales (France), Leonardo (Italy), and Rheinmetall (Germany) all participated.
To ensure end-user requirements and operational expertise were built-in, the MPCC, EUMS and EEAS played a significant role. Additionally, the Spanish Ministry of Defence and the Greek Ministry of Defence supported this project by facilitating the participation of the industrial experts in the exercises MILEX 22, MILEX23 and INTEGRATED RESOLVE 22.
ALOCAS - The project Advanced Low Observable Coatings And Structures, initiated by the European Defence Agency's (EDA) Capability and Technology Group “Materials & Structures”, is a joint material research project between Saab (lead) and FOI of Sweden and AkzoNobel and NLR of the Netherlands. The project shows successful research performed in developing innovative low observable materials with the potential to reduce the radar signature of next generation platforms.
Low observable (LO) technology is a fundamental part of future aeronautical and naval weapon systems. In general, LO technology is intended to reduce the detectability of military platforms against a variety of threat sensors. This project focused on material development in the radar microwave- and infrared wavelengths with the goal of enabling the access to, and the survival within, hostile air and sea-space for combat, intelligence and reconnaissance assets to perform the designated missions.
The final meeting which recently took place at Saab Aeronautics in Linköping, Sweden, shows promising progress in the low observable materials regarding design and optimisation methods, absorber concepts, additive manufacturing of honeycomb structure, scattering cancellation meta-surfaces, LO multifunctional coatings, non-destructive testing and maintainability of LO additively manufactured materials.