Strategic Defence Intelligence | NATO–EU–Ukraine | 2026–2031 Outlook

Scope: A comprehensive assessment of the transformation of European defence between 2022 and November 2026, examining bilateral and multilateral military agreements, country-specific industrial capabilities, Ukrainian technology transfers, integrated air and missile defence, joint production, technological sovereignty and the implications for European security through 2031.

Executive Summary — Bottom Line Up Front

Europe is entering a structural transformation of its defence architecture. The central development is not simply higher military expenditure, but the emerging integration of Ukrainian combat-tested innovation, European industrial production, NATO operational requirements and EU financial instruments into an interconnected system of military development and production.

The emerging Poland–Ukraine counter-drone arrangement illustrates a wider transition: Ukraine is becoming a defence technology provider, industrial partner and source of operational expertise, rather than solely a recipient of military equipment.

This transformation is supported by several documented developments:

• NATO’s 5% GDP commitment by 2035, comprising at least 3.5% for core defence and up to 1.5% for wider defence- and security-related expenditure.
• EU SAFE financing of up to €150 billion, intended to accelerate defence procurement and industrial production.
• Four EU defence flagships: European Drone Defence Initiative, Eastern Flank Watch, European Air Shield and European Space Shield.
• United Kingdom–Ukraine cooperation: licensed production of Ukrainian interceptor drones, integrated with British manufacturing and development capabilities.
• Germany–Ukraine cooperation: arrangements concerning joint development and production of the Anubis and Seth-X drone systems.
• Sweden–Ukraine cooperation: industrial co-production, technology exchange and a proposed acquisition of up to 20 Gripen E/F aircraft, potentially accompanied by donations of up to 16 Gripen C/D aircraft.
• NATO Eastern Sentry: strengthened multinational air defence, surveillance and coordination following Russian incursions into Allied airspace in September 2025.

The principal strategic judgment is that Europe is moving from predominantly national defence procurement towards a network of overlapping bilateral industrial partnerships, multinational capability coalitions and common European financing mechanisms. These structures may increase production and military adaptability, but they do not yet constitute a unified European defence-industrial system.

The decisive uncertainty is whether governments can convert political agreements, technology-sharing arrangements and financial commitments into operationally interoperable systems, sustainable manufacturing volumes and resilient supply chains before the evolving threat outpaces European deployment.

Bulgaria’s Political Realignment: Consequences for EU Ukraine Policy, NATO Cohesion and the European Balance of Power

Europe’s Defence Transformation: Why Military Spending Alone Will Not Deliver Industrial Sovereignty

Europe is committing hundreds of billions to defence while its military-industrial system remains divided by national procurement, foreign technology dependencies and unequal production capacity. The decisive question is whether this expenditure will create a sustainable European security architecture or finance another generation of fragmented national capabilities.

The contradiction has become sharper with Ukraine’s emergence as a supplier of combat-developed technologies rather than merely a recipient of military assistance. Poland’s proposed exchange of MiG-29 aircraft for Ukrainian counter-drone expertise illustrates a wider transformation involving Germany, France, Italy, the United Kingdom and the Nordic–Baltic countries. NATO is setting higher investment requirements, the European Union is expanding financial instruments, and bilateral agreements are multiplying. Yet political commitments, industrial contracts and operational readiness remain three different realities. Europe’s security, public finances and manufacturing competitiveness will increasingly depend on whether governments can connect them.

More Money, but Not Yet a Common Defence Economy

The scale of Europe’s financial commitment is considerable. According to the European Defence Agency, EU defence expenditure reached €418 billion in 2025, with €454 billion projected for 2026. Equipment procurement amounted to €115 billion in 2025, yet collaborative procurement represented only 24% of equipment expenditure. The figures reveal the central weakness: expenditure is expanding faster than the institutional mechanisms required to consolidate industrial demand.

NATO’s June 2025 Hague Summit established a separate commitment to invest 5% of GDP annually by 2035, comprising at least 3.5% for core defence and up to 1.5% for broader security-related expenditure. The European Union’s Security Action for Europe instrument, SAFE, provides up to €150 billion in EU-backed loans, while the European Defence Industry Programme, EDIP, establishes €1.5 billion in grants for 2025–2027, including €300 million dedicated to supporting Ukraine’s defence-industrial integration.

These instruments serve different purposes and cannot be combined into a single spending total. NATO establishes national investment commitments; SAFE offers repayable financing; EDIP provides targeted industrial support. Their economic effectiveness depends on national procurement decisions, contract execution and the ability of manufacturers to expand production. Financial authorisation is not manufacturing capacity, and manufacturing capacity is not military availability.

The immediate fiscal tension concerns how governments allocate expenditure between personnel, equipment, infrastructure, technological development and industrial expansion. Purchasing established foreign systems may address urgent capability gaps, while investment in European production can require longer contractual commitments and additional industrial expenditure. The balance determines whether higher defence budgets strengthen European manufacturing or deepen dependence on external suppliers.

Ukraine Is Changing the Economics of Technology Transfer

Ukraine’s defence-industrial relationships are increasingly structured around reciprocal technological exchange. The significance lies in the transfer of engineering knowledge, manufacturing rights, operational information and technical adaptation capabilities, rather than exclusively in the delivery of equipment.

The United Kingdom’s cooperation with Ukraine illustrates this change. A September 2025 technology-sharing announcement identified the Ukrainian-designed Octopus interceptor as an initial project, with a stated ambition to manufacture thousands of systems monthly. In January 2026, the British government reported that Octopus cost less than 10% of the drone it was intended to destroy and described design modifications occurring approximately every six weeks. The March 2026 industrial declaration subsequently incorporated licensed production and the broader Lyra programme, connecting unmanned systems, air defence and advanced weapons development.

These official claims are commercially and operationally significant, but production targets and reported cost advantages do not establish audited output or combat performance. The economic value of interception depends on the complete defensive system: sensors, communications, operators, maintenance, ammunition expenditure and the consequences of failure. A low-cost interceptor without reliable detection and command integration cannot resolve the wider problem of defending critical infrastructure against repeated attacks.

Germany’s 14 April 2026 strategic partnership with Ukraine identified joint-production arrangements involving the Anubis long-range and Seth-X mid-range unmanned systems. Norway signed its first Build with Ukraine production arrangements on 27 April 2026, while Lithuania announced cooperation involving the SkyFortress acoustic detection system and a proposed industrial venture between Pekkla UAB and December One RND Ltd, targeting production in 2027.

Poland’s proposed arrangement adds another dimension. Deputy Minister of National Defence Cezary Tomczyk announced in November 2026 that negotiations concerning two additional MiG-29 aircraft and Ukrainian counter-drone technologies were approaching completion. The industrial importance depends on whether Warsaw receives finished equipment, technical documentation, software, manufacturing rights or broader development capabilities. Final contractual provisions and completed technology transfers remain outside the established record.

Ukraine’s emerging value to European defence is therefore not confined to what it manufactures. It also concerns how rapidly its operational experience can be converted into industrial designs that European companies can reproduce, modify and sustain.

Europe’s Industrial Sovereignty Is Limited by Contracts, Components and National Interests

European defence production remains organised around national industrial capabilities and multinational programmes whose interests do not always coincide. Germany contributes substantial engineering, ground-systems, ammunition and air-defence capabilities. France maintains advanced combat aviation, missile and systems-integration industries. Italy contributes aerospace, electronics, radar, naval technologies and complex weapons through companies including Leonardo, Fincantieri and multinational industrial structures such as MBDA. The United Kingdom combines advanced military engineering with bilateral technology development and manufacturing cooperation.

These capabilities offer industrial depth, but they do not automatically constitute an integrated European production system. A multinational programme must resolve industrial workshare, intellectual-property ownership, export restrictions, technical certification, procurement schedules and responsibility for modifications. Different national requirements can produce duplicated development and incompatible equipment even when governments pursue comparable military objectives.

Air and missile defence demonstrates the problem. Patriot, SAMP/T, IRIS-T SLM and NASAMS provide different technical and operational capabilities, with distinct industrial supply chains and integration requirements. Their presence in European inventories does not establish a unified defensive architecture. Effective cooperation requires compatible surveillance, protected communications, command procedures, training and sustainable interceptor supplies.

The institutional division is equally important. NATO remains responsible for collective defence planning and operational interoperability, while the European Union finances eligible industrial development and collaborative procurement. National governments retain decisive authority over acquisitions, military commitments and many technology-transfer decisions.

The resulting system can encourage cooperation without guaranteeing it. SAFE financing may support common procurement, but it cannot eliminate disagreements over specifications, domestic industrial participation or suppliers. EDIP may strengthen industrial development, yet its €1.5 billion envelope is substantially smaller than the capital requirements implied by Europe’s aggregate defence expenditure.

The strongest measure of industrial sovereignty is consequently not the nationality of a prime contractor. It is whether participating governments possess sufficient legal rights, qualified suppliers, maintenance capacity and technical access to sustain essential military functions when individual production sites or external supply relationships are disrupted.

The Eastern Flank Is Becoming Europe’s Military-Industrial Testing Ground

NATO’s Eastern Sentry, launched on 12 September 2025 following Russian drone incursions into Polish airspace, represents an operational response to the increasingly demanding security environment along the Alliance’s eastern frontier. It connects surveillance, combat aviation, air-defence capabilities and multinational coordination, but remains distinct from EU procurement and industrial programmes.

The Nordic–Baltic countries are developing complementary arrangements. Sweden’s May 2026 announcement envisaged Ukraine acquiring up to 20 Gripen E/F aircraft, potentially accompanied by donations of up to 16 Gripen C/D aircraft. The Swedish package was valued at SEK 25.2 billion, including SEK 22.2 billion associated with aviation-related measures. These announcements remain subject to contractual and implementation conditions and should not be treated as completed aircraft deliveries.

Norway announced plans to provide more than NOK 12 billion in 2026 for Ukrainian drone and autonomous-system procurement. Latvia, which co-leads the Drone Coalition with the United Kingdom, identified 20 participating countries and planned €50 million for drone procurement during 2026. Its bilateral framework with Ukraine envisaged approximately €110 million over the first two years, subject to the required authorisations.

Lithuania’s October 2026 arrangements concerning SkyFortress and electronic-warfare production demonstrate how smaller countries can seek specialised industrial roles through Ukrainian technology partnerships. The proposed industrial localisation is significant, but planned facilities, signed memoranda and successful testing remain different stages of capability development.

The emerging pattern is a distributed network in which countries contribute procurement demand, engineering resources, manufacturing capacity, testing infrastructure and operational experience. Its vulnerability is that bilateral acceleration may produce technical fragmentation unless equipment can be integrated into common NATO-compatible architectures.

NATO, Washington and Türkiye Complicate the Meaning of European Autonomy

Europe’s industrial transformation is occurring within a security relationship in which the United States remains central to advanced military technologies, strategic deterrence and NATO interoperability. American-origin equipment can provide capabilities that European producers cannot immediately replicate, but its acquisition may create contractual dependencies involving proprietary components, software, maintenance and export permissions.

This is not an argument for eliminating transatlantic procurement. The Hague Summit declaration explicitly supported stronger transatlantic defence-industrial cooperation and measures to reduce barriers to defence trade. The underlying challenge is to distinguish productive interdependence from vulnerabilities that could restrict European operational decisions.

Türkiye occupies a different position. As a NATO Ally with an independent defence-industrial sector outside EU membership, its potential participation in European programmes depends on the applicable procurement, industrial-origin and authorisation requirements. Cooperation cannot be inferred from NATO membership alone.

Russia and Belarus add a geographic and operational constraint. NATO identifies Russia as its principal direct security threat, while Belarus’s military relationship with Moscow affects northeastern European defence planning. Russian military regeneration, electronic warfare and hybrid activity create continuing requirements for European surveillance, infrastructure protection and industrial resilience. Yet a sustained threat assessment must not be confused with a prediction of imminent conflict.

The resulting geopolitical structure contains a persistent contradiction: Europe seeks greater freedom of industrial and military action while continuing to depend on multinational supply chains, American technologies, national procurement sovereignty and different regional security priorities. Autonomy cannot be established by expenditure alone; it requires enforceable technology rights and the practical capacity to maintain and replenish equipment.

The Cost of Inaction Will Fall on Procurement Budgets, Industry and Military Readiness

Between 2027 and 2028, the decisive issue will be whether national governments convert higher defence allocations and bilateral technology agreements into repeat procurement, operationally compatible equipment and demonstrable manufacturing output. The EU’s Readiness Roadmap 2030 identifies the European Drone Defence Initiative, Eastern Flank Watch, European Air Shield and European Space Shield as capability priorities, but their implementation depends on national decisions, technical integration and industrial investment.

Three outcomes remain possible through 2031. Industrial convergence would strengthen common standards, multinational manufacturing and supply-chain resilience. Bilateral acceleration could deliver rapid technological gains while leaving continental integration incomplete. Persistent fragmentation would increase procurement costs through duplicated programmes, incompatible systems and limited production consolidation. These pathways may overlap rather than emerge as mutually exclusive outcomes.

The cost of insufficient coordination will be distributed unevenly. National treasuries could finance overlapping procurement and sustainment systems. Defence manufacturers could face uncertain order volumes that discourage investment in capacity. Smaller suppliers could bear the expense of incompatible certification and production requirements. Armed forces could receive equipment whose maintenance, ammunition supply or communications interfaces prevent efficient multinational employment. Ukraine could remain dependent on fragmented support despite providing technologies that European partners seek to industrialise.

The relevant test is already visible in the contrast between €454 billion in projected EU defence expenditure for 2026 and the 24% collaborative share of equipment procurement recorded for 2025. Additional spending will not necessarily correct that structure.

Over the next 12–24 months, the meaningful measure of progress will be the proportion of financial commitments translated into funded orders, completed technology licences, verified production, qualified suppliers and operational interoperability. If governments fail to connect those functions, European taxpayers will finance a larger defence-industrial system without obtaining a proportionate increase in usable military capability.

Russia–Ukraine War and the Fracturing European Security Order: Military Power, Strategic Alliances and the Limits of Diplomacy

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Navigational Index

Pillar I — Europe’s New Military and Institutional Architecture

Strategic geography, national defence policies, NATO obligations and European security institutions

Chapter 1 — The Transformation of European Defence: From Military Assistance to Reciprocal Strategic Integration

Chapter 2 — Poland and Ukraine: Technology Transfers, MiG-29 Aircraft, Anti-Drone Defence and Eastern-Flank Industrial Integration

Chapter 3 — NATO, the European Union and the New Defence Architecture: Eastern Sentry, SAFE, EDIP and Readiness 2030

Chapter 4 — Country-by-Country Strategic Assessment: Germany, France, Italy, the United Kingdom, Poland, Ukraine and the European Defence Core

Chapter 5 — Northern, Baltic, Central and Southeastern Europe: Regional Defence Coalitions, Bilateral Agreements and Emerging Security Partnerships

Pillar II — Military Technologies, Industrial Agreements and Production Networks

Weapons systems, manufacturers, industrial capacity, technologies and cross-border production

Chapter 6 — Europe’s Drone and Counter-Drone Revolution: Ukrainian Technologies, European Production and the Economics of Interception

Chapter 7 — Integrated Air and Missile Defence: Patriot, SAMP/T, IRIS-T, NASAMS, European Sky Shield and Anti-Ballistic Technologies

Chapter 8 — The European Defence-Industrial Network: Joint Ventures, Licensed Manufacturing, Technology Transfers and Supply-Chain Integration

Chapter 9 — European Airpower and Precision Strike: Combat Aircraft, Missiles, Long-Range Weapons and Collaborative Development

Chapter 10 — Artificial Intelligence, Electronic Warfare, Autonomous Systems, Cyber Defence, Space and Multi-Domain Integration

Chapter 11 — Industrial Geography and Production Capacity: Country-Level Specialisation, Manufacturers, Investment, Critical Dependencies and Expansion Constraints

Pillar III — Geopolitical Consequences, Industrial Sovereignty and the 2031 Outlook

Strategic dependencies, financial sustainability, alliance dynamics, future production and scenarios

Chapter 12 — The Changing European Security Balance: Russia, Belarus, the United States, Türkiye and the Global Defence Market

Chapter 13 — Defence Economics and Industrial Sovereignty: Financing, Procurement, Intellectual Property, Export Controls and Strategic Dependencies

Chapter 14 — The Future of European Defence Partnerships: Emerging Agreements, Technology Coalitions, Production Hubs and Industrial Consolidation

Chapter 15 — Strategic Scenarios, Early-Warning Indicators and the European Defence Outlook, 2027–2031

Chapter 16 — Policy Options and Final Net Assessment: Building an Interoperable, Scalable and Resilient European Defence System

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Russia’s Nuclear Coercion Against NATO’s Eastern Flank: Kaliningrad – Ukraine Support and the Risk of a Manufactured Escalation Crisis

Master Abstract

European defence is becoming a distributed military-industrial ecosystem

The defining feature of Europe’s current defence transformation is the convergence of operational necessity and industrial restructuring. Russia’s prolonged war against Ukraine has exposed the limitations of force structures, procurement processes and production models developed for a security environment in which large-scale, sustained conventional warfare was considered less immediate. The simultaneous proliferation of inexpensive unmanned systems, precision weapons, electronic warfare and attacks against critical infrastructure has created demand for defensive capabilities that cannot be met economically through traditional high-cost interception systems alone.

Ukraine has consequently acquired strategic importance beyond its position as a beneficiary of European security assistance. Its military and industrial ecosystem has developed capabilities for rapid technological modification, operational testing and adaptation under combat conditions. European governments are increasingly seeking to combine that experience with their own manufacturing infrastructure, engineering resources, certification procedures and financial capacity. The resulting partnerships extend from counter-drone equipment and precision-strike systems to air defence, software integration, military data exploitation and new procurement arrangements.

The transition is visible in official bilateral instruments. The United Kingdom and Ukraine formalised an industrial collaboration framework in March 2026, including licensed production of the Ukrainian-designed Octopus interceptor and the broader Lyra programme. Germany and Ukraine identified joint production arrangements for Anubis and Seth-X drones in April 2026. Sweden has advanced a framework integrating defence production, innovation and combat aviation cooperation. These developments indicate a shift from equipment donations towards a more reciprocal relationship involving design rights, intellectual property, technology access, manufacturing and operational learning. GOV.UK+2

Poland and Ukraine: the significance of reciprocal military cooperation

Poland occupies a particularly important position in this emerging network because of its geography, military modernisation requirements, proximity to Ukrainian production and central role in NATO’s northeastern defence posture. The proposed exchange of Polish MiG-29 aircraft for Ukrainian drone and counter-drone expertise would represent a technologically significant arrangement, even if the number of aircraft involved is small. Its importance lies in converting existing military assets into access to capabilities potentially applicable to Polish territorial defence, critical infrastructure protection and future domestic production.

The public position announced on 10 November 2026 indicates Ukrainian agreement in principle to provide counter-drone technologies, with discussions concerning two Polish MiG-29 aircraft reportedly nearing completion. However, a final government-to-government agreement specifying the technology package, intellectual-property provisions, delivery schedule and industrial implementation has not been independently established in the accessible official record. The announcement therefore supports an assessment of advanced negotiations, not completed technology transfer.

The strategic value will depend on what Poland actually receives. Access to finished interceptors, manufacturing documentation, software, sensor integration, electronic-warfare techniques or operational testing data would produce different levels of industrial independence and military capability. A transfer of technical knowledge without production rights, sustained engineering cooperation and integration into Polish command systems would yield narrower benefits than a comprehensive co-development and manufacturing arrangement.

NATO and the European Union are performing complementary but distinct functions

The European Union is seeking to organise financing, industrial coordination, capability development and procurement, while NATO remains central to collective defence planning, command structures, interoperability and operational deterrence. The two institutions’ programmes are not interchangeable. NATO’s strengthened eastern-flank posture, including Eastern Sentry and the integration of additional air-defence assets, addresses immediate military requirements. EU initiatives seek to build the industrial, technological and financial foundations for sustained readiness.

The EU’s Readiness Roadmap 2030 identifies the European Drone Defence Initiative, Eastern Flank Watch, European Air Shield and European Space Shield as four complementary capability programmes. These are intended to strengthen detection, surveillance, interception, integrated air defence and space-enabled military functions. Their implementation remains dependent on national decisions, procurement, industrial mobilisation and compatibility with NATO command-and-control arrangements. European Commission+2

The financing framework is equally significant. SAFE provides up to €150 billion in EU-backed loans for eligible defence investments, while NATO’s 2035 commitment establishes a separate political benchmark for national defence and security-related spending. These figures should not be interpreted as funds already spent, nor mechanically added together: they represent different financial instruments, periods and accounting categories. The principal issue is whether these commitments create long-term demand sufficient to justify industrial capacity expansion and reduce fragmentation. Consilium+1

Europe is developing different national models of defence-industrial cooperation

National approaches remain heterogeneous. Germany is developing industrial cooperation with Ukraine alongside its established role in European ground-based air defence, ammunition and military manufacturing. The United Kingdom is placing greater emphasis on rapid technology integration, licensed Ukrainian production and bilateral defence-industrial collaboration. Sweden is combining advanced aviation capabilities, industrial co-production and innovation partnerships. Poland is positioned to integrate frontline defence requirements with new production and technology relationships. These approaches overlap but differ in governance, industrial structure and strategic priorities.

France and Italy remain essential to the wider European architecture because of their defence-industrial capabilities in aerospace, air and missile defence, electronics, naval systems and complex weapons. Their strategic significance extends beyond individual bilateral relationships with Ukraine: cooperation between established European industrial groups, national armed forces and joint European programmes will influence whether new counter-drone technologies can be integrated into broader, multi-layered defence systems.

Northern and Baltic countries contribute additional dimensions through regional operational requirements, drone capability cooperation, joint procurement and mechanisms for exploiting Ukrainian battlefield experience. The cumulative effect is the emergence of an industrial network in which countries increasingly contribute complementary assets rather than relying exclusively on national technological portfolios. Its effectiveness will depend on coordination between national authorities and on whether bilateral agreements can produce systems usable across national boundaries.

The global implications extend beyond the European theatre

The transformation has consequences for the transatlantic defence relationship and international defence markets. European investment in domestic production can reduce vulnerabilities associated with limited suppliers and manufacturing bottlenecks. It can also generate new demands for access to American technologies, export authorisations and interoperability with existing NATO equipment. Greater European industrial capability therefore does not automatically mean reduced transatlantic cooperation; the two may expand together where production, licensing and operational requirements are aligned.

The changing role of Ukraine is especially consequential. Combat-developed technologies could become part of European production portfolios, while established European manufacturers could provide industrial scale, quality assurance, financing and access to wider markets. This creates opportunities but also raises questions concerning intellectual-property ownership, export governance, security of sensitive operational data and competition between national industrial priorities.

The principal constraint is the difference between technological innovation and sustainable military capability. A successful battlefield prototype does not establish industrial production capacity; a production contract does not establish operational readiness; and an operationally successful interceptor does not necessarily remain effective after adversary tactics evolve. European governments must therefore develop systems that can be produced economically, updated rapidly and maintained at scale, while retaining sufficient technological diversity to respond to changing threats.

The strategic horizon: 2027–2031

Over the next five years, Europe faces three broad potential pathways. One is progressive industrial convergence, in which common procurement, shared technical standards and production partnerships make the defence-industrial ecosystem more interoperable and economically sustainable. A second is asymmetric development, with selected national and bilateral programmes advancing rapidly while wider European integration remains incomplete. A third is persistent fragmentation, characterised by duplicated procurement, uneven industrial investment and incompatible systems.

The present evidence supports the expectation of continued bilateral and multinational industrial expansion, but it does not yet establish the scale or speed of eventual integration. The most informative developments will be completed technology-transfer agreements, signed production contracts, verified manufacturing output, joint operational trials, interoperable command systems and the conversion of financing commitments into delivered equipment.

The decisive question for European defence is no longer solely how much equipment governments purchase, but how rapidly they can transform innovation, industrial resources and multinational agreements into forces capable of sustained, coordinated operations.

Key Evidence Table — Verified Programmes, Agreements and Commitments

Indicator	Value / status	Reference date	Definition / scope	Issuer	Exact source
NATO defence investment commitment	5% of GDP by 2035	June 2025	At least 3.5% core defence; up to 1.5% wider defence/security	NATO	Defence Investment and NATO’s 5% Commitment — NATO — Jun 2026
EU SAFE	Up to €150 billion	May 2025	EU-backed loans for eligible defence investment and procurement	Council of the EU	SAFE: Council Adopts €150 Billion Boost — Council — May 2025
European Defence Industry Programme	€1.5 billion	December 2025	Grants supporting defence-industrial readiness, 2025–2027	Council of the EU	Common Defence Procurement — Council of the EU — Undated
EU Defence Readiness Roadmap	Four flagship initiatives	October 2025	Drone Defence, Eastern Flank, Air Shield, Space Shield	European Commission	Readiness Roadmap 2030 — European Commission — Oct 2025
NATO Eastern Sentry	Operational activity launched	September 2025	Enhanced deterrence and air defence along NATO’s eastern flank	NATO	Strengthening NATO’s Eastern Flank — NATO — Undated
UK–Ukraine Octopus	Licensed production agreement	March 2026 declaration	Ukrainian-designed interceptor production in the UK	UK Government	Enhanced Security and Defence Industrial Collaboration Declaration — UK Government — Mar 2026
Germany–Ukraine Anubis/Seth-X	Joint-production arrangements identified	April 2026	Long-range and mid-range strike drone cooperation	German Federal Government	Declaration on a Strategic Partnership — German Federal Government — Apr 2026
Sweden–Ukraine Gripen programme	Up to 20 E/F aircraft proposed for acquisition; up to 16 C/D for donation	May 2026	Planned aircraft procurement and conditional donation, not completed deliveries	Swedish Government	Ukraine to Procure Swedish Fighter Jets — Government of Sweden — May 2026
UK defence-industry presence in Ukraine	Kyiv Business Centre opened	October 2026	Industrial partnerships, investment and co-development infrastructure	UK Ministry of Defence	New Kyiv Business Centre Opens in Ukraine — UK Ministry of Defence — Oct 2026

Financial figures refer to different instruments and accounting categories and are not additive. Announced procurement intentions are distinguished from contracted deliveries and operational capabilities.

Competing Strategic Pathways

The available record supports three distinct, potentially overlapping trajectories rather than a defensible probabilistic forecast.

Strategic pathway	Diagnostic support	Constraints / contrary evidence	Indicators	Current standing
Industrial convergence	SAFE, EDIP, joint production agreements, common NATO requirements	National procurement sovereignty, intellectual-property restrictions, incompatible industrial incentives	Multinational production contracts, interoperable systems, shared standards	Advancing institutionally; operational integration remains incomplete
Bilateral acceleration	UK–Ukraine, Germany–Ukraine, Sweden–Ukraine and Poland–Ukraine cooperation	Bilateral solutions can generate fragmentation and duplicated programmes	Licensed production, bilateral factories, technology access and national procurement	Strong documentary support for continued expansion
Persistent fragmentation	Separate national procurement processes and overlapping capability initiatives	Increasing EU funding and industrial partnerships provide incentives for coordination	Duplicated procurement, incompatible command systems, weak joint-production output	Material structural risk; not established as the dominant future outcome

The pathways are not mutually exclusive. Europe could simultaneously develop effective bilateral production networks and remain fragmented at the level of procurement, sustainment and operational integration.

Principal Gaps and Watch Indicators

1. Poland–Ukraine: final technology-transfer instrument

The decisive records are the signed agreement, implementing arrangements and official confirmation of aircraft handover. The content of technology access, production rights and military integration remains particularly important.

2. Actual European defence production

Monitor verified production deliveries and sustained monthly manufacturing output, rather than announced industrial capacity or prospective factory openings. This is essential for assessing whether capability expansion can match operational demand.

3. Integration of European counter-drone systems

Track operational tests demonstrating shared sensors, communications, command systems and interception capabilities under NATO-compatible procedures. National systems operating independently do not by themselves constitute integrated continental defence.

4. Conversion of financial commitments into procurement

Track SAFE loan agreements, EDIP awards, national procurement commitments, industrial investment and delivered equipment. Distinguish financing availability from contractual obligations and actual expenditure.

5. Industrial sovereignty and technology dependencies

Monitor ownership of intellectual property, export-control restrictions, dependence on foreign electronics and propulsion components, manufacturing resilience and access to updated Ukrainian operational data.

Strategic Relationship Architecture

The following scheme distinguishes the operational, financial and industrial mechanisms shaping European defence. Its purpose is to show institutional relationships rather than imply that all announced programmes are already operational.

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PILLAR I — EUROPE’S NEW MILITARY AND INSTITUTIONAL ARCHITECTURE

Strategic Geography, National Defence Policies, NATO Obligations and European Security Institutions

Chapter 1 — The Transformation of European Defence: From Military Assistance to Reciprocal Strategic Integration

Europe’s defence transformation has crossed the threshold from emergency assistance to industrial restructuring

The principal strategic development in European defence is the emergence of a reciprocal military-industrial relationship in which Ukraine increasingly provides operationally validated technological knowledge while European partners contribute manufacturing capacity, investment, advanced weapons systems and institutional integration. This represents a significant change in the underlying organisation of European security. During the initial stages of Russia’s full-scale invasion, military assistance primarily involved transferring existing equipment, releasing national inventories, training Ukrainian personnel and financing urgent acquisitions. Although those activities remain important, they are increasingly complemented by bilateral production agreements, technology licensing, research partnerships, defence-industrial localisation and institutional mechanisms intended to facilitate Ukraine’s gradual integration into the European defence technological and industrial base. The resulting system is not a unified European defence industry, nor does it represent a transfer of NATO’s collective defence responsibilities to European Union institutions. Rather, it consists of several overlapping structures through which different governments address distinct operational and industrial requirements, frequently using Ukraine’s battlefield experience as an input for their own capability development.

The transformation is especially visible in the distinction between military equipment as an asset and military technology as a productive capability. An aircraft, artillery system or interceptor can produce an immediate military effect after transfer, provided that trained personnel, maintenance capacity and suitable ammunition exist. Access to its underlying design, manufacturing processes, technical documentation, integration software and engineering expertise may instead enable a receiving country to reproduce, modify or develop successive generations of equipment. These outcomes are not equivalent. Equipment transfers address identifiable force requirements; technology transfers can reshape the industrial and innovation capacity of the receiving state. Their eventual strategic value depends on the contractual scope of intellectual-property rights, the completeness of technical documentation, access to specialised components, security approvals and the capacity to sustain design modifications independently. Consequently, a relatively modest bilateral exchange can have implications extending beyond its immediate monetary value, but only when the arrangements establish meaningful industrial and technological rights rather than a limited exchange of finished products.

This structural transition has acquired an explicit institutional dimension. In March 2026, the United Kingdom and Ukraine announced an enhanced defence-industrial cooperation framework covering joint production, research and development, supply-chain integration and collaborative technological projects. The declaration identified the Lyra programme as a portfolio of cooperation involving drones, air defence, long-range effectors and other advanced technologies, while recognising licensed production of the Ukrainian-designed Octopus interceptor in the United Kingdom. The significance of the agreement is not confined to one interceptor platform: it demonstrates a model in which combat-informed Ukrainian engineering can be combined with a mature European industrial environment and supported through government-to-government arrangements. Its effectiveness will ultimately be determined by production output, contractual implementation and continuing technological adaptation rather than by the existence of the declaration alone. UK–Ukraine Joint Statement: Enhanced Security and Defence Industrial Collaboration Declaration — UK Government — Mar 2026. GOV.UK

Norway has developed a complementary model with an especially clear reciprocal dimension. Its government announced on 14 April 2026 that Norwegian and Ukrainian defence industries would deepen cooperation to develop technologies and increase production, including arrangements permitting Ukrainian drones to be manufactured in Norway. Ukraine committed to sharing operational lessons, information and other relevant insights with Norway, while the Norwegian government identified industrial production, military training, air-defence development and ammunition as areas of cooperation. On 27 April, the two countries signed arrangements for their first Build with Ukraine production project, with implementation dependent on the necessary export authorisations. The Norwegian case is institutionally important because it explicitly treats knowledge generated by Ukraine’s military experience as an input into Norway’s own defence planning and industrial development, rather than regarding Ukrainian expertise solely as a contribution to wartime procurement. Norway and Ukraine to Establish Closer Defence Cooperation — Office of the Norwegian Prime Minister — Apr 2026; Signing of Agreement to Build Ukrainian Drones in Norway — Norwegian Ministry of Defence — Apr 2026. Regjeringen.no

The strategic geography of European defence is changing

Europe’s military geography must now be understood as the interaction of several geographically distinct but operationally connected zones. The northeastern frontier, extending through the Baltic region and Poland, is directly affected by military developments in the Baltic Sea region, Russian deployments and the security situation in Belarus. The central European industrial region provides manufacturing, engineering, logistics and infrastructure resources required for force regeneration. The North Atlantic, Norwegian Sea and High North constitute a separate operational environment involving maritime access, strategic surveillance, reinforcement routes and the defence of northern infrastructure. The Mediterranean and Black Sea represent different but related strategic environments, with their own naval, air-defence, critical-infrastructure and reinforcement requirements. Ukraine occupies a distinctive position within this arrangement because it is both a major theatre of contemporary high-intensity warfare and an increasingly consequential source of military-technological development.

These regions do not have identical capability priorities. Poland and the Baltic states have particularly strong incentives to develop surveillance, early warning, rapid interception, mobilisation and reinforcement capabilities suitable for defending territory close to potential military threats. Germany’s importance includes its ability to support the movement, sustainment and reconstitution of Allied forces in central Europe. France and the United Kingdom contribute military capabilities extending beyond continental territorial defence, including advanced combat aviation, naval operations and nuclear deterrence. Italy occupies an important position in southern European military geography, particularly through its industrial capabilities and its access to Mediterranean operating areas. Northern European states are adapting their security arrangements to an environment in which Baltic and Arctic operational considerations are increasingly interconnected with the wider NATO defence posture. These distinctions explain why a single European military-industrial policy cannot be designed solely around one category of weapon or one geographic threat.

The operational consequences of unmanned warfare are particularly significant. The proliferation of relatively inexpensive unmanned aircraft creates problems that differ from the interception of conventional combat aircraft or high-performance missiles. Defensive systems must detect small targets operating at different altitudes and speeds, discriminate between genuine threats and other objects, coordinate multiple sensors and apply an appropriate response without exhausting scarce high-value interceptors. Electronic warfare, acoustic surveillance, electro-optical sensors, radar, command software and kinetic interception each address different elements of this problem. No single technology eliminates the requirement for layered defence. Moreover, technical effectiveness depends heavily on the operating environment, adversary countermeasures and the ability to maintain a timely software-update and equipment-modification cycle. The resulting demand is not simply for more interceptors, but for an adaptable architecture capable of combining detection, identification, decision-making and engagement through interoperable systems.

Lithuania provides an unusually concrete illustration of this transition from acquiring individual platforms towards absorbing operationally developed technology. On 2 October 2026, its Ministry of National Defence announced the installation and testing of the Ukrainian SkyFortress acoustic drone-detection system. The agreement covered sensor-data processing, non-classified acoustic and radio-frequency signature libraries and personnel training. These elements matter because they include parts of the information architecture supporting detection and classification, not merely the physical sensors. Lithuania’s ministry nevertheless explicitly identified testing as necessary to determine the system’s capacity to detect and identify low-flying unmanned aircraft under Lithuanian operating conditions. This distinction between a signed contract, installation, testing and demonstrated operational performance is essential to any credible assessment of Europe’s emerging defence capabilities. Lithuania Deploys Ukrainian SkyFortress Acoustic Drone Detection System — Lithuanian Ministry of National Defence — Oct 2026. LR Krašto apsaugos ministerija

Industrial reciprocity is becoming a strategic mechanism

The emerging cooperation model is based on the complementary advantages of the participating states, but those advantages are not uniformly distributed. Ukraine has accumulated operational experience in adapting equipment under conditions of continuous conflict and electronic contestation. European industrial partners may contribute manufacturing infrastructure, specialised machinery, quality-control systems, access to components, financing, established supplier networks and certification processes. Governments provide procurement demand, regulatory authorisation, security arrangements and mechanisms for cross-border cooperation. The productive relationship therefore involves at least three layers: technical knowledge, industrial capacity and institutional authority. If any one layer is absent, the benefits of technology exchange may remain limited.

A functioning industrial partnership requires decisions over which party controls the design baseline, who may modify the technology, which components can be substituted, where production can occur, who owns improvements and how export or re-export permissions are obtained. These issues become especially important for systems containing proprietary software, restricted components or technologies originating in several jurisdictions. A licence to manufacture equipment in one country may not confer unrestricted rights to sell it to another. Equally, permission to use a specific design does not necessarily include access to future modifications or operational datasets. Europe’s defence-industrial integration will depend on whether governments and manufacturers resolve these questions sufficiently to enable genuine distributed production without undermining national security obligations or commercial incentives for innovation.

Lithuania’s October 2026 industrial arrangements demonstrate the institutional and commercial elements of this mechanism. Its Ministry of National Defence reported that Lithuania’s Pekkla UAB and Ukraine’s December One RND Ltd had signed a letter of intent concerning cooperation in electronic-warfare equipment and unmanned-aircraft components. The stated objective was to establish a joint venture in Lithuania, with production planned for 2027. The Lithuanian company would contribute infrastructure, regulatory knowledge and commercial access, while the Ukrainian partner would contribute research, technical expertise and product concepts. This is a prospective industrial localisation arrangement, not evidence that the proposed joint venture is already producing at scale. It nevertheless shows how national governments can support relationships in which Ukrainian technological development and European industrial capacity become mutually reinforcing. Lithuania Gains Ukraine’s Drone Production Technology — Lithuanian Ministry of National Defence — Oct 2026. LR Krašto apsaugos ministerija

The institutional challenge: creating capability without reproducing fragmentation

The central difficulty is that industrial reciprocity can generate either integration or additional fragmentation. Bilateral agreements may accelerate development because two governments can define a narrow objective, identify relevant manufacturers and allocate responsibilities without requiring a common European procurement decision. That flexibility is valuable when technical requirements change rapidly. However, multiple bilateral programmes can also produce incompatible communications protocols, competing sensor architectures, divergent certification processes and separate ammunition or maintenance arrangements. The existence of numerous partnerships therefore cannot be used as a straightforward measure of European military integration.

The strategic objective should be evaluated through observable outcomes: whether national forces can exchange surveillance information, whether common equipment can be maintained through distributed supplier networks, whether components are interchangeable, whether industrial production can continue when one site is disrupted and whether procurement arrangements create sufficient demand for sustained investment. An institutional declaration is an enabling instrument; a signed production agreement establishes a more specific relationship; a funded production contract creates a measurable industrial obligation; and verified deliveries establish actual output. Operational effectiveness requires another assessment altogether. A mature European defence architecture must therefore combine the speed of bilateral innovation with enough common standards, procurement coordination and NATO-compatible operational integration to prevent the proliferation of incompatible national solutions.

Chapter 1 — Key judgments. The transition towards reciprocal technology partnerships is documented across several European jurisdictions, but its aggregate industrial effects remain uneven and incompletely measured. The strongest evidence concerns the widening range of governmental agreements and the explicit inclusion of Ukrainian design, research and production expertise in European defence-industrial arrangements. The principal uncertainty is the rate at which these commitments will produce reliable manufacturing capacity, common technical standards and deployed capabilities.

What would change the assessment: Official records demonstrating sustained multinational production, repeat procurement orders, mutually recognised certification and completed operational interoperability testing would strengthen the conclusion that Europe’s emerging industrial network is becoming a coherent defence capability. Persistent regulatory delays, unresolved licensing conditions or programmes that fail to progress beyond demonstration would support a more fragmented interpretation.

Chapter 2 — Poland and Ukraine: Technology Transfers, MiG-29 Aircraft, Anti-Drone Defence and Eastern-Flank Industrial Integration

Poland’s emerging strategic position extends beyond the transfer of military equipment

The most consequential aspect of the proposed Polish–Ukrainian exchange is the possibility that Warsaw could obtain access to Ukrainian counter-drone expertise through a reciprocal military arrangement, thereby linking Poland’s remaining legacy aircraft inventories to the development of a new domestic defensive capability. This is strategically different from an ordinary aircraft donation. The potential value of the arrangement depends principally on the technological rights and operational knowledge acquired by Poland, the completeness of the associated transfer and the country’s ability to integrate the resulting capabilities into its defence and industrial structures. The number of aircraft involved is relevant to the transaction, but is not a sufficient basis for valuing the technological benefit.

The arrangement under discussion concerns two additional Polish MiG-29 aircraft and unspecified Ukrainian drone and counter-drone technologies. The announcement attributed to Poland’s Deputy Minister of National Defence Cezary Tomczyk on 10 November 2026 indicates that the parties are approaching the completion of negotiations. The precise scope of the Ukrainian technology package, however, remains decisive: a transfer of finished equipment, industrial drawings, software, electronic-warfare techniques or broader manufacturing rights would each create a different outcome. The accessible official documentation reviewed for this assessment does not independently establish a completed bilateral exchange or the final contractual content of the technology transfer. Accordingly, the proposal must remain classified as an advanced negotiation rather than a completed acquisition.

The reported transfer of 14 MiG-29 aircraft from Poland to Ukraine since March 2023, the prospect of two additional aircraft, and the reported Polish military-assistance figures should also be treated as separate accounting questions. Aircraft deliveries, announced future transfers, military aid packages, budgeted procurement and estimated assistance values do not form a single interchangeable series. A reliable consolidated inventory requires the Polish Ministry of National Defence’s official transfer records, any relevant implementing agreements and a consistent treatment of aircraft condition, transfer dates and associated equipment. The absence of a verified consolidated official accounting in the material retrieved here prevents the reported totals from being presented as independently established figures.

Why counter-drone technology is strategically important for Poland

Poland’s geography creates a particular demand for systems able to distinguish, track and respond to a wide range of airborne threats while preserving scarce resources for higher-priority targets. Its defensive requirements cannot be reduced to a single category of aircraft or missile. Conventional combat aircraft, long-range missiles, loitering munitions, low-flying unmanned aircraft and electronic-warfare activity create different technical and operational challenges. A credible defensive architecture needs surveillance coverage, resilient communications, appropriate interception systems, decision-support software and the capacity to maintain operations during intensive or prolonged activity. Consequently, technologies developed through Ukraine’s experience may be relevant not because they can replace every existing Polish air-defence asset, but because they may complement a wider layered system.

Acoustic detection, passive radio-frequency sensing, electro-optical tracking and small-target radar each offer potential advantages subject to environmental limitations. Acoustic systems can contribute to the detection of low-flying propulsion-driven targets, but their performance is affected by background noise, weather, sensor placement and the target’s acoustic characteristics. Radio-frequency detection depends on relevant emissions and may be ineffective against platforms that do not transmit detectably. Radar performance depends on target characteristics, terrain, clutter and system configuration. Electronic attack can be useful against susceptible communications or navigation links, but effectiveness varies according to an adversary’s design and countermeasures. Kinetic interceptors provide another response option, with their own constraints involving availability, target acquisition, cost and safety. An effective national architecture integrates these methods rather than presuming that any one represents a universal counter-drone solution.

For Poland, access to Ukrainian expertise could therefore be valuable across multiple industrial and operational functions: sensor fusion, classification algorithms, electronic-warfare adaptation, affordable interception, production engineering and training. Yet none of those specific technologies should be assumed to form part of the proposed bilateral package until the competent authorities identify them. The strategic opportunity is clear, but the content of the transaction remains an unresolved factual question.

The MiG-29 exchange as an example of asymmetric technological value

A military exchange involving legacy aircraft and contemporary technology cannot be evaluated solely through the historical acquisition value of the equipment. The MiG-29 may provide military utility to a recipient with the necessary operating infrastructure, trained personnel and maintenance arrangements, even when its continued operation is no longer desirable within the transferring country’s force-development plans. The corresponding technology transfer, if sufficiently extensive, could enable investment in systems better aligned with the transferring country’s evolving requirements. In this sense, the exchange could transform assets approaching the end of their usefulness to one armed force into access to technology with a longer future development horizon.

That conclusion is conditional. Aircraft condition, remaining service life, spare-part availability, maintenance requirements and operational integration determine the practical value of transferred aircraft. Conversely, the industrial value of acquired technology depends on whether Poland obtains access to source designs, technical support, manufacturing processes, software modifications, component specifications and rights to develop derivative systems. A limited technology demonstration or transfer of operational lessons would not justify the same industrial conclusions as an unrestricted production and development licence. The final instrument must therefore be examined for its technical annexes, intellectual-property provisions, export restrictions, delivery obligations and procedures for future modifications.

The wider policy significance is the possibility of creating a recurring reciprocal relationship rather than a single exchange. Poland could contribute manufacturing capacity, supply-chain access, equipment or procurement demand while Ukrainian partners contribute design knowledge and operational testing. Such a relationship would support defence-industrial development only if it were formalised through durable contracts, properly funded programmes and technical cooperation extending beyond the initial transaction. The distinction between a one-off transfer and sustained joint production is fundamental.

Poland’s eastern-flank role and the problem of operational integration

Poland’s geographical position makes it central to the security relationship between Ukraine, the Baltic region and the wider NATO defence system. Its importance derives not only from its national military capabilities but also from the role of Polish territory in the movement, deployment and sustainment of forces and equipment across northeastern Europe. Defence-industrial cooperation involving Poland must therefore be assessed together with military mobility, logistics infrastructure, communications compatibility, industrial resilience and the ability to sustain essential systems under pressure.

The key institutional question is how Ukrainian-derived technologies could be incorporated into Polish operational requirements without creating a parallel system disconnected from existing command and surveillance structures. Technical integration requires verified interfaces, appropriately protected data exchanges, compatible engagement procedures and clear authority over the identification and response to threats. An industrially attractive interceptor may provide limited national benefit if its associated sensors and software cannot exchange information with the wider air-defence architecture. Equally, shared surveillance information may have reduced operational value if the relevant forces cannot act on it in time.

This points towards a possible division of responsibilities between national capability development and multinational standardisation. Poland can pursue bilateral industrial arrangements suited to its immediate requirements, while NATO establishes relevant operational expectations and the European Union provides mechanisms supporting procurement and industrial development. Each institutional level addresses a different part of the problem. Their interaction, rather than their formal existence, will determine whether the resulting capability strengthens national defence and wider Allied interoperability.

Poland–Ukraine cooperation: status and decision framework

Dimension	Current analytical position	Principal implementation requirement	Evidence needed
Additional MiG-29 transfer	Reported proposed transfer of two aircraft	Governmental authorisation, transfer arrangements and aircraft preparation	Official completion statement and handover record
Ukrainian counter-drone technology	Agreement in principle reported; content unspecified	Technical definition of the transferred capability	Signed agreement and technical annex
Intellectual-property rights	Not established	Licensing, permitted modifications, derivative development	Licence or relevant contractual provisions
Polish production	Not established under the reported arrangement	Industrial partner, manufacturing plan, authorisations	Production agreement and procurement award
Operational integration	No verified result attributable to the proposed exchange	Compatibility with national surveillance and engagement systems	Official trials and acceptance documentation
Joint development	Potential future pathway	Funding, personnel, design authority and data-sharing governance	Formal R&D or co-development contract
Export and third-country participation	Not established	National export permissions and technology-origin restrictions	Applicable authorisations and implementing rules

A more consequential question than the immediate aircraft exchange

The longer-term significance of Polish–Ukrainian cooperation will be determined by whether it establishes a production and learning system capable of adapting as threats evolve. Defence technologies that perform effectively in one operational environment may require significant changes to function elsewhere. Differences in terrain, civilian air traffic, telecommunications, weather, electronic interference and command procedures affect performance. The ability to update equipment rapidly can therefore be more consequential than a static initial design. This is where a sustained industrial relationship could provide benefits unavailable through a conventional donation.

Poland’s potential strategic advantage would consist of combining geographic proximity, procurement demand, established military requirements and Ukrainian technical experience within an institutional framework capable of supporting development, production and maintenance. The most important outcome would not necessarily be the immediate delivery of a particular interceptor. It would be the creation of a reproducible mechanism through which successive generations of counter-drone equipment can be tested, improved and integrated with national defensive systems.

Chapter 2 — Key judgments. The potential exchange illustrates the evolution of Ukraine’s role from military-aid recipient towards reciprocal technological partner. However, the final technology package, production rights, contractual structure and completed exchange have not been established through an independently verified official record. The industrial importance of the arrangement should therefore be treated as a conditional strategic opportunity rather than an achieved capability.

What would change the assessment: Publication of a signed bilateral agreement identifying the relevant technologies, formal transfer of the aircraft, establishment of Polish production arrangements and successful operational testing would materially strengthen the case for the exchange as a significant defence-industrial development.

Chapter 3 — NATO, the European Union and the New Defence Architecture: Eastern Sentry, SAFE, EDIP and Readiness 2030

Europe’s institutional transformation rests on different forms of authority, financing and operational responsibility

The central institutional issue is how NATO’s military requirements, European Union financing and industrial instruments, and national procurement sovereignty can be coordinated without confusing their distinct responsibilities. NATO remains responsible for collective defence within the North Atlantic Treaty framework and provides the operational planning, command relationships and military standards essential to Allied interoperability. The European Union possesses different competences, including internal-market regulation, industrial policy, financial instruments, research programmes and mechanisms supporting collaborative procurement. National governments retain decisive authority over their armed forces, defence budgets, most procurement choices and the decision to commit military capabilities to particular operations. These separate jurisdictions explain why European defence integration advances through overlapping arrangements rather than a single hierarchical organisation.

The distinction matters particularly when assessing political announcements. A NATO investment commitment does not automatically create an EU budget allocation. An EU financing regulation does not automatically direct national forces or establish military readiness. A national procurement contract may satisfy domestic capability requirements without producing interoperability across participating states. A bilateral technology-transfer agreement can improve industrial capacity without becoming part of an operational NATO system. The result is a governance challenge in which the relevant institutions must coordinate different decisions taken through different legal procedures and at different times. The effectiveness of Europe’s transformation will depend on whether those separate decisions reinforce one another through consistent capability requirements, production schedules, industrial standards and procurement commitments.

NATO’s 2035 commitment changes the scale of national defence planning

At the Hague Summit on 25 June 2025, NATO Allies committed to investing 5% of gross domestic product annually by 2035 in core defence requirements and broader defence- and security-related activities. The agreement established two categories: at least 3.5% of GDP for core defence, based on NATO’s agreed definition of defence expenditure and linked to NATO capability targets, and up to 1.5% of GDP for wider security-related expenditure. The second category encompasses such areas as critical-infrastructure protection, civil preparedness, network defence, innovation and defence-industrial development. The declaration also provided for annual national plans and a review in 2029, while permitting eligible direct contributions to Ukraine’s defence and defence industry to be counted in relevant expenditure reporting. These provisions are important because they connect national financial planning to longer-term military capability requirements, but they should not be interpreted as evidence that every Ally has already achieved the expenditure target. Defence Investment and NATO’s 5% Commitment — NATO — Jun 2026; The Hague Summit Declaration — NATO — Jun 2025. NATO Topic

The industrial consequences of this commitment depend on more than the headline percentage. National expenditure can be directed towards personnel, maintenance, infrastructure, ammunition, procurement, research and other eligible activities, each with different effects on industrial capacity. Personnel expenditure may improve force generation without generating corresponding new manufacturing capacity. Procurement can produce industrial investment when it is sufficiently predictable and concentrated on products requiring additional production lines. Infrastructure expenditure can improve reinforcement and resilience but may have limited immediate effects on weapons output. Research programmes can produce new capabilities but frequently involve long development cycles and uncertain results. A credible assessment must therefore consider the composition, timing and execution of spending rather than treating the GDP share as a complete measure of military effectiveness.

The 2029 review provision is particularly significant. It creates an institutional opportunity to assess whether expenditure trajectories remain consistent with the threat environment and updated NATO capability targets. It also introduces a medium-term evaluation point for national governments and industry. Manufacturers considering capital-intensive investments need confidence that procurement demand will continue beyond a single budget year; governments need to avoid creating expensive excess capacity that cannot be supported through sustained purchases. NATO’s expenditure framework can contribute to predictability, but only if national plans translate political commitments into adequately financed contracts.

Eastern Sentry and the operational response to airspace violations

The launch of Eastern Sentry on 12 September 2025 represents a distinct development because it concerns operational posture rather than industrial financing. NATO announced the activity after Russian drones violated Polish airspace on 10 September 2025, prompting consultations under Article 4 of the North Atlantic Treaty. The Alliance described Eastern Sentry as a flexible military activity intended to strengthen its eastern-flank posture through Allied assets and a combination of traditional military capabilities and technologies addressing emerging drone-related challenges. NATO subsequently identified additional contributions involving combat aircraft, helicopters, surveillance and transport aircraft, ground-based air-defence systems and maritime assets. The activity is designed to improve the coordinated use of those capabilities rather than create a separate European defence treaty or an independent multinational armed force. NATO Launches Eastern Sentry to Bolster Posture Along Eastern Flank — NATO — Sep 2025; Strengthening NATO’s Eastern Flank — NATO — Undated. NATO News+1

Eastern Sentry must also be understood in relation to NATO’s wider northeastern defence arrangements. Baltic Sentry, launched in January 2025, was intended to strengthen vigilance concerning critical undersea infrastructure in the Baltic region. In June 2026, NATO established Forward Land Forces Finland as its ninth multinational forward land presence formation, with Sweden serving as framework nation. These developments address different military problems: airspace surveillance and responsiveness, maritime infrastructure protection, and forward land-force deterrence. Their strategic value lies in the capacity to combine multiple domains and national force contributions within an established Alliance command framework. The presence of forces or surveillance systems is not, however, equivalent to guaranteed interception performance, nor can an announcement of enhanced vigilance be interpreted as proof that every potential threat can be detected or neutralised.

The technical challenge associated with Eastern Sentry is especially important for the integration of Ukrainian-developed counter-drone technologies. NATO’s operational requirements involve more than identifying a useful sensor or interceptor. Relevant systems must be assessed for airspace coordination, secure communication, identification procedures, resilience to electronic interference and compatibility with the command structures through which Allied aircraft and ground-based systems operate. The practical objective is to provide commanders with a coherent situational picture and sufficient response options for different types of threats. That objective places significant demands on software interfaces, standards, training and procedures, making operational integration a complex undertaking even when the underlying equipment has demonstrated effectiveness elsewhere.

SAFE: a financing instrument with industrial conditions

The European Union’s Security Action for Europe (SAFE) instrument entered into force on 29 May 2025 after the Council adopted the relevant regulation on 27 May. SAFE provides up to €150 billion in EU-backed loans to support defence investment by participating Member States, particularly through common procurement. The instrument is funded through EU borrowing, with loans to be repaid by beneficiary states. Its significance is therefore not that €150 billion became a direct, non-repayable addition to national defence budgets, but that eligible governments acquired access to a common financing framework intended to support accelerated investment and collaborative procurement. The Council specified that procurement involving at least two participating countries is generally required, while allowing temporary exceptions for procurement involving a single Member State under defined circumstances. Ukraine’s defence industry is associated with the instrument, creating another institutional channel through which Ukrainian industrial participation may become connected to European procurement. SAFE: Council Adopts €150 Billion Boost for Joint Procurement on European Security and Defence — Council of the European Union — May 2025. Consilium

SAFE’s industrial logic rests on the relationship between financing conditions and procurement demand. Governments that purchase comparable systems jointly can potentially reduce duplication in development, testing, contracting and sustainment. Manufacturers may be able to justify larger production lines when several national customers commit to orders based on common technical requirements. However, these benefits are not automatic. Joint procurement can become difficult when participants disagree over specifications, the allocation of industrial work, export restrictions, delivery priorities or national security requirements. The fact that multiple governments use the same financing instrument does not itself mean they will acquire identical equipment or establish common maintenance systems.

The procurement categories identified under SAFE are broad, encompassing ammunition, missiles, artillery, ground combat systems, military mobility, critical-infrastructure protection, cyber capabilities, integrated air and missile defence, maritime systems, drones and anti-drone systems, strategic enablers, space-related capabilities, artificial intelligence and electronic warfare. This breadth allows Member States to address different capability requirements, but also creates the possibility that demand will be dispersed across numerous programmes. The effectiveness of SAFE as an industrial instrument will therefore depend partly on whether participating states concentrate sufficient procurement demand in areas where European production can be expanded and sustained. SAFE: Council Adopts €150 Billion Boost for Joint Procurement — Council of the European Union — May 2025. Consilium

EDIP and the institutional integration of the Ukrainian industrial base

The European Defence Industry Programme (EDIP), adopted by the Council on 8 December 2025, operates through a different financial and legal structure. EDIP provides €1.5 billion in EU grants for the 2025–2027 period, including €300 million associated with a dedicated Ukraine Support Instrument. Unlike SAFE’s loan-based architecture, EDIP is designed to provide targeted support for the competitiveness, responsiveness and production capacity of the European defence technological and industrial base. The programme also establishes mechanisms concerning security of supply, industrial cooperation, collaborative procurement and longer-term armaments development. Its design reflects the recognition that financing additional equipment purchases is insufficient if European manufacturers cannot expand capacity, coordinate production or overcome supply-chain constraints. European Defence Industry Programme — Council of the European Union — Dec 2025. Consilium

EDIP is particularly relevant to Ukraine because it establishes a specific institutional framework intended to facilitate cooperation between Ukrainian companies and the European defence-industrial ecosystem. The programme’s Ukraine Support Instrument is not simply a military-aid allocation. Its industrial purpose includes supporting Ukraine’s defence production and contributing to future integration with the broader European industrial base. The Council’s adopted framework also provides for common procurement actions involving at least three countries, including at least two EU Member States, alongside measures intended to reinforce production capacity and support interoperability. These requirements create possibilities for industrial coalitions involving European manufacturers and Ukrainian partners, although individual participation remains subject to programme conditions and implementing decisions. European Defence Industry Programme: Council Gives Final Approval — Council of the European Union — Dec 2025. Consilium

The institutional significance of EDIP extends beyond its financial scale. The programme introduces a regulatory and organisational framework for long-term cooperation, including mechanisms designed to improve the security of supply and facilitate collaborative armaments programmes. Security of supply is especially important when demand increases rapidly and industrial production depends on components originating in several countries. National restrictions on exports, competing procurement priorities and the concentration of specialised suppliers can delay otherwise funded programmes. A European framework cannot eliminate those risks, but it can create procedures through which governments and industry coordinate responses more systematically.

Readiness 2030: from financial instruments to capability portfolios

The European Commission’s Readiness Roadmap 2030 identifies four flagship capability initiatives: the European Drone Defence Initiative, Eastern Flank Watch, European Air Shield and European Space Shield. These initiatives address interconnected but different aspects of European security. The drone initiative concerns the development of a more coherent ability to detect and counter unmanned threats. Eastern Flank Watch addresses situational awareness and security requirements along the Union’s eastern frontier. The European Air Shield concerns broader air and missile defence requirements, while the European Space Shield addresses the protection and resilience of space-enabled capabilities. The initiatives are intended to contribute to a more integrated European defence posture while remaining compatible with NATO’s capability requirements. Their status as flagship programmes should not be confused with the existence of fully funded, constructed and operational continental defence systems. Future of European Defence — European Commission — Undated. European Commission

The distinction between an initiative and an operational capability is especially relevant to continental air defence. A common European shield would require the integration of national detection systems, sensors, interceptors, engagement procedures and command arrangements across different geographic and operational environments. It would also require governments to resolve decisions concerning information sharing, operational authority and responsibility for intercepting threats that may cross national boundaries. The existence of an EU programme can encourage investment and technical convergence, but actual military integration depends on the participating states and relevant NATO arrangements.

Institutional and financial comparison

Instrument	Issuing authority / framework	Verified financial value	Timeframe	Primary function	Critical distinction
NATO 5% commitment	NATO Allies	5% of national GDP	By 2035	National defence and security-related investment	Political commitment, not expenditure already realised
NATO core defence component	NATO Allies	At least 3.5% of GDP	By 2035	Core military capability requirements	Linked to NATO defence expenditure definition
NATO wider security component	NATO Allies	Up to 1.5% of GDP	By 2035	Resilience, infrastructure, networks and relevant industrial investment	Distinct expenditure category
SAFE	European Union	Up to €150 billion	Instrument established 2025	Defence procurement financing	Loans, subject to eligibility and national repayment
EDIP	European Union	€1.5 billion	2025–2027	Industrial grants, readiness and procurement cooperation	EU programme envelope
EDIP Ukraine Support Instrument	European Union	€300 million	Within EDIP framework	Ukrainian industrial support and integration	Included within €1.5 billion, not additional
Eastern Sentry	NATO	No consolidated programme expenditure established here	Launched September 2025	Operational vigilance and eastern-flank deterrence	Military activity, not an EU investment fund
Readiness Roadmap 2030	European Commission / EU framework	No single verified aggregate budget for the four flagships	Towards 2030	Capability coordination and industrial readiness	Portfolio of initiatives, not completed capabilities

Sources: NATO Defence Investment Commitment — NATO — Jun 2026; SAFE — Council of the EU — May 2025; EDIP — Council of the EU — Dec 2025; Future of European Defence — European Commission.

The unresolved coordination problem

Europe’s principal institutional vulnerability is not the absence of relevant initiatives, but the potential misalignment between the institutions responsible for defining military needs, financing procurement and implementing industrial investment. NATO capability targets provide military requirements that individual governments must translate into force structures and equipment plans. EU financial instruments may facilitate procurement, but their eligibility criteria, industrial conditions and financial procedures are separate from NATO’s military planning. National governments then determine how these requirements interact with fiscal constraints, procurement law, industrial interests and domestic political priorities.

The strongest potential outcome is a system in which national procurement decisions respond to common military requirements, financial instruments support consolidated demand, manufacturers expand production based on reliable orders and technical integration is designed into programmes from the beginning. The weaker outcome would be parallel institutional development in which NATO identifies capability requirements, EU programmes finance industrial initiatives and national governments purchase equipment without sufficient coordination. The latter would increase expenditure without achieving comparable improvements in interoperability, sustainment or military resilience.

Chapter 3 — Key judgments. NATO and the European Union perform complementary functions, but their instruments should never be treated as interchangeable. NATO’s 2035 commitment provides a long-term national investment framework; Eastern Sentry addresses operational posture; SAFE supports loan-financed procurement; EDIP provides targeted industrial grants; and Readiness 2030 defines capability-development priorities. The central determinant of success is whether these mechanisms generate mutually reinforcing investment, production and operational decisions.

What would change the assessment: Officially documented convergence between national procurement programmes, EU financing allocations, industrial production contracts and NATO capability targets would indicate stronger institutional integration. Persistent duplication, financing delays or incompatible systems would demonstrate that the institutional architecture remains more extensive than its practical military output.

Chapter 4 — Country-by-Country Strategic Assessment: Germany, France, Italy, the United Kingdom, Poland, Ukraine and the European Defence Core

Germany — Industrial capacity, strategic partnerships and the organisation of continental defence

Germany’s contribution to the transformation of European defence must be assessed through three interconnected functions: its military-industrial capacity, its geographic role in central European reinforcement and its ability to connect long-term procurement with new technologies originating in Ukraine. Its industrial importance is not confined to a particular weapons system. Germany possesses an established defence-manufacturing ecosystem encompassing military vehicles, propulsion, ammunition, sensors, electronics, air-defence equipment and complex systems integration. These capabilities provide a foundation for the expansion of European defence production, although individual programmes remain subject to capacity constraints, procurement decisions and access to specialised components.

The German–Ukrainian strategic partnership declaration of 14 April 2026 illustrates the emergence of a more reciprocal relationship. The official document identifies arrangements concerning data cooperation and joint production of the Anubis long-range strike drone and Seth-X mid-range strike drone, together with arrangements addressing the provision of drones to third countries. The declaration also records Germany’s willingness to examine a longer-term Ukrainian drone proposal. These elements are strategically consequential because they connect military technology, industrial production, information sharing and potential third-country market access within a government-level framework. They nevertheless have different implementation statuses: an identified implementing arrangement is not equivalent to verified manufacturing output, while a proposal under examination should not be interpreted as a completed contract. Declaration on a Strategic Partnership Between Germany and Ukraine — German Federal Government — Apr 2026; German–Ukrainian Strategic Partnership Declaration, Annex I — German Federal Government — Apr 2026. bundesregierung.de

Germany’s underlying strategic challenge is to reconcile the industrial requirements of sustained territorial defence with the need for rapidly adaptable technologies. Established military equipment programmes generally involve extensive development, certification and procurement processes, whereas some unmanned systems evolve through much shorter modification cycles. These approaches cannot simply be substituted for one another. Heavy vehicles, integrated air-defence systems and complex weapons require extensive reliability testing, logistical support and long-term configuration management. Counter-drone equipment and certain unmanned platforms may permit more frequent updates, but still require safety, quality, security and operational integration. Germany’s potential advantage lies in supporting both models through different procurement and industrial arrangements, provided that the resulting systems remain compatible with operational requirements.

A further consideration is Germany’s role in the reinforcement of NATO forces across continental Europe. Military mobility depends on transportation infrastructure, access to depots and maintenance facilities, communications, fuel supplies and the ability to move equipment across borders. The country’s industrial and logistical resources therefore have strategic value beyond the number of weapons produced domestically. Industrial expansion that neglects sustainment, spare parts and logistical resilience could produce impressive procurement figures while leaving significant weaknesses in operational availability.

The most consequential future indicator will be the conversion of German–Ukrainian agreements into identifiable production programmes with documented output, responsible industrial participants, technical milestones and stable procurement demand. Cooperation concerning third-country markets will require particular scrutiny because it introduces additional intellectual-property, export-control and security considerations. Germany may become an important intermediary between Ukrainian military innovation and wider international defence demand, but this outcome should not be assumed before the relevant commercial and governmental arrangements are established.

France — Strategic autonomy, complex weapons and the development of Ukrainian combat aviation

France approaches European defence through a combination of sovereign military capabilities, an established aerospace and defence-industrial base, participation in multinational programmes and a strategic interest in maintaining independent decision-making capacity. Its industrial strengths include complex weapons, combat aviation, advanced sensors, naval systems, electronics and integrated air-defence technologies. French defence policy also places particular importance on the ability to develop, operate and sustain capabilities through national industrial structures, even where international cooperation is necessary or desirable. This creates a different industrial model from states whose procurement is more extensively dependent on foreign manufacturers.

The bilateral security cooperation agreement signed by France and Ukraine on 16 February 2024 establishes a broad framework encompassing military assistance, defence-industrial cooperation, air defence, artillery, combat aviation, training, maintenance, cybersecurity and protection of critical infrastructure. The agreement explicitly contemplates industrial cooperation in military equipment and support for Ukraine’s future military capabilities. It also includes provisions concerning consultation following any future armed attack, while making implementation subject to relevant legal and constitutional requirements. This distinction is essential: a bilateral security agreement involving extensive assistance commitments is not equivalent to NATO’s Article 5 collective-defence guarantee. Agreement on Security Cooperation Between France and Ukraine — Presidency of the French Republic — Feb 2024. elysee.fr

A further development was documented in a French–Ukrainian declaration published on 14 July 2026, which identified cooperation intended to accelerate Ukraine’s combat aviation and air and anti-ballistic missile defence capabilities. The declaration specifically addressed preparations relating to Ukrainian Rafale pilots and authorisation for licensed production in Ukraine involving AASM bombs and SCALP missiles. This indicates a potential expansion from finished-system transfers towards industrial participation in sophisticated weapons programmes. However, authorisation for licensed production is not equivalent to the completed establishment of a production line, and training plans are not proof that an operational fleet has been delivered or declared combat-ready. Joint Declaration by the President of the French Republic and the President of Ukraine — Élysée — Jul 2026. elysee.fr

The strategic significance of France’s approach lies in the possibility of linking Ukrainian operational requirements to advanced European systems in which weapons integration, industrial certification and long-term sustainment are critical. Combat aircraft cannot be evaluated independently of training pipelines, weapons availability, maintenance infrastructure, mission planning and interoperability. Similarly, manufacturing complex air-launched weapons involves more than assembling components: it requires control over manufacturing processes, materials, safety certification and any applicable technology-transfer restrictions.

France also has a wider European role through its industrial relationships and participation in collaborative programmes. Its ability to reconcile sovereign industrial requirements with multinational cooperation will influence the development of future European air and missile defence systems. The principal risk is not necessarily insufficient technological capability, but the possibility that divergent national requirements, funding arrangements and industrial priorities could delay programmes intended to meet shared European needs.

Italy — Southern-flank security, integrated air defence and European industrial interoperability

Italy’s position in the European defence transformation is structurally different from that of the states closest to Ukraine. Its immediate defence geography encompasses the central Mediterranean, maritime approaches, southern European airspace, critical energy and communications infrastructure, and reinforcement obligations within NATO. This does not reduce the importance of developments on Europe’s eastern frontier; rather, it creates a requirement to integrate eastern-flank commitments with the protection of other strategically relevant operating areas. Italian defence policy consequently needs to balance territorial air defence, maritime security, industrial capability, international operations and contributions to European and Allied deterrence.

Italy’s defence-industrial base is particularly important in aerospace, electronics, radar, complex systems integration, naval platforms, helicopters, military vehicles and missile technologies. Leonardo, Fincantieri and MBDA’s multinational industrial structure are relevant to these capabilities, while national industrial programmes interact with collaborative European procurement and development arrangements. The country’s potential contribution to the emerging counter-drone architecture extends beyond the manufacture of interceptors. It includes sensor development, surveillance integration, electronic systems, command-and-control technologies, platform integration and the capacity to incorporate new defensive equipment into established military architectures. These functions are strategically important because the practical effectiveness of counter-drone systems depends on their integration with wider air-defence and surveillance networks.

Italy’s participation in collaborative defence programmes and the wider European Drone Coalition provides a channel through which it may contribute to capability development and industrial cooperation involving Ukraine. Latvia’s Ministry of Defence lists Italy among the participating states in the Drone Coalition, a multinational initiative established in February 2024 under Latvian and British leadership. The coalition coordinates support for unmanned capabilities, associated equipment and Ukrainian training and testing activities. Membership establishes participation in a cooperative framework; it does not, by itself, identify the value of Italian contracts, the quantity of systems delivered or the existence of any particular Italian–Ukrainian technology licence. Support for Ukraine — Latvian Ministry of Defence — Undated. Aizsardzības ministrija

For Italian defence-industrial policy, the most relevant issue is whether new unmanned and counter-unmanned technologies are incorporated into a coherent national and European production structure. The country can potentially provide established manufacturing and certification capabilities to emerging technologies, while acquiring operational lessons and technical innovations from partners with direct combat experience. These opportunities must be assessed in relation to industrial workshare, technology ownership, export rules and procurement demand. The presence of major defence manufacturers does not automatically guarantee that national industrial capacity can absorb every emerging technology economically or at the required pace.

Italy’s southern geographic position also requires particular attention to maritime and infrastructure-related threats. Unmanned systems may be relevant to port security, naval operations, infrastructure surveillance and the protection of installations, but the technologies and operating conditions differ considerably from those associated with land-based air defence in eastern Europe. Systems intended for deployment near maritime infrastructure must account for environmental exposure, communications, civilian activity and coordination with other security authorities. Consequently, industrial cooperation should support different operational requirements through interoperable technologies rather than assume that one battlefield configuration can be adopted unchanged.

The strategic risk for Italy is the potential emergence of European procurement coalitions and production networks in which the most consequential technological standards are established before Italian manufacturers and procurement authorities become sufficiently integrated. Conversely, participation in collaborative programmes can allow Italian industry to contribute higher-value systems integration, sophisticated components and production expertise to emerging European capabilities. The balance will depend on national procurement decisions, industrial engagement and access to relevant research and development programmes.

United Kingdom — Bilateral industrial acceleration and battlefield-driven innovation

The United Kingdom has developed one of the clearest governmental frameworks for connecting Ukrainian innovation to European industrial production. Its March 2026 declaration concerning enhanced security and defence-industrial collaboration identifies the development of joint production lines, joint research and development, defence supply-chain integration and large-scale manufacturing as areas of potential cooperation. The declaration also addresses the Lyra portfolio and the licensed production of the Ukrainian-designed Octopus interceptor in Britain. These arrangements show how a state outside the European Union can remain a central participant in Europe’s defence-industrial transformation through bilateral agreements, NATO membership and multinational capability coalitions. UK–Ukraine Joint Statement: Enhanced Security and Defence Industrial Collaboration Declaration — UK Government — Mar 2026. GOV.UK

The British model is particularly relevant to defence acquisition because it connects operational needs to technology-development programmes intended to proceed more rapidly than traditional large-platform procurement. The UK–Ukraine Strategic Dialogue also identified continued work on Lyra and Octopus and referred to the Nightfall programme as an example of UK innovation shaped by Ukrainian battlefield requirements. This demonstrates the intention to connect technology development with operational feedback, although the technical and industrial maturity of individual projects must still be assessed separately. The UK–Ukraine Strategic Dialogue — UK Government — Apr 2026.

The United Kingdom’s European role is also supported by its participation in multinational defence arrangements beyond the EU institutional framework. Its co-leadership of the Ukraine Drone Coalition with Latvia provides a practical mechanism for cooperation involving EU and non-EU states. The Joint Expeditionary Force offers another established framework for defence cooperation in northern Europe, although its operational purpose differs from that of the industrial coalitions focused on Ukraine. These overlapping relationships illustrate how European security integration can advance through NATO, regional structures and bilateral industrial agreements without requiring a single institutional membership model.

A principal British advantage is the capacity to connect advanced engineering, established defence manufacturers, government procurement and Ukrainian technical expertise within dedicated programmes. The corresponding challenges concern scale, procurement continuity, the allocation of intellectual-property rights and the need to ensure that rapidly developed systems meet military reliability and integration requirements. A successful programme would require repeatable industrial output and sustained performance under changing operational conditions, not simply an initial production licence.

Poland — Territorial defence and eastern-flank integration

Poland’s defence strategy must be evaluated against its proximity to Ukraine and Belarus, its role in NATO’s eastern-flank posture and the scale of its force-modernisation requirements. Its industrial opportunities involve the integration of national manufacturing, foreign equipment acquisition and potentially Ukrainian-developed technologies into systems suited to territorial defence and Allied reinforcement. The immediate requirement for capabilities such as surveillance, air defence, counter-drone systems and rapid mobilisation creates incentives for the country to pursue several industrial partnerships simultaneously.

The principal coordination challenge is to ensure that systems obtained through different suppliers and contractual arrangements can function within a coherent national architecture. Foreign-manufactured equipment, domestically developed systems and Ukrainian-derived technologies may have different standards, support requirements and restrictions. Procurement diversity can improve supply resilience, but it may also increase maintenance complexity and create long-term dependencies if interoperability and sustainment are not addressed at the contracting stage. The future Polish industrial model will therefore be shaped not only by acquisition volumes, but by the country’s ability to integrate equipment, establish domestic support capacity and develop relevant technologies over successive procurement cycles.

Ukraine — From recipient of assistance to technological and industrial partner

Ukraine’s position differs fundamentally from that of every other country assessed in this chapter. Its defence-industrial development occurs during an active war, under conditions in which military requirements, adversary countermeasures, supply constraints and operational feedback generate strong pressure for continual adaptation. That environment can accelerate specific forms of innovation, particularly where prototypes can be assessed against immediate operational requirements. However, it also creates production risks involving infrastructure security, labour availability, component supply and continuity of manufacturing.

The strategic significance of Ukraine’s emerging partnerships lies in the possibility of distributing parts of its defence-industrial production and technological development across cooperating countries. Manufacturing in European states may improve access to certain industrial resources and provide redundancy against disruption, although it also creates new dependencies on export permissions, licensing and foreign procurement decisions. At the same time, Ukrainian companies may gain access to industrial standards, production facilities and markets that could support their longer-term development beyond the immediate demands of the conflict.

Ukraine’s role is increasingly visible through governmental agreements with the United Kingdom, Germany, Norway, Sweden, Lithuania and other European states. The arrangements differ substantially in scope, involving licensed production, industrial localisation, procurement, advanced combat aviation and technology exchange. The common strategic element is the increasing recognition of Ukrainian technical expertise as a resource relevant to European defence capability development. The practical scale of this transformation remains dependent on verified contracts, actual production and the capacity to manage technology rights securely.

Country-level comparison: strategic functions and implementation constraints

Country	Principal strategic function	Industrial strengths / priorities	Cooperation mechanism	Principal constraint
Germany	Continental reinforcement and industrial production	Ground systems, ammunition, air defence, engineering, drones	Strategic partnership and joint-production arrangements with Ukraine	Production scaling, integration and procurement continuity
France	Advanced military capability and strategic autonomy	Combat aviation, complex weapons, air defence, naval and electronic systems	Bilateral security agreement and advanced weapons cooperation	Industrial sovereignty, programme complexity and certification
Italy	Southern-flank security and systems integration	Aerospace, radar, electronics, naval systems, air defence	European industrial cooperation and multinational capability coalitions	Integration of procurement priorities and industrial participation
United Kingdom	Rapid defence-industrial cooperation and multinational partnerships	Advanced engineering, interceptors, complex weapons and defence technology	Octopus licensing, Lyra and bilateral cooperation	Manufacturing scale, technology rights and sustained procurement
Poland	Eastern-flank territorial defence and force modernisation	Military manufacturing, logistics, surveillance and counter-drone priorities	Bilateral technology negotiations and Allied procurement	Integration of diverse systems and technology access
Ukraine	Combat-informed technological development	Unmanned systems, electronic warfare, counter-drone technologies and rapid adaptation	Joint development, licensing, industrial localisation	Wartime production security, infrastructure and export governance
Sweden	Northern European airpower and industrial cooperation	Combat aviation, sensors, weapons integration and electronic systems	Gripen framework and industrial production cooperation	Conditional procurement, fleet replacement and delivery schedules
Norway	High North security and production partnerships	Defence electronics, missiles, ammunition and industrial support	Build with Ukraine production arrangements	Export authorisations, production implementation and sustainment

Sources: German–Ukrainian Strategic Partnership — German Federal Government — Apr 2026; France–Ukraine Security Cooperation Agreement — Élysée — Feb 2024; UK–Ukraine Industrial Collaboration — UK Government — Mar 2026; Sweden to Sell Gripen E/F Aircraft to Ukraine — Swedish Government — May 2026; Norway–Ukraine Defence Cooperation — Norwegian Government — Apr 2026. Industrial strengths are qualitative assessments, not comparable production-volume rankings.

European convergence remains conditional on national implementation

The country comparison reveals a central structural characteristic: European states do not contribute identical military resources, face identical security requirements or operate under identical industrial conditions. The integration of national capabilities therefore cannot be evaluated through uniform procurement targets alone. Germany’s central European industrial and logistical position creates requirements different from those of the United Kingdom’s North Atlantic and expeditionary posture, France’s strategic autonomy model, Italy’s Mediterranean commitments or Poland’s eastern-flank territorial requirements. Ukraine introduces a further distinction through the combination of active operational experience and wartime industrial constraints.

A successful European architecture would preserve these differences while establishing common technical, logistical and operational interfaces where cooperation creates measurable benefits. This does not require every country to manufacture the same equipment or possess identical force structures. It requires the ability to share relevant information, reinforce one another, sustain common capabilities and support industrial production across national boundaries. The strongest form of integration is therefore functional rather than merely institutional: different national systems contribute to a shared operational outcome through reliable and clearly defined mechanisms.

Chapter 4 — Key judgments. European defence integration is proceeding through differentiated national roles rather than convergence towards a single industrial model. Germany, France, Italy and the United Kingdom contribute distinct industrial and military capabilities, while Poland and Ukraine occupy particularly important positions in eastern-flank capability development and reciprocal technological cooperation. The major policy challenge is to preserve national specialisation without generating incompatible equipment, duplicated industrial expenditure or excessive dependence on restricted technologies.

What would change the assessment: Completed multinational procurement programmes, documented cross-border industrial production, standardised military interfaces and verified sustainment arrangements would strengthen the argument that differentiated national contributions are becoming an integrated European capability.

Chapter 5 — Northern, Baltic, Central and Southeastern Europe: Regional Defence Coalitions, Bilateral Agreements and Emerging Security Partnerships

Northern and Baltic Europe are becoming a centre of reciprocal defence-industrial integration

Northern and Baltic European defence cooperation is evolving from primarily regional military coordination towards a combination of forward defence, industrial localisation, multinational procurement and systematic access to Ukrainian operational expertise. This development is especially consequential because the region combines proximity to Russian military activity, substantial dependence on multinational security arrangements, established technological capabilities and growing demand for counter-drone, surveillance, electronic-warfare and air-defence systems. The emerging structure is not a single northern European defence programme. It consists of overlapping national initiatives, NATO force arrangements, regional partnerships and industrial agreements with Ukraine.

The geographic framework is important. Finland’s position along NATO’s northeastern frontier, Sweden’s role in Baltic and northern European security, Norway’s High North responsibilities and the Baltic states’ proximity to Russia and Belarus create different operational priorities. Nevertheless, the relevant national defence systems must increasingly address common requirements: detection of low-flying threats, continuity of communications, protection of civilian and military infrastructure, mobilisation, reinforcement and the availability of equipment during prolonged operations. This encourages cooperation on surveillance, unmanned systems, military training, logistics and industrial production. It also creates incentives for small and medium-sized defence technology companies to participate in cross-border projects that would be difficult to sustain through limited domestic procurement alone.

NATO’s establishment of Forward Land Forces Finland in June 2026, with Sweden serving as framework nation, is particularly relevant to the military dimension of this regional integration. The formation represents an extension of NATO’s multinational forward land presence to Finland and contributes to the development of the Alliance’s northeastern deterrence posture. Its significance differs from the industrial arrangements discussed below: the formation concerns the organisation of Allied military forces, whereas bilateral technology agreements establish production or development relationships. The two dimensions may reinforce one another through common requirements and industrial demand, but they should not be treated as components of a single procurement structure. Strengthening NATO’s Eastern Flank — NATO — Undated. NATO Topic

Sweden — Combat aviation, technological cooperation and the expansion of industrial partnerships

Sweden’s defence cooperation with Ukraine is notable because it encompasses both advanced combat aviation and a broader industrial innovation relationship. On 22 October 2025, the two countries signed a letter of intent concerning cooperation in advanced air capabilities, including potential cooperation relating to the Saab JAS 39 Gripen. The document explicitly described itself as non-binding and identified future consultations concerning technical expertise, training, industrial participation, financing and multinational arrangements. The distinction between the letter’s political intent and subsequent governmental decisions is important when examining the evolution of the programme.

On 28 May 2026, the Swedish government presented a more specific package concerning Ukraine’s intention to acquire up to 20 Gripen E/F aircraft, with a proposed financing allocation of €2.5 billion from the EU Ukraine Support Loan. Sweden also proposed donating up to 16 Gripen C/D aircraft from its existing fleet, subject to the relevant acquisition agreement, alongside advanced ammunition and supporting arrangements. The Swedish government identified potential aircraft replacement procurement, pilot training, maintenance support and further industrial cooperation as elements of the programme. The announcement reported that negotiations were continuing and that the acquisition and donation arrangements had not yet reached the status of completed aircraft deliveries. Sweden to Sell Gripen E/F Fighter Aircraft to Ukraine — Government of Sweden — May 2026. Regeringskansliet

The financial and industrial architecture is wider than the aircraft proposal itself. Sweden’s 22nd military support package was valued at SEK 25.2 billion, including a SEK 22.2 billion component associated with potential Gripen C/D donations, replacement procurement and advanced ammunition. The government also identified SEK 1.5 billion for air-defence-related ammunition and capabilities, SEK 300 million for innovation and industrial cooperation, SEK 100 million for defence research support, SEK 1 billion for multilateral funds and SEK 100 million for civil-defence measures. These figures describe components of the announced package and should not be confused with cash already disbursed or equipment already delivered. Sweden also reported 14 contracts for demonstrator models and pre-series orders, with further serial procurement dependent on evaluation results. Sweden to Sell Gripen E/F Fighter Aircraft to Ukraine — Government of Sweden — May 2026. Regeringskansliet

The strategic importance of the Swedish approach lies in the connection between immediate military support and longer-term industrial capacity. Its aircraft programme involves a sophisticated and potentially extended transition requiring pilot training, weapons integration, maintenance and fleet-replacement decisions. Its innovation programme involves a different cycle in which demonstrator systems can be evaluated and potentially advanced into serial production. Combining these approaches within national policy creates an opportunity to develop both high-end military capability and more rapidly adaptable technologies. It also introduces substantial implementation demands because advanced aircraft acquisition and emerging drone production require different technical standards, industrial processes and procurement schedules.

Norway — Industrial localisation, operational data exchange and long-term defence cooperation

Norway’s cooperation with Ukraine provides one of the clearest examples of the emerging industrial localisation model. The joint declaration announced on 14 April 2026 established a political basis for deeper cooperation involving defence technologies, industrial production, ammunition, air defence and knowledge sharing. The Norwegian government specifically identified the possibility of manufacturing Ukrainian drones in Norway and benefiting from Ukrainian battlefield experience. The subsequent arrangements signed on 27 April 2026 for the first Norwegian–Ukrainian Build with Ukraine project created a more concrete institutional basis for joint production, subject to the necessary export permissions. Norway and Ukraine to Establish Closer Defence Cooperation — Norwegian Government — Apr 2026; Signing of Agreement to Build Ukrainian Drones in Norway — Norwegian Ministry of Defence — Apr 2026. Regjeringen.no+1

The arrangement is particularly important for the interpretation of Ukraine’s changing role in European defence. Norway’s policy recognises operational data, military training experience and technical expertise as assets capable of strengthening Norwegian defence planning and industrial development. This creates a relationship in which the production of Ukrainian-designed systems can support Ukraine while allowing Norway to develop domestic manufacturing capacity and acquire relevant technical knowledge. A subsequent strategic partnership declaration signed in August 2026 expanded cooperation around defence, energy and resilience, indicating that defence-industrial collaboration is being situated within a wider bilateral security relationship. Norway and Ukraine Establish Strategic Partnership — Norwegian Government — Aug 2026.

Norway’s geographical and strategic position introduces additional requirements. Maritime security, protection of energy infrastructure, long-distance communications, surveillance and the ability to sustain operations in demanding northern environments are all relevant to its national defence architecture. Ukrainian-derived technology may contribute to some of these functions, but adaptation and testing remain necessary. A system optimised for one operational environment may require modifications to communications, navigation, environmental protection, sensing and maintenance before it can perform reliably under different conditions. Industrial localisation therefore creates value only when accompanied by an effective mechanism for technical adaptation, testing and continuous development.

Norway also announced plans to provide more than NOK 12 billion in 2026 for Ukraine’s procurement of drones and autonomous systems. This figure is a government-announced support plan rather than verified manufacturing output. Its significance lies in the potential alignment between financial demand and technology-development relationships: procurement support can sustain Ukrainian manufacturers while industrial cooperation may create additional production capacity outside Ukraine. Prime Minister Gains New Insight into Use of Drones and Emerging Technologies in Ukraine — Norwegian Government — Feb 2026.

Lithuania — A practical model of technology transfer and industrial localisation

Lithuania has moved beyond general declarations of interest by establishing several specific mechanisms intended to absorb Ukrainian defence technologies. The October 2026 announcement concerning the Ukrainian SkyFortress acoustic detection system provides one example involving surveillance technology, sensor-data processing, signature libraries and personnel training. The testing of the system is expected to determine its suitability for detecting and identifying low-flying unmanned aircraft under Lithuanian conditions. The relevance of the programme is that it addresses the sensor and information elements of counter-drone defence rather than focusing exclusively on the interception platform. Lithuania Deploys Ukrainian SkyFortress Acoustic Drone Detection System — Lithuanian Ministry of National Defence — Oct 2026. LR Krašto apsaugos ministerija

The industrial dimension is represented by the letter of intent signed in October 2026 between Lithuania’s Pekkla UAB and Ukraine’s December One RND Ltd. The proposed cooperation encompasses electronic-warfare systems and unmanned-aircraft components, with the stated ambition to establish a Lithuanian joint venture and commence production in 2027. This arrangement follows a broader bilateral Drone Deal signed in May 2026 and is intended to support the development of Lithuanian industrial capacity while providing Ukraine with additional manufacturing resources. The Ministry of National Defence described the complementary roles of the companies, including Lithuanian infrastructure and regulatory assistance and Ukrainian research, technical expertise and product development. Lithuania Gains Ukraine’s Drone Production Technology — Lithuanian Ministry of National Defence — Oct 2026. LR Krašto apsaugos ministerija

Lithuania has also pursued industrial relationships extending beyond Ukraine. In September 2026, its Ministry of National Defence announced a joint declaration with the American defence technology company Mach Industries concerning possible production of unmanned systems in Lithuania. The government described the country’s NATO and EU membership, proximity to Ukraine and industrial development ambitions as reasons for seeking such cooperation. The arrangement remains a declaration concerning potential industrial activity, not evidence of completed production. Its strategic significance is that Lithuania is seeking to combine American and Ukrainian technologies with domestic manufacturing and testing capabilities. Lithuania Signs Joint Declaration on Potential Drone Production — Lithuanian Ministry of National Defence — Sep 2026.

Taken together, these initiatives show a model in which a relatively small national market can seek greater defence-industrial importance through specialised technology partnerships, localisation and access to Allied procurement demand. The main risk is that announced joint ventures and testing arrangements may not reach sustainable production or create enduring domestic technical capabilities. Verified production, completed testing and repeat procurement will therefore remain the decisive indicators.

Latvia — Multinational drone procurement and bilateral technology cooperation

Latvia occupies a distinctive position because of its co-leadership, alongside the United Kingdom, of the international Drone Coalition supporting Ukraine. The coalition was formally established on 14 February 2024 and brings together countries contributing to the procurement, production, testing and delivery of unmanned capabilities. Latvia’s Ministry of Defence identifies 20 participating countries, including Latvia, the United Kingdom, Australia, Belgium, Canada, Czechia, Denmark, Estonia, France, Germany, Italy, New Zealand, Lithuania, Luxembourg, the Netherlands, Norway, Poland, Sweden, Türkiye and Ukraine. The coalition demonstrates that cooperation involving Ukrainian technology and military requirements is not confined to European Union members, but operates through a broader multinational network. Support for Ukraine — Latvian Ministry of Defence — Undated. Aizsardzības ministrija

The Latvian government reported that it had allocated €45 million to the Drone Coalition over 2024–2025 and planned €50 million for 2026, intended for drone procurement from Latvian manufacturers. These figures identify Latvian financial commitments for specified periods, rather than the aggregate expenditure of all coalition members. The distinction matters because a multinational coalition can encompass different national budgets, procurement methods and delivery arrangements without creating one consolidated financial instrument. Support for Ukraine — Latvian Ministry of Defence — Undated. Aizsardzības ministrija

Latvia and Ukraine also advanced their bilateral cooperation through a defence agreement approved by the Latvian government on 9 June 2026. The framework envisaged cooperation over ten years, with possible extension, and addressed research and development, unmanned systems, air defence, industrial participation, technology transfer, localisation and intelligence sharing. Latvia indicated an intention to allocate approximately €110 million over the first two years, while specifying that budget commitments would remain subject to the relevant governmental and parliamentary authorisations. Ukraine’s participation includes supporting the transfer of expertise and the export of relevant military products to strengthen Latvian defence capabilities. This is a particularly direct illustration of the reciprocal model: Latvian support for Ukrainian military requirements is combined with access to Ukrainian technological expertise relevant to Latvia’s own defence. Latvia and Ukraine to Sign Defence Cooperation Agreement — Latvian Ministry of Defence — Jun 2026. Aizsardzības ministrija

The industrial arrangements were further developed in July 2026 through memoranda involving Latvian public institutions, Baltic Forces Ltd., Ukrainian industry, Riga Technical University and other national organisations. These memoranda concerned unmanned-system manufacturing, technology transfer, investment projects and the development of testing infrastructure. Their significance is the participation of government, private companies, universities and specialised industrial organisations within a common cooperative framework. It is an example of defence-industrial development requiring both manufacturing capacity and an institutional environment that supports research, testing, investment and technology transfer. Latvia and Ukrainian Industry to Jointly Develop Unmanned Systems Manufacturing and Testing — Latvian Ministry of Defence — Jul 2026. Aizsardzības ministrija

Latvia’s emerging model combines three distinct mechanisms: the Drone Coalition as a multinational procurement and support structure, bilateral cooperation with Ukraine as a source of technology and operational experience, and domestic industrial development through manufacturers and research institutions. The potential benefit is a sustained system linking procurement demand, technology development and production. The principal risk is insufficient continuity between the different institutional arrangements. If coalition orders, bilateral projects and national industrial investment follow incompatible specifications or uncertain schedules, the resulting capacity may remain fragmented.

Estonia, Finland and the wider northeastern military environment

Estonia’s defence requirements are shaped by its position on NATO’s eastern frontier, its reliance on Allied reinforcement and the importance of readiness, communications security, territorial defence and infrastructure protection. The country’s participation in the Drone Coalition places it within a multinational mechanism for supporting Ukrainian unmanned capabilities and exchanging relevant procurement and operational experience. However, participation in this coalition should not be presented as proof of any particular technology-transfer agreement or domestic production contract without a corresponding official record. Estonia’s potential industrial contribution lies in the development and integration of specialised technologies within Allied capability frameworks, but national programme status and production quantities require programme-specific verification.

Finland’s position is particularly important because NATO’s northeastern land frontier encompasses a demanding operational environment requiring territorial defence, mobilisation, reinforcement and the ability to sustain military operations over extended distances. The establishment of NATO’s ninth multinational forward land presence formation in Finland, under Swedish framework leadership, represents a concrete institutional development connecting Finnish territorial defence requirements to the broader Alliance posture. Northern operating conditions also create particular demands for military engineering, logistics, equipment reliability and resilient communications. Technologies acquired through industrial cooperation must be tested against these environmental and operational requirements rather than assumed to be directly transferable from another theatre. Strengthening NATO’s Eastern Flank — NATO — Undated. NATO Topic

The wider Nordic–Baltic environment is increasingly characterised by the need to link maritime security, airspace surveillance, land-force readiness and industrial resilience. The relevance of NATO’s Baltic Sentry and Eastern Sentry activities is that they address different dimensions of a common security environment through coordinated Allied capabilities. Baltic Sentry concerns critical infrastructure protection in the maritime domain, while Eastern Sentry addresses airspace violations and wider eastern-flank vigilance. Their effectiveness depends on national force contributions, command coordination and the ability to maintain continuous situational awareness across different operating environments.

Central and Southeastern Europe — Different security requirements within a shared defence framework

Central and Southeastern European states face defence challenges that overlap with, but are not identical to, those in the Baltic and Nordic regions. Czechia and Slovakia occupy important positions within central European industrial and logistical geography, while Romania and Bulgaria have direct relevance to security in the Black Sea region. Hungary and other central European states contribute different combinations of national military infrastructure, procurement requirements and Alliance obligations. Türkiye has a distinctive position as a NATO Ally spanning European and Asian strategic environments and possessing an important domestic defence-industrial sector. The resulting regional architecture encompasses military mobility, industrial production, Black Sea security, airspace surveillance, maritime infrastructure and reinforcement.

Romania’s strategic relevance is particularly apparent in the context of Black Sea security, the defence of southeastern European airspace and the movement of military equipment and supplies. Defensive requirements in this region involve the combination of national surveillance systems, NATO operational arrangements and appropriate capabilities for detecting and responding to airborne threats. The operational geometry differs from that of the Baltic region because maritime approaches, coastal infrastructure and Black Sea military activity play a more prominent role. Nevertheless, the underlying technical challenge of integrating low-altitude surveillance, electronic warfare and layered interception is comparable in several respects.

Czechia’s industrial and logistical position creates opportunities involving equipment production, maintenance and collaborative procurement. Such activities can support both national requirements and wider European production networks, but the extent of participation in specific Ukrainian technology-transfer projects must be assessed from the relevant contracts and governmental records. Similarly, participation in multinational coalitions should be distinguished from completed industrial localisation. The presence of a national manufacturer or a political agreement does not establish that production has begun or that a specific technology has been transferred.

Türkiye requires separate treatment because its defence-industrial relationships and strategic priorities extend beyond EU institutional structures. Its NATO membership provides an operational and institutional connection to European collective defence, while its domestic defence industry and regional military interests support cooperation through other bilateral and multinational arrangements. Türkiye’s participation in the Drone Coalition is documented by Latvia’s Ministry of Defence, but this does not imply that Turkish programmes fall under the EU’s SAFE or EDIP frameworks, nor that all Turkish defence technology is available for European collaborative production. Support for Ukraine — Latvian Ministry of Defence — Undated. Aizsardzības ministrija

The strategic challenge for Southeastern Europe is therefore one of integration across multiple operational domains and jurisdictions. Defence-industrial cooperation may support the region’s capability development through new technologies, procurement and manufacturing partnerships. Yet maritime, air and land defence requirements cannot be reduced to a common regional procurement model without detailed consideration of national force structures and operational needs. Any future expansion of Ukrainian technology partnerships into this region will need to be evaluated through signed agreements, industrial workshare, compatibility with NATO arrangements and demonstrated operational results.

Regional cooperation matrix — agreements, technologies, financing and status

Country / coalition	Verified development	Technology or capability	Financial figure / production horizon	Evidentiary status
Sweden–Ukraine	Gripen E/F acquisition proposal	Advanced combat aviation	Up to 20 aircraft; proposed €2.5bn financing	Intended procurement; negotiations ongoing as announced May 2026
Sweden–Ukraine	Conditional Gripen C/D donation	Fighter aircraft and advanced ammunition	Up to 16 aircraft	Proposed, dependent on acquisition agreement
Sweden	22nd support package	Aviation, ammunition, EW, innovation, civil defence	SEK 25.2bn	Announced package
Sweden	Demonstrator and pre-series contracts	Innovative defence technologies	14 contracts reported May 2026	Contracts reported; serial production not thereby established
Norway–Ukraine	Build with Ukraine	Ukrainian-designed drone production in Norway	Agreement signed Apr 2026	Formal cooperation arrangements; production and deliveries require separate verification
Norway	Planned 2026 drone support	Drones and autonomous systems	More than NOK 12bn	Government-announced procurement support
Lithuania–Ukraine	Pekkla–December One RND letter of intent	EW equipment and UAV components	Production targeted for 2027	Planned joint venture, not completed production
Lithuania–Ukraine	SkyFortress arrangement	Acoustic low-altitude drone detection	Testing described in Oct 2026	Contract and installation/testing plans
Lithuania–United States	Mach Industries declaration	Potential UAV and ISR manufacturing	No verified investment total	Joint declaration concerning potential production
Latvia–Ukraine	Bilateral defence cooperation framework	UAVs, air defence, R&D, technology transfer	Approx. €110m intended over first two years	Government-approved framework; spending subject to authorisation
Latvia / Drone Coalition	Multinational procurement initiative	UAV procurement, testing and delivery	Latvia: €50m planned for 2026	National funding plan within multinational framework
Latvia–Ukrainian industry	Manufacturing and testing memoranda	UAV production and dual-use testing	No consolidated verified value	Memoranda signed July 2026
NATO / Finland / Sweden	Forward Land Forces Finland	Multinational land-force deterrence	Established June 2026	NATO formation established
NATO / Baltic region	Baltic Sentry	Critical undersea infrastructure vigilance	Launched January 2025	NATO operational activity
NATO / eastern flank	Eastern Sentry	Multinational airspace defence and surveillance	Launched September 2025	NATO operational activity

Sources: Swedish Government, Gripen E/F Announcement — May 2026; Norwegian Ministry of Defence, Build with Ukraine — Apr 2026; Lithuanian Ministry of National Defence, Drone Production Technology — Oct 2026; Latvian Ministry of Defence, Bilateral Defence Cooperation — Jun 2026; NATO, Strengthening the Eastern Flank.

The emerging strategic geometry: industrial networks, regional requirements and future cooperation

The evidence indicates that Northern and Baltic European governments are beginning to treat Ukrainian technological expertise as part of their own defence-industrial development strategies. Sweden is linking advanced combat aviation cooperation with innovation funding and potential manufacturing arrangements. Norway is pursuing production of Ukrainian-designed equipment domestically and formalising knowledge exchange. Lithuania is combining acquisition of Ukrainian surveillance technology with planned industrial localisation and additional international partnerships. Latvia is integrating multinational procurement, bilateral cooperation, domestic industrial investment and testing infrastructure. These models are distinct, but they share an increasing emphasis on the reciprocal exchange of technology, manufacturing resources and operational knowledge.

The potential long-term significance is the emergence of a distributed production structure in which different participating countries perform complementary tasks. One country may contribute technical development, another provide specialised components, another perform final assembly, and another support testing or procurement. Such a structure could improve industrial resilience by reducing dependence on a single production location, but it could also increase complexity if regulatory permissions, transport arrangements, technology rights or delivery priorities are poorly coordinated. Distribution of production is therefore not inherently equivalent to security of supply. Its value depends on whether the participating facilities, suppliers and governmental authorities can continue to function as an integrated system under pressure.

Future agreements are likely to be most consequential where they address these constraints directly. Framework declarations may establish political objectives, but industrial resilience requires enforceable production arrangements, workable export permissions, agreed technical standards, access to components and mechanisms for responding to changing military requirements. Collaboration involving software-intensive systems also requires rules governing operational data, modifications and intellectual property. Governments seeking to accelerate technology transfer must therefore balance openness to innovation against the protection of sensitive information and the integrity of military systems.

The emerging regional architecture is also likely to influence the relationship between European industrial policy and NATO operational planning. NATO’s force and capability requirements can create incentives for standardised equipment, while EU instruments can support eligible industrial investment. National and bilateral programmes can deliver technological innovation more rapidly than large institutional frameworks in some circumstances. The strongest outcome would be a division of responsibilities in which these mechanisms complement one another. The weaker outcome would be an expanding number of technologically impressive but mutually incompatible national programmes.

Chapter 5 — Key judgments. The Nordic–Baltic region is becoming an important environment for the integration of Ukrainian technological expertise into European defence production and operational planning. Official records demonstrate a range of specific industrial and governmental arrangements, particularly involving Sweden, Norway, Lithuania and Latvia. These developments provide stronger evidence of reciprocal cooperation than general political declarations alone, although their ultimate manufacturing and military effects remain dependent on implementation. Central and Southeastern Europe face related but distinct requirements, with opportunities for industrial cooperation shaped by geography, national procurement and NATO obligations.

What would change the assessment: Verified sustained production in the planned Lithuanian and Norwegian facilities, completed Swedish aircraft procurement, repeat multinational drone orders, and NATO-compatible operational testing across regional systems would strengthen the assessment of progressive industrial integration. The failure of planned facilities to begin production, persistent export restrictions or incompatible systems would support a more limited interpretation.

European Defence Agreements and Industrial Integration

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OPEN-SOURCE ANALYTICAL ASSESSMENT

As of: 2026-11-10 | Europe–NATO–Ukraine | Industrial and technological outlook: 2027–2031

PILLAR II — MILITARY TECHNOLOGIES, INDUSTRIAL AGREEMENTS AND PRODUCTION NETWORKS

Weapons Systems, Manufacturers, Industrial Capacity, Technological Dependencies and Cross-Border Defence Production

Chapter 6 — Europe's Drone and Counter-Drone Revolution: Ukrainian Technologies, European Production and the Economics of Interception

The strategic shift from platform superiority to sustainable defensive capacity

Europe's drone and counter-drone revolution is fundamentally changing the economics, industrial organisation and technological requirements of air defence. The decisive transformation is not simply the availability of more unmanned aircraft, but the growing importance of producing, maintaining and continuously upgrading large numbers of relatively inexpensive systems capable of operating within contested electromagnetic and airspace environments. This creates an industrial challenge distinct from traditional procurement models organised around a relatively limited number of expensive platforms. Military effectiveness increasingly depends on the interaction between detection capability, classification reliability, interception resources, secure communications, production continuity and the speed at which equipment can be modified in response to changing threats. A country may possess advanced air-defence missiles and still face substantial difficulty defending dispersed infrastructure against repeated attacks by comparatively inexpensive unmanned aircraft. Conversely, a country may manufacture large quantities of low-cost interceptors but lack the sensing, command-and-control infrastructure or trained personnel needed to employ them effectively. The emerging requirement is therefore an integrated technological and industrial ecosystem rather than an isolated category of weapon.

NATO's integrated air and missile defence doctrine explicitly recognises this transformation. The Alliance's policy published on 13 February 2025 identifies unmanned aircraft as part of the wider spectrum of threats that its integrated architecture must address, alongside combat aircraft, cruise missiles, ballistic missiles and emerging hypersonic systems. The policy specifically distinguishes Class I unmanned aircraft, with a mass below 150 kilograms, as a category creating particular challenges and requiring appropriate defensive solutions integrated into the broader command-and-control structure. This is an important institutional distinction: NATO does not regard small-drone defence as entirely separate from conventional air defence, but as a capability that must be coordinated with the existing surveillance and engagement architecture. The same policy emphasises layered systems, redundancy, distributed capabilities and the ability to detect, decide and engage threats across different ranges, altitudes and speeds. NATO Integrated Air and Missile Defence Policy — NATO — Feb 2025; NATO Integrated Air and Missile Defence — NATO — Oct 2026. NATO Official text+1

The resulting industrial transformation has several distinct dimensions. First, defence establishments need equipment that can be manufactured and replenished at rates compatible with repeated operational demand. Second, systems must remain technically adaptable because the performance of sensors, electronic countermeasures and interceptors can change as adversaries modify their platforms. Third, procurement authorities must evaluate the total cost of defensive operations rather than the nominal acquisition price of a single interceptor. Fourth, industrial programmes must address the availability of components, technical documentation, maintenance capacity and production permissions. Fifth, governments must establish whether technologies developed for one operating environment can be certified and integrated elsewhere. These requirements explain the increasing European interest in Ukrainian technologies: Ukraine's operational experience creates opportunities for identifying useful approaches to rapid adaptation, while European companies and governments may be able to provide manufacturing resources, engineering support and longer-term procurement arrangements.

The economics of interception: cost ratios are necessary but insufficient

The economic problem created by large-scale drone attacks concerns the relationship between the resources expended by an attacker and those required to maintain a sustainable defence. When a relatively inexpensive unmanned aircraft must be intercepted by an expensive, scarce missile, the defender may incur a considerable financial and logistical burden even when the interception is operationally successful. This does not establish that using a high-value missile is always irrational. The appropriate defensive response depends on the probable consequences of the threat reaching its target, the effectiveness of available alternatives, the ammunition inventory, the likelihood of successful engagement and the military importance of the protected asset. Nevertheless, repeated employment of high-cost interceptors against comparatively inexpensive threats can create a structural resource imbalance, particularly where the defender must protect numerous geographically dispersed installations.

The United Kingdom's Octopus programme provides a concrete illustration of attempts to address this imbalance. In September 2025, the British Ministry of Defence announced a technology-sharing arrangement with Ukraine intended to support the joint development and British manufacture of Ukrainian-designed interceptor drones, identifying Octopus as the first project. The UK government described an ambition to manufacture thousands of Octopus systems per month. This was a production target, not independently verified manufacturing output. In January 2026, the British government stated that Octopus interceptors cost less than 10% of the drone they are intended to destroy, that production would begin that month, and that the design was being updated approximately every six weeks in response to changing Russian tactics. These are official programme claims; they should not be interpreted as independently audited cost data, confirmed fleet-wide operational performance or proof that the target production rate had been achieved. Groundbreaking Ukraine Technology-Sharing Agreement to Deliver Drones and Support Jobs — UK Ministry of Defence — Sep 2025; UK Accelerates £200 Million of Funding for Deployment to Ukraine — UK Ministry of Defence — Jan 2026. GOV.UK+1

The British statement concerning the relative acquisition cost is significant, but its analytical interpretation requires care. A comparison between the price of an interceptor and the price of its target does not by itself establish the total cost of a defensive engagement. An interceptor may depend on surveillance equipment, communications infrastructure, trained operators, maintenance facilities and logistics. Its operational cost may also vary according to the number of interceptors required per engagement and the proportion of attempts producing the intended effect. Conversely, the value of a successful interception may be much greater than the price of the intercepted aircraft when it protects energy infrastructure, military installations, transport systems or civilian populations. Accordingly, the relevant policy question is not simply whether an interceptor costs less than the target, but whether the complete defensive architecture can provide an acceptable level of protection at a sustainable cost under repeated demand.

This distinction can be expressed without manufacturing speculative performance estimates. Let the acquisition cost of an interceptor be \(C_i\), the number of interceptors consumed in an engagement be \(N_i\), and the allocated surveillance, operating and maintenance expenditure be \(C_s\). The directly attributable defensive engagement cost can then be represented as \(C_d=N_iC_i+C_s\). This simplified accounting identity is not a military performance model, because it does not incorporate the probability of interception, the operational consequences of failure or the opportunity cost of consuming scarce ammunition. Its usefulness is to demonstrate why a headline interceptor-to-target price ratio is only one component of a broader procurement decision. The publicly available official record does not provide sufficiently comparable, independently audited inputs to calculate a defensible Europe-wide cost per successful drone interception.

The technological architecture of counter-drone defence

The technologies required for effective counter-drone operations can be divided into detection, classification, tracking, decision support and engagement. These functions are operationally connected, but each involves different technical limitations and industrial requirements. Radar systems can contribute surveillance and target tracking, although performance is influenced by the radar cross-section of the target, surrounding terrain, clutter, weather and system configuration. Electro-optical and infrared equipment can provide complementary identification information, but their effectiveness is affected by visibility, atmospheric conditions and available sensor coverage. Acoustic systems can detect distinctive propulsion signatures in some environments, while passive radio-frequency sensors may identify relevant transmissions where emissions are present. Electronic-warfare systems provide additional defensive options, subject to the characteristics and resilience of the relevant unmanned platform.

No individual sensor should be regarded as a comprehensive solution across every operating environment. The importance of sensor fusion lies in the possibility of combining independent observations to improve situational awareness and support timely decisions. However, combining sensors creates additional demands for communication links, data quality, synchronisation, software integration and cybersecurity. The defence authority must also determine how information is transferred between national systems, military units and infrastructure operators, particularly when different organisations control different elements of the surveillance architecture. In an Alliance context, these technical questions are inseparable from identification procedures, engagement authority and the need to avoid interference with friendly aircraft or civilian activity.

Lithuania's adoption of Ukrainian acoustic detection technology provides an example of this broader information-centric approach. In October 2026, the Lithuanian Ministry of National Defence announced an arrangement involving the Ukrainian SkyFortress system, including sensor-data processing, relevant acoustic and radio-frequency signature libraries and personnel training. The stated testing programme was intended to establish the system's performance under Lithuanian conditions. The inclusion of signature libraries is particularly important because it demonstrates that technology transfer may concern reference data and classification capabilities as well as physical equipment. This is not evidence of unrestricted access to all Ukrainian military datasets, nor does installation alone demonstrate the system's operational effectiveness. Lithuania Deploys Ukrainian SkyFortress Acoustic Drone Detection System — Lithuanian Ministry of National Defence — Oct 2026.

Industrial production: why manufacturing volume must be separated from operational output

The industrial economics of drone defence depend heavily on the distinction between announced production capacity and realised manufacturing output. Governments and manufacturers may announce investment in new facilities, ambitious monthly production targets or the signing of technology licences. These developments can be significant indicators of industrial mobilisation, but they do not establish that the necessary workforce, components, qualified suppliers and production processes are already available. Nor does the delivery of a given number of systems necessarily establish their operational availability. Equipment requires testing, acceptance, deployment, maintenance and sufficient compatible supporting infrastructure. A reliable industrial assessment must therefore distinguish planned capacity, installed capacity, actual production, accepted deliveries and operationally available systems.

Production capacity also depends on the structure of the supply chain. Relatively inexpensive equipment may still require specialised electronics, propulsion components, sensors, secure communications, batteries or other materials subject to supply constraints. The availability of one component can determine the output of an otherwise complete assembly line. Manufacturing expansion therefore requires more than the construction of additional factories; it may require qualification of alternative suppliers, changes to product designs, investment in testing facilities and agreements governing component substitution. These tasks can be especially difficult when the original technology is controlled by a foreign company or government, because modifications may require additional approvals.

The UK–Ukraine Octopus programme illustrates one potential model of continuous industrial adaptation. The British government has described a direct relationship between Ukrainian battlefield information and British production, with periodic design changes intended to respond to emerging threats. This approach potentially reduces the delay between identifying a technical limitation and introducing a modification into production. However, the industrial value of frequent design updates depends on whether manufacturers can implement them without disrupting quality control, component sourcing or product reliability. A short development cycle is useful only if the resulting equipment remains sufficiently standardised to be manufactured, supported and employed effectively. UK–Ukraine Enhanced Security and Defence Industrial Collaboration Declaration — UK Government — Mar 2026. GOV.UK

Technology comparison: functional requirements and industrial constraints

Technology category	Primary defensive function	Principal industrial requirement	Operational limitation	Relevant European development
Small interceptor UAVs	Kinetic interception of selected aerial threats	Affordable manufacturing, propulsion, sensors and guidance integration	Engagement performance varies by target and environment	UK–Ukraine Octopus cooperation
Acoustic detection	Passive detection of relevant acoustic signatures	Distributed sensors, classification software and validated reference data	Environmental noise and operating conditions	Lithuania–Ukraine SkyFortress
Radar surveillance	Detection and tracking across relevant airspace	RF engineering, radar components and signal processing	Small targets, clutter and coverage limitations	NATO IAMD and national air-defence networks
Electro-optical / infrared surveillance	Visual and thermal classification and tracking	Sensors, image processing and optical integration	Visibility, weather and field-of-view constraints	National and multinational counter-UAS architectures
Electronic countermeasures	Disruption of susceptible communications or navigation functions	RF engineering, software and electronic-warfare integration	Reduced effectiveness against certain autonomous or hardened systems	Ukrainian–European electronic-warfare cooperation
Sensor-fusion software	Combination and classification of multiple observations	Software engineering, secure data exchange and testing	Data quality and interoperability constraints	NATO integrated air-defence requirements
Command-and-control integration	Coordination of threat information and engagement decisions	Secure communications, standards and operational procedures	National restrictions and incompatible interfaces	NATO integrated air and missile defence
Industrial localisation	Manufacturing and adaptation outside the original development country	Licensing, qualified suppliers, production facilities and export permissions	Supply dependencies and technology restrictions	Norway, Lithuania and UK production partnerships

The table identifies functional and industrial relationships, not measured comparative performance. Technical definitions and command requirements are consistent with NATO Integrated Air and Missile Defence Policy — NATO — Feb 2025. Programme examples are supported by the relevant governmental announcements cited above.

The emerging competitive advantage is the ability to learn and manufacture simultaneously

The strategic value of Ukrainian–European counter-drone cooperation is most apparent when technological adaptation and industrial production are treated as a single system. Ukraine's operational environment generates continuing information about equipment effectiveness and evolving threats. European manufacturers may contribute the engineering and industrial processes needed to reproduce selected technologies at greater scale or with additional quality-assurance requirements. Governments can provide procurement demand and a legal framework for sharing technology. This interaction creates the possibility of a more responsive defence-industrial model, but its effectiveness depends on the continuity and quality of each relationship.

European governments should therefore evaluate partnerships using indicators that reveal industrial maturity rather than relying on the number of agreements announced. Relevant indicators include completed technology licences, identified manufacturing responsibilities, verified supplier qualification, production acceptance, repeat orders, completed operational trials and evidence that software or equipment modifications can be implemented without excessive disruption. These indicators are particularly important because counter-drone technologies can become obsolete or ineffective when their operating environment changes. A production network that cannot incorporate technical improvements may lose much of its original advantage.

Chapter 6 — Key judgments. Europe's counter-drone transformation is driven by the need to reconcile operational effectiveness, scalable manufacturing and sustainable defensive expenditure. Ukrainian technology partnerships provide a mechanism for accessing combat-informed engineering, while European industrial structures may support broader production and sustainment. The most consequential uncertainty is the difference between announced manufacturing objectives and verified production combined with demonstrated operational performance. The future European advantage will depend less on the existence of individual interceptor programmes than on the ability to develop, manufacture and continually improve integrated defensive systems.

Chapter 7 — Integrated Air and Missile Defence: Patriot, SAMP/T, IRIS-T, NASAMS, European Sky Shield and Anti-Ballistic Technologies

The new requirement is integrated defensive depth rather than the acquisition of individual missile systems

Europe's air and missile defence transformation is increasingly determined by the ability to connect heterogeneous systems into a layered architecture capable of responding to different threats without exhausting scarce high-performance interceptors. The principal industrial consequence is that missile procurement, radar development, command-and-control integration, electronic warfare and lower-cost interception must be planned as complementary functions. A defence system intended primarily to counter combat aircraft and cruise missiles cannot be assumed to provide the same capability against ballistic missiles, and equipment designed for high-performance missile interception may be economically unsuitable for the repeated engagement of inexpensive unmanned aircraft. Conversely, short-range systems cannot replace the protection provided by longer-range interceptors against threats outside their engagement envelopes. The resulting architecture requires deliberate allocation of functions, reliable surveillance coverage and integration across national military structures.

The NATO Integrated Air and Missile Defence framework provides the institutional foundation for these requirements. The Alliance's current policy adopts a 360-degree approach to threats from multiple directions and explicitly requires the integration of surveillance, passive defensive measures and active systems. Its command-and-control architecture is particularly significant because national systems can only contribute effectively to a multinational defensive effort when communications, identification and engagement procedures are sufficiently compatible. NATO also identifies interoperability as a technical, procedural and human requirement. The operational system consequently extends beyond the acquisition of launchers or missiles to encompass training, communications security, airspace coordination and sustainment. NATO Integrated Air and Missile Defence — NATO — Oct 2026. NATO Topic

Patriot — High-end interception and the industrial consequences of transatlantic dependence

Patriot occupies an important position in European ground-based air and missile defence because it provides capabilities against selected aircraft, cruise-missile and ballistic-missile threats, depending on the system configuration, interceptor and operating conditions. It should not be treated as a uniform product whose performance and industrial implications are identical across every user. Patriot capabilities depend on the radar, control infrastructure, launcher configuration, interceptor variant, software and training arrangements employed by the operating force. Systems using different interceptor families can have substantially different military functions, making comparisons based solely on the Patriot name technically inadequate.

For European procurement authorities, Patriot's industrial relevance extends well beyond the initial acquisition price. Missile inventories must be replenished, components maintained, personnel trained and systems updated throughout their operational lives. Supply relationships with American manufacturers and the associated export-control framework can create dependencies affecting future purchases, modifications and third-country transfers. These dependencies do not automatically make transatlantic procurement undesirable: access to established systems, development programmes and NATO-compatible capabilities can provide substantial military benefits. The strategic issue is whether European governments have sufficient certainty over replenishment, sustainment, industrial participation and access to future upgrades, particularly during periods of unusually high ammunition demand.

Patriot must also be assessed against the wider NATO ballistic-missile defence architecture. NATO identifies the United States' European Phased Adaptive Approach as a central contribution, including Aegis Ashore installations in Romania and Poland and American Aegis-capable naval assets based in Spain. Romania hosts the Deveselu Aegis Ashore facility, while Poland hosts the Redzikowo installation. NATO describes these assets as part of a broader multinational defensive system involving sensors, interceptors, communications and command arrangements. Their strategic contribution is distinct from that of national Patriot batteries, even though both belong to the wider integrated missile-defence environment. Ballistic Missile Defence — NATO — Undated. NATO Topic

SAMP/T NG — The Franco-Italian industrial alternative and the expansion of European long-range defence

The SAMP/T New Generation programme is particularly significant because it demonstrates that France and Italy are not merely customers for air and missile defence systems, but participants in a European industrial structure developing sophisticated integrated defensive capabilities. The programme is managed through OCCAR on behalf of the participating governments, with Eurosam, the joint venture involving MBDA and Thales, performing a central industrial role. It is associated with the Aster missile family, including the Aster 30 B1 and the newer B1NT development, and combines engagement management, surveillance radar and interconnected launchers within a dedicated system architecture.

The manufacturer's official record identifies two successful SAMP/T NG test firings in December 2025, one involving an Italian configuration at the Salto di Quirra range in Sardinia and another involving a French configuration at Biscarrosse. These trials followed earlier Aster B1NT firings and were intended to demonstrate the system's integrated capabilities. The distinction between successful firing tests and full operational availability remains essential. Successful engagements provide important evidence concerning the tested configurations, but do not automatically establish the production, delivery, readiness or performance of every system subsequently ordered. Successful Firings with the SAMP/T NG Long-Range Air Defence Systems — Eurosam/MBDA — Dec 2025. MBDA

A more recent industrial development occurred on 23 October 2026, when MBDA announced that OCCAR, acting for the French government, had awarded Eurosam a contract for four additional SAMP/T NG firing units, increasing France's total ordered systems to 12. The announced configuration combines Aster and VL MICA capabilities for layered defence, while the manufacturer emphasised integration with national and NATO air-defence networks. This is a concrete procurement award rather than a general declaration of interest; nevertheless, the twelve-unit total is an order figure, not a statement that all twelve systems have been delivered or are operationally available. The October announcement is also important because it demonstrates that European layered air defence is being developed through a coordinated industrial structure rather than a single nationally isolated manufacturer. France Orders Four Additional SAMP/T NG Air and Missile Defence Systems — MBDA — Oct 2026. MBDA

Denmark's selection of the French SAMP/T NG configuration in September 2025 adds a further European dimension. Industrially, an additional customer can support production continuity and common sustainment where systems are sufficiently standardised. Strategically, the decision demonstrates the possibility of extending Franco-Italian technology into wider European procurement frameworks. However, national configurations and operational arrangements remain relevant; selection of a manufacturer does not ensure complete interchangeability among all users. The long-term value of the programme will depend on reliable missile production, radar and software integration, training capacity and the ability to support multiple customer countries throughout the systems' service lives.

IRIS-T SLM — German development, Baltic procurement and the extension towards naval systems

IRIS-T SLM provides a different example of European industrial expansion. Developed by Germany's Diehl Defence, the system combines a medium-range interceptor with radar and tactical command components. It is intended to engage categories of aerial targets that include aircraft, helicopters, cruise missiles and unmanned systems, subject to its operational configuration. The manufacturer identifies a nominal engagement capability of up to 40 kilometres in range and 20 kilometres in altitude, but these are declared product specifications and not guarantees of engagement success against every target under all conditions. The distinction is particularly important for targets employing different flight profiles or countermeasures.

Latvia and Estonia pursued cooperative procurement of IRIS-T SLM, with the manufacturer's official announcement identifying industrial and operational benefits associated with common equipment. These include training, maintenance and component compatibility. On 22 June 2026, Diehl Defence reported the delivery of the first IRIS-T SLM fire unit to the Estonian Air Force at Ämari Air Base. This is a more advanced implementation status than an order or production announcement, although delivery remains distinct from a separately documented national declaration of full operational capability. Latvia Orders IRIS-T SLM from Diehl Defence — Diehl Defence; First IRIS-T SLM Fire Unit Delivered to Estonia — Diehl Defence — Jun 2026. Diehl Defence+1

Germany's domestic integration also advanced in October 2026. Diehl Defence reported that the German Air Force had completed an operational certification exercise for IRIS-T SLM at the NATO firing range in Crete, involving the TRML-4D radar, Common Tactical Operations Center and missile launcher. In a separate agreement announced on 2 October 2026, Diehl and the German procurement authority established an adaptation-development programme intended to integrate IRIS-T SLM with the German Navy's F125 frigates. The naval arrangement includes prototype development and comprehensive testing; it should therefore be classified as an adaptation and integration contract rather than a completed operational naval deployment. These developments demonstrate a potentially important industrial principle: the adaptation of existing missile and command-system technology across different platforms can create opportunities for standardisation, but requires substantial engineering and testing to address the specific operating environment. IRIS-T SLM Passes System Certification — Diehl Defence — Oct 2026; IRIS-T SLM for the German Navy: Adaptation Development for F125 Frigates — Diehl Defence — Oct 2026. Diehl Defence+1

NASAMS and European Sky Shield — The distinction between national procurement coalitions and NATO command integration

NASAMS occupies an important place within the wider European air-defence ecosystem as a networked, medium-range system associated with Norway's Kongsberg and the American company Raytheon. Its industrial structure illustrates a different model from SAMP/T NG and IRIS-T SLM: a transatlantic partnership involving European command-and-control and systems-integration expertise alongside American missile technologies. Its strategic relevance lies in providing an additional procurement pathway for countries seeking networked ground-based air defence, but industrial independence must be assessed component by component. The European origin of one subsystem does not establish European control over every critical component or future modification.

The European Sky Shield Initiative, led by Germany, should similarly be distinguished from the NATO integrated air-defence system itself. It is a multinational procurement and cooperation framework intended to facilitate the acquisition of complementary ground-based defensive capabilities. Its role is to support coordination among participating countries, potentially including common procurement, training and sustainment. It does not replace NATO command structures or automatically create a single operational command authority. Its practical benefits depend on the systems purchased, national implementation decisions, maintenance arrangements and compatibility with the wider Allied architecture.

The relevant strategic comparison is therefore not a simple competition between Patriot, SAMP/T NG, IRIS-T SLM and NASAMS. The systems address overlapping but different threat categories, procurement structures, national requirements and industrial dependencies. In some contexts they can form complementary layers within a broader network. Their relative value cannot be determined without identifying the defended asset, operational environment, threat characteristics, inventory constraints and available supporting infrastructure.

European air and missile defence: comparative industrial and operational matrix

System / framework	Principal industrial actors	Primary capability	Documented European development	Status distinction	Strategic dependency
Patriot	Raytheon and other participating suppliers	High-end integrated air and missile defence	Operated and procured by European NATO Allies	Operational systems and separate ongoing acquisitions	US-origin components, missiles and authorisations
SAMP/T NG	Eurosam, MBDA, Thales	Long-range integrated air and missile defence	France ordered four additional firing units in Oct 2026, bringing its total to 12	Contracted units versus delivered units	Aster supply, radars, integrated electronics and production
IRIS-T SLM	Diehl Defence and system partners	Medium-range ground-based air defence	First Estonian fire unit delivered Jun 2026; German certification Oct 2026	Delivery and certification are distinct milestones	Missile production, radars and command integration
NASAMS	Kongsberg, Raytheon	Networked medium-range air defence	Part of European national air-defence procurement portfolios	Configuration and national status vary	Transatlantic missile and technology supply
Aegis Ashore / NATO BMD	US and Allied systems	Ballistic-missile defence	Deveselu and Redzikowo installations	Established NATO BMD contribution	US-origin components and multinational coordination
European Sky Shield Initiative	Participating governments and suppliers	Coordinated procurement of defensive layers	Multinational procurement framework	Procurement initiative, not separate NATO command	National purchasing and technical integration
European Air Shield / EU-FIAMD	EU institutions and participating states	European capability and industrial coordination	EU-FIAMD identified as project of common interest Sep 2026	Project eligibility, not completed deployment	Financing, member-state participation and interoperability

The system descriptions are supported by NATO Integrated Air and Missile Defence — NATO — Oct 2026, Ballistic Missile Defence — NATO, SAMP/T NG Orders — MBDA — Oct 2026, and IRIS-T SLM Deliveries — Diehl Defence — Jun 2026.

A new EU instrument: Federated Integrated Air and Missile Defence

On 28 September 2026, the Council of the European Union identified five European Defence Projects of Common Interest under EDIP, including EU Federated Integrated Air and Missile Defence including Early Warning (EU-FIAMD). The project is intended to develop coordinated European capabilities for early warning, integrated command systems and collective air and missile defence. Its inclusion is institutionally significant because it moves beyond the broad identification of air defence as a priority and establishes a named collaborative project eligible for funding through the relevant EU framework. The same Council decision also identified programmes involving drones, maritime defence, space and Eastern Flank Watch, demonstrating the interconnection of air-defence requirements with other strategic domains. European Defence Industry: Council Identifies the First Five Projects of Common Interest — Council of the European Union — Sep 2026. Consilium

The main challenge for EU-FIAMD is to turn institutional coordination into a technically functioning and operationally compatible system. A federated architecture is potentially attractive because national governments can retain substantial control over their own equipment while participating in shared surveillance and coordination mechanisms. However, federation requires reliable interfaces, common security procedures, data-sharing rules and sufficiently compatible military decision processes. The project therefore introduces a governance and engineering challenge as important as the acquisition of additional missiles.

Chapter 7 — Key judgments. Europe is developing several complementary air-defence technologies and procurement structures, but their integration is a separate and demanding undertaking. The most concrete recent industrial milestones include the additional French SAMP/T NG order, IRIS-T SLM delivery and certification developments, and EU-FIAMD's selection as a European project of common interest. These milestones should be distinguished from full continental operational integration. The principal strategic requirement is to connect sensors, command systems and interceptors across different layers while ensuring sufficient production and replenishment capacity.

Chapter 8 — The European Defence-Industrial Network: Joint Ventures, Licensed Manufacturing, Technology Transfers and Supply-Chain Integration

The industrial network is becoming a system of contractual rights and distributed production

The defining characteristic of the emerging European defence-industrial network is the growing separation between where a military technology is developed, where it is manufactured, who finances its production and which armed forces ultimately operate it. This creates opportunities for reciprocal cooperation, but also introduces substantial contractual, regulatory and supply-chain complexity. A Ukrainian-developed system may be manufactured in the United Kingdom or Norway, a Franco-Italian missile system may be procured by another European government, and a multinational aircraft programme may involve industrial organisations in Europe and the Indo-Pacific. Each relationship requires specific decisions concerning intellectual property, production responsibility, export authorisation, industrial security, qualification and maintenance. The strategic value of the network depends on whether those relationships provide durable access to equipment and technical capabilities under both normal conditions and periods of intense demand.

Several distinct legal and industrial arrangements coexist within this system. A government-to-government declaration can establish political intentions without necessarily creating an enforceable purchase obligation. A memorandum of understanding may provide a framework for future cooperation while leaving technical and commercial details unresolved. A production licence can authorise one company to manufacture another's design under defined restrictions. A joint venture creates a separate corporate structure through which participants may combine assets, technical knowledge and capital. A procurement contract establishes obligations concerning goods or services, quantities, delivery conditions and payment. A research and development agreement addresses the creation of new technology and must determine who owns the resulting intellectual property. These differences matter because announcements that appear similar in political language can have radically different industrial consequences.

The UK–Ukraine Octopus arrangement represents a government-supported licensed-production model. The German–Ukrainian arrangements involving Anubis and Seth-X illustrate cooperation concerning the production of identified unmanned systems. Norway's Build with Ukraine arrangements represent the prospective localisation of Ukrainian-designed production in a partner country. Lithuania's Pekkla–December One RND initiative represents a planned corporate partnership involving technology and industrial resources. Each model creates a different balance between technological control, local manufacturing responsibility and dependence on continuing cooperation. Their status must also be assessed independently: a licence, an implementing arrangement and a letter of intent are not equivalent forms of evidence. UK–Ukraine Enhanced Industrial Collaboration Declaration — UK Government — Mar 2026; European Defence Industry Programme — Council of the European Union. GOV.UK+1

Intellectual property and design authority: the often-neglected foundations of industrial sovereignty

An industrial partnership cannot be evaluated solely by identifying the factory in which equipment is assembled. The decisive question is whether the receiving manufacturer or government possesses sufficient authority and technical knowledge to sustain, modify and reproduce the system as requirements evolve. Intellectual-property arrangements may distinguish between background technology developed before the partnership and new technology created through joint research. They may allocate exclusive or non-exclusive manufacturing rights, define geographic restrictions, impose limitations on third-country sales and regulate the use of technical documentation. They may also require continued participation by the original developer for software updates or modifications to sensitive components.

These arrangements determine whether industrial localisation creates genuine productive autonomy or merely transfers the final stages of assembly to a different jurisdiction. A manufacturer that can assemble a system but cannot modify its software, substitute restricted components or obtain essential design documentation remains dependent on the original technology owner. Conversely, unrestricted technology transfer may reduce commercial incentives for the developer to continue investing in innovation. Sustainable agreements therefore require a balance between recipient access, intellectual-property protection and the financial incentives supporting future development.

This issue is particularly important for technology involving rapid iteration. A counter-drone system may require frequent modifications to software, electronic components or sensor integration. If every modification requires lengthy contractual approval, the advantage associated with rapid technological development may be reduced. However, completely decentralised modifications can also create quality-control, compatibility and cybersecurity problems. The industrial solution is not unrestricted alteration, but a well-defined configuration-management process identifying the responsible design authority, permitted modifications, testing obligations and procedures for distributing approved updates.

EU industrial instruments are beginning to address the structural barriers to cross-border production

The European Defence Industry Programme introduces a framework intended to strengthen European production capacity and facilitate cooperation among Member States and relevant partners, including Ukraine. The Council's adoption of EDIP in December 2025 established a €1.5 billion programme for 2025–2027, including €300 million for the Ukraine Support Instrument. It also introduced mechanisms supporting collaborative procurement, industrial reinforcement, common-interest projects and security of supply. The instrument is important not only because of the financial resources allocated, but because it addresses structural difficulties that cannot be solved through national equipment purchases alone. European Defence Industry Programme: Council Gives Final Approval — Council of the European Union — Dec 2025. Consilium

A significant development followed on 28 September 2026, when the Council approved the first five European Defence Projects of Common Interest. The projects include DECODER, concerning drones and counter-drone systems; Integrated Maritime and Seabed Defence (IMSD); SPACE, covering several space-related capabilities; EU-FIAMD, addressing integrated air and missile defence; and Eastern Flank Watch (EFW). Their selection gives a more concrete institutional form to the EU's defence-readiness priorities. The Council stated that the projects would become eligible for funding under EDIP, with the possibility of future support through subsequent European financing arrangements. Eligibility for funding, however, is not equivalent to a complete financing decision or the delivery of equipment. European Defence Industry: Council Identifies the First Five Projects of Common Interest — Council of the European Union — Sep 2026. Consilium

These projects are relevant to industrial cooperation because they address capability categories in which individual national programmes may be too limited or fragmented to support a sufficiently extensive production network. Common-interest designation can encourage participating governments to develop shared specifications, coordinate industrial responsibilities and identify procurement demand. Nevertheless, the participating countries must still resolve industrial workshare, ownership, funding, exports, interfaces and production schedules. A European designation cannot automatically reconcile conflicting national requirements or guarantee sustained procurement orders.

Industrial sovereignty is a question of controllable dependencies, not complete autarky

European defence-industrial sovereignty is frequently discussed in terms of domestic production, but the practical question is whether governments and manufacturers can manage critical dependencies without exposing military capability to unacceptable disruption. Full national self-sufficiency across all materials, electronics, manufacturing processes and advanced components is neither established nor necessarily economically desirable. Industrial specialisation and cross-border supply chains can produce significant efficiencies, provided that important components remain available and that governments possess adequate alternatives when suppliers are disrupted.

Dependencies differ in their strategic consequences. Reliance on a widely available commercial component may create limited vulnerability if qualified substitutes exist. Dependence on a specialised sensor, restricted semiconductor, propulsion system or proprietary software may create greater difficulty if replacement would require substantial redesign or authorisation. The central issue is therefore not the nationality of every supplier, but the combination of substitutability, concentration, lead time, inventory availability and control over technical modifications.

The EU's EDIP security-of-supply architecture reflects these concerns. Its provisions are intended to strengthen the availability of critical defence products and components, while supporting industrial coordination and the expansion of European production. The programme also establishes a legal framework for longer-term armaments cooperation and a military sales mechanism. These arrangements recognise that procurement and supply security must be considered together: increasing orders without addressing specialised components and manufacturing constraints may simply lengthen delivery queues. European Defence Industry Programme — Council of the European Union. Consilium

Comparative industrial models

Cooperation model	Representative programme	Industrial mechanism	Principal opportunity	Main limitation	Evidence required for maturity
Licensed production	UK–Ukraine Octopus	Manufacture of Ukrainian design under licence	Scaling production outside Ukraine	Licence scope, supplier access and continued technical support	Accepted production output and verified deliveries
Joint-production arrangement	Germany–Ukraine Anubis/Seth-X	Defined cooperation on production	Complementary manufacturing and engineering	Contractual implementation and production continuity	Output records and implementing contracts
Industrial localisation	Norway–Ukraine Build with Ukraine	Ukrainian technology manufactured in Norway	Distributed production and operational knowledge transfer	Export permissions and factory readiness	Production authorisation and delivered systems
Planned corporate joint venture	Lithuania–Ukraine Pekkla/December One RND	Corporate cooperation and proposed local production	Domestic industrial development	Investment, governance and implementation	Registered venture, manufacturing facility and contracts
Multinational procurement	Latvia/UK Drone Coalition	Coordinated demand and purchasing	Procurement scale and supplier diversification	Divergent national procedures and specifications	Contract awards and verified deliveries
Multinational integrated weapons programme	Franco-Italian SAMP/T NG	Shared industrial development and procurement	Long-term system development and interoperability	Complex production and certification	Contracted units, testing, deliveries and acceptance
Trilateral advanced aircraft development	GCAP	Intergovernmental organisation and industry joint venture	Pooling advanced aerospace expertise	Long development and funding horizons	Development milestones, prototypes and qualification
EU common-interest project	DECODER, EU-FIAMD and others	EU-recognised cross-border capability programme	Shared investment and industrial coordination	Funding and national implementation	Project agreements, appropriations and tested deliverables

Why SMEs and specialised suppliers matter

The resilience of a defence-industrial network depends not only on major manufacturers but also on the suppliers providing specialised components, precision manufacturing, software, materials and testing services. Large systems integrators frequently depend on companies that occupy narrow technological niches and may have relatively limited production capacity. A shortage in one specialised process can delay delivery even when the prime contractor possesses sufficient assembly facilities. This creates a policy challenge because governments may focus their industrial strategies on high-profile platforms while overlooking less visible production bottlenecks.

The European Defence Fund provides one mechanism for supporting collaborative defence research and development, including cross-border industrial consortia. The Commission records a total programme budget of €7.95 billion in current prices for 2021–2027. This funding differs from EDIP's industrial programme and SAFE's loan financing because it is directed towards collaborative technological research and development. The distinction is important for smaller suppliers: research funding may support the creation of new technologies, while the transition into serial production requires different investment, qualifications and procurement commitments. European Defence Fund — European Commission. European Commission

The strategic industrial objective is to create pathways connecting research, demonstration, manufacturing and procurement without expecting one instrument to perform all four functions. A small company may develop an important sensor or software capability through research funding, but it may not possess the working capital or production infrastructure needed for large military orders. Collaborative industrial programmes can potentially provide access to larger manufacturers, although this requires workable contractual relationships and appropriate treatment of intellectual property.

Chapter 8 — Key judgments. Europe's defence-industrial integration is increasingly defined by the management of production rights, distributed manufacturing and specialised supply chains. EDIP and the newly identified European Defence Projects of Common Interest provide institutional mechanisms for addressing these challenges, but production maturity must be assessed project by project. The greatest strategic risk is the emergence of extensive nominal production partnerships that remain dependent on restricted technology, unqualified suppliers or insufficient procurement demand. The principal indicator of success is the conversion of industrial cooperation into repeatable, interoperable and sustainably supported manufacturing output.

Chapter 9 — European Airpower and Precision Strike: Combat Aircraft, Missiles, Long-Range Weapons and Collaborative Development

Europe's combat aviation industry is entering a period of simultaneous modernisation and technological divergence

The transformation of European combat aviation is occurring across several technological generations and different multinational industrial structures. Existing European fleets continue to require upgrades, maintenance, weapons integration and replacement planning, while governments pursue future combat aircraft intended to operate within increasingly connected networks involving crewed and uncrewed platforms. At the same time, the development of more capable air-defence systems, electronic warfare and long-range precision weapons is changing the operational requirements placed on combat aircraft. Industrial competition is therefore no longer limited to aircraft performance. It increasingly concerns the ability to integrate sensors, weapons, electronic protection, mission software, secure communications and autonomous support systems throughout a platform's service life.

Europe's advanced combat-aircraft industry includes established manufacturers and programmes such as Dassault Aviation's Rafale, the Eurofighter Typhoon industrial consortium, Saab's Gripen and the F-35 procurement relationships involving several European states. These programmes differ in industrial governance, technology access, lifecycle support, weapons integration and export restrictions. They also coexist with two major collaborative future-aircraft programmes: the Global Combat Air Programme (GCAP) involving Italy, the United Kingdom and Japan, and the Future Combat Air System (FCAS/SCAF) involving France, Germany and Spain. The existence of these separate programmes demonstrates both the strength of European aerospace engineering and the difficulty of establishing common development requirements and industrial leadership within a single European framework.

GCAP — Italy, the United Kingdom and Japan establish a new industrial governance model

GCAP represents a particularly consequential development for Italy's position in advanced defence technology because it combines Italian and British aerospace capabilities with Japanese industrial participation within a dedicated intergovernmental and commercial structure. The programme is intended to develop a next-generation combat aircraft, with an in-service objective of 2035. Its legal foundation includes the convention signed in December 2023 establishing the GCAP International Government Organisation, which provides a structure for coordination among the participating states. The programme's industrial architecture involves a corresponding multinational business organisation intended to manage development and delivery. This arrangement is important because it seeks to establish a long-term governance framework for a technically complex project rather than relying exclusively on separate national contracts. Convention Establishing the Global Combat Air Programme International Government Organisation — UK Government — Dec 2023; GCAP Trilateral Defence Ministerial Joint Statement — UK Ministry of Defence — Dec 2023. GOV.UK+1

A major contractual milestone occurred on 3 July 2026, when the British government announced a £4.6 billion contract awarded to the international industrial joint venture Edgewing for the next phase of aircraft development. The contract is jointly financed by the three partner countries. The same announcement stated that the United Kingdom intended to invest £8.6 billion in GCAP over four years, within its national Defence Investment Plan. These figures are not interchangeable: the first identifies a specific multinational industrial contract, while the second concerns a national multiyear investment commitment. Adding them together would risk double counting without a detailed accounting reconciliation. The announcement confirms substantial contractual activity, but does not establish that a production aircraft has been completed or qualified. Over £4 Billion Invested in Next-Generation Fighter Jet with New International Contract — UK Ministry of Defence — Jul 2026. GOV.UK

The programme also illustrates the industrial implications of distributing highly sensitive technologies across national jurisdictions. Advanced combat aircraft involve propulsion, sensors, communications, weapons integration, software, electronic warfare, survivability and materials engineering. Effective collaboration requires extensive sharing of technical information, coordinated testing and clear responsibilities for design and configuration management. Export permissions are equally important because manufacturers must exchange components, prototypes and technical data across borders during development. In 2026, the UK government updated its GCAP-related export licensing arrangements to reflect the programme's progression, including provisions concerning supply-chain countries and authorised observer activities. This is a concrete example of how the legal infrastructure governing technology transfers becomes an essential part of advanced industrial cooperation. Notice to Exporters 2026/19: Updated GCAP Licence and Defence Export Controls — UK Government — 2026. GOV.UK

For Italy, GCAP offers the opportunity to participate in advanced design, systems integration, industrial engineering and future combat-aircraft technologies within a programme involving major international partners. The corresponding strategic exposure involves long-term funding, the allocation of industrial work and the protection of national technological capabilities. The 2035 in-service objective remains a programme target dependent on the successful completion of development, qualification and production milestones.

FCAS — The challenge of integrating next-generation aircraft and collaborative combat systems

The Franco-German-Spanish FCAS programme represents another approach to future combat aviation. Its central concept is a system of systems combining a future crewed combat aircraft, uncrewed Remote Carriers and a networked Combat Cloud designed to connect multiple sensors, platforms and operational functions. Airbus describes this architecture as a means of integrating capabilities across air, land, maritime, space and cyber domains, with particular emphasis on secure information exchange and collaborative operations. The concept is more extensive than the development of a single replacement aircraft because it encompasses data-sharing infrastructure, autonomy, mission systems and the interaction between multiple platforms. Future Combat Air System — Airbus — 2026. Airbus

The programme's institutional and industrial complexity is substantial. Advanced aircraft development requires governments and manufacturers to reconcile operational requirements, design authority, intellectual-property rights, industrial participation and financing across different national systems. These questions are particularly difficult when the programme encompasses both a crewed aircraft and an extensive network of supporting technologies. They also create a distinction between technological modules that may advance independently and the completion of the integrated aircraft programme.

In its 2026 annual press conference, Airbus acknowledged difficulties concerning the future combat aircraft programme and stated that the deadlock affecting one programme pillar should not prevent progress across the wider technological system. Airbus also indicated willingness to support a two-fighter solution if mandated by the relevant government customers. This is an interested manufacturer's institutional position, not evidence that governments had formally adopted that alternative. It nevertheless confirms that the industrial governance of FCAS has become an important programme risk and that the continuation of collaborative technologies may be considered separately from the future of the aircraft itself. Airbus Annual Press Conference 2026 — Airbus — 2026. Airbus

The relevant strategic comparison between GCAP and FCAS should not be reduced to an unsupported ranking of technical superiority. Both programmes address long-term requirements involving advanced aircraft, sensors, communications and collaborative combat, but they possess different participants, governance arrangements, industrial structures and development trajectories. Their success will depend on how effectively each converts governmental agreement and industrial expertise into tested systems. The emergence of parallel programmes may preserve separate industrial capabilities and strategic choices, while simultaneously limiting the extent to which European development resources and procurement demand can be pooled.

Current combat aviation and Ukraine's future force structure

Ukraine's potential acquisition of Gripen aircraft is an important example of how European combat aviation programmes intersect with the requirements of an active conflict. The Swedish government announced in May 2026 that Ukraine intended to acquire an initial batch of up to 20 Gripen E/F aircraft, alongside a potential Swedish donation of up to 16 Gripen C/D aircraft. Saab confirmed the political announcement but explicitly stated on 28 May 2026 that it had not signed a contract or received an order relating to the proposed acquisition. The manufacturer's statement is significant because it prevents the interpretation of a governmental acquisition intention as a completed commercial transaction. Ukraine and Sweden Take Steps Towards Ukrainian Gripen Acquisition — Saab — May 2026. Start

The operational consequences of a new combat-aircraft type extend far beyond delivery. Training pilots, ground crews and maintenance specialists requires substantial preparation. Aircraft must be supported through compatible weapons, spare parts, mission-planning infrastructure, communications and secure data systems. The introduction of multiple aircraft types can provide operational flexibility and reduce dependence on one supplier, but may also increase the complexity of logistics, training and maintenance. These considerations are particularly significant when equipment is being introduced during an active conflict.

The longer-term industrial dimension includes the replacement of donated aircraft in the transferring country's inventory, the manufacture of new aircraft, support contracts and potential weapons integration. A proposed donation can therefore generate additional industrial demand even where the immediate transfer does not involve a conventional purchase by the recipient. Yet these downstream effects should only be quantified once the relevant procurement contracts and national budget decisions are documented.

Precision strike: missiles, guidance systems and production constraints

Precision-strike capabilities form another central component of European defence-industrial development. Modern strike weapons depend on combinations of propulsion, guidance, navigation, targeting information, mission planning, warhead design, electronic protection and systems integration. The cost and complexity of these elements vary substantially across missile categories, making simple comparisons based on range or nominal unit price insufficient. Long-range air-launched weapons, ground-launched precision systems, anti-ship missiles and guided artillery munitions address different requirements and may involve distinct production and export-control arrangements.

The Franco-British industrial relationship embodied in MBDA and its associated national industrial structures is particularly important to European complex-weapons development. Germany, France, Italy and the United Kingdom all possess relevant industrial capabilities, but control over specific products, production lines and component technologies varies according to the programme. The development of European precision-strike capacity consequently depends on cooperation among manufacturers, suppliers, armed forces and national procurement authorities. It also requires sustained investment in propulsion, electronics, warhead components and testing infrastructure.

The relationship with Ukraine introduces additional technological and industrial considerations. Governmental cooperation involving the production or potential licensing of European weapons in Ukraine can support future manufacturing and sustainment, but such arrangements require particularly careful treatment of sensitive technology, export permissions and production security. Similarly, Ukrainian-developed long-range unmanned systems may create new opportunities for European industrial cooperation, although their integration into national military requirements and export regimes must be established programme by programme.

Advanced combat-aircraft and precision-strike programmes: institutional comparison

Programme / capability	Countries / principal actors	Official industrial milestone	Value / horizon	Verified status	Key strategic issue
GCAP	Italy, UK, Japan; Edgewing and participating industry	Development contract July 2026	£4.6bn contract; 2035 in-service objective	Contract awarded, development ongoing	Multinational governance, design authority and industrial workshare
UK national GCAP investment	United Kingdom	Defence Investment Plan commitment	£8.6bn over four years	Announced national investment	Funding execution and development milestones
FCAS/SCAF	France, Germany, Spain; participating manufacturers	System-of-systems development and industrial reorganisation discussions	Long-term programme; no verified comparable total here	Development programme with governance challenges	Industrial leadership and programme coherence
Gripen E/F for Ukraine	Sweden, Ukraine, Saab	Acquisition intention announced May 2026	Up to 20 aircraft	No Saab order as of announcement	Contract completion, financing and deliveries
Gripen C/D donation	Sweden, Ukraine	Potential donation announced May 2026	Up to 16 aircraft	Conditional proposed transfer	Aircraft availability and replacement
Rafale	France, Dassault Aviation and suppliers	Established combat-aircraft industrial programme	Programme-specific contracts	Existing aircraft programme	Integration, weapons, sustainment and export control
Eurofighter Typhoon	UK, Germany, Italy, Spain and consortium industry	Established multinational aircraft programme	National orders vary	Existing production and operational ecosystem	Upgrades, lifecycle management and industrial continuity
European precision-strike systems	MBDA and other European manufacturers	Product-specific development and procurement	No consolidated comparable value	Varies by programme	Propulsion, guidance, production and strategic autonomy

Airpower industrial convergence versus strategic competition

The coexistence of multiple combat aviation programmes reflects a structural tension between industrial cooperation and national strategic autonomy. Governments seek to preserve access to advanced military technologies and protect domestic industrial capabilities, while the financial and technical demands of next-generation systems create strong incentives for international collaboration. The resulting partnerships may cross traditional European institutional boundaries, as GCAP demonstrates through Japanese participation, and may involve substantially different industrial models within the same continent.

Future European airpower should therefore be assessed through three interconnected outcomes. The first is the ability to sustain and modernise existing aircraft fleets, which will remain relevant throughout the development of new platforms. The second is the maturity of future combat-aircraft programmes, measured through contracts, design reviews, prototypes, integration testing and certification. The third is the capacity to incorporate autonomous systems, advanced weapons and secure information networks into existing and future aircraft architectures. Progress in one area does not guarantee progress in the others.

Chapter 9 — Key judgments. Europe's combat aviation industry possesses major technological capabilities but remains divided across different multinational programmes and national procurement priorities. GCAP's July 2026 development contract represents a significant documented industrial milestone, while FCAS continues to face important governance and integration challenges. Ukraine's proposed Gripen acquisition highlights the need to distinguish political intentions from signed orders and delivered aircraft. The central strategic requirement is to preserve advanced aerospace capabilities while ensuring that future platforms and associated weapons systems remain financially sustainable, technologically adaptable and operationally interoperable.

Chapter 10 — Artificial Intelligence, Electronic Warfare, Autonomous Systems, Cyber Defence, Space and Multi-Domain Integration

The decisive technological competition is shifting towards information processing and system coordination

Artificial intelligence, electronic warfare, cyber resilience and space-enabled communications are becoming essential components of military capability because the performance of modern weapons increasingly depends on their ability to obtain, process, protect and exchange information. This creates a fundamental distinction between possessing advanced platforms and operating a coherent military system. A surveillance radar may detect a relevant object, but the operational value of that detection depends on whether the information can be classified, shared and used by the appropriate decision-making authority. An unmanned system may possess sophisticated navigation or sensing capabilities, but its effectiveness can be reduced if communications are disrupted or essential software cannot be updated. A precision weapon may depend on targeting information, navigation data and mission planning that originate outside the launch platform. Consequently, the resilience of information systems is becoming inseparable from the resilience of the military equipment they support.

NATO's integrated air and missile defence policy provides a clear institutional example of this dependency. The policy identifies the importance of surveillance, command and control, communication, interoperability and the coordination of defensive systems throughout peacetime, crisis and conflict. It also recognises the challenges created by unmanned systems and attacks involving multiple threat categories. The strategic implication is that technological investment cannot be evaluated exclusively through the performance of individual weapons. Governments must assess the interaction between sensors, decision-support systems, communication networks, military personnel and defensive equipment, including the ability to continue operating when parts of the network are degraded. NATO Integrated Air and Missile Defence Policy — NATO — Feb 2025. NATO Official text

Artificial intelligence: decision support, autonomous functions and the limits of algorithmic reliability

The military applications of artificial intelligence include processing surveillance information, supporting target classification, identifying anomalies, assisting maintenance planning, analysing logistics and improving the management of large volumes of sensor data. These applications do not possess identical technical requirements or risk profiles. Algorithms used for equipment maintenance may be assessed against historical maintenance and failure records, while algorithms supporting operational decisions require substantially greater attention to uncertain environments, adversarial interference, reliability and the consequences of incorrect classifications. The use of the term artificial intelligence therefore does not establish that a particular capability is autonomous, combat-proven or suitable for deployment in a contested environment.

The distinction between automation and autonomy is especially important. An automated system can execute defined procedures according to predetermined rules. An autonomous function may select among available actions based on sensor information and an internal decision process, but the scope of that autonomy depends on its design and authorised operating conditions. Human control, command responsibility, safety requirements and applicable international humanitarian law remain important considerations. A system incorporating machine learning may also be vulnerable to distribution shifts, in which operational conditions differ substantially from those represented in training or testing. This is particularly relevant to systems attempting to classify or track objects in the presence of environmental noise, electronic interference or deliberate deception.

The industrial consequence is a growing requirement for validated datasets, software testing environments, secure development processes, configuration management and continuous monitoring of system performance. Access to operational data can provide important developmental advantages, but the availability of data does not guarantee that a model will perform reliably in a new environment. Data quality, representativeness, classification procedures and the possibility of adversarial manipulation must be assessed. Furthermore, sensitive operational data may be subject to national restrictions, contractual obligations and requirements for secure handling. These conditions can complicate otherwise attractive international technology partnerships.

Electronic warfare: the electromagnetic environment as a contested military domain

Electronic warfare is central to contemporary unmanned operations because many military systems depend on radio-frequency communications, navigation signals, sensors and electromagnetic emissions. Electronic support capabilities can contribute to the identification and characterisation of relevant signals, electronic protection can improve resilience against interference, and electronic attack may disrupt susceptible opposing systems. The effectiveness of these measures depends on target technology, operating conditions and the availability of suitable equipment. It would therefore be inaccurate to assume that all drones are equally vulnerable to radio-frequency disruption or that electronic attack can replace kinetic interception.

For European industrial policy, electronic warfare creates demand for specialised radio-frequency engineering, signal processing, antennas, secure communications and software-intensive equipment. It also creates difficulties for multinational integration because technical information concerning emissions, vulnerabilities and defensive measures can be highly sensitive. An industrial partnership involving electronic-warfare technology must address not only production rights but also restrictions on operational data and technical characteristics. The proposed Lithuania–Ukraine cooperation involving electronic-warfare equipment and unmanned-aircraft components illustrates the industrial relevance of this field, although the relevant joint venture and production arrangements require independent implementation verification.

Cyber defence and the protection of distributed military-industrial systems

As defence systems become increasingly dependent on software, data exchange and networked industrial production, cybersecurity becomes a component of both operational capability and industrial resilience. The security of a military system cannot be assessed solely through the protection of its deployed communications. The development environment, manufacturing facilities, component suppliers, maintenance systems and software-update processes may all influence the integrity of equipment ultimately delivered to military users. A compromised supplier, altered firmware or insecure software distribution process can create risks that persist even when a platform is physically reliable.

This concern is particularly relevant to multinational defence-industrial partnerships. Distributed manufacturing requires the exchange of design documentation, production information, testing results and potentially sensitive software. Different participating companies may operate under different national security rules and possess different levels of cybersecurity maturity. The resulting system may therefore inherit vulnerabilities from its least protected critical dependency. Industrial agreements should consequently establish responsibilities for information protection, access management, technical assurance and incident reporting. These measures are not separate from industrial policy: they influence whether technical cooperation can be sustained securely.

The broader European strategic issue is the need to reconcile data sharing with national security restrictions. Military interoperability depends on the availability of relevant information, but unrestricted access may expose sensitive sources, methods or system vulnerabilities. Governments must identify what information needs to be exchanged, who is authorised to access it and which technical safeguards are required. The objective is not maximal data distribution, but reliable access to the information necessary for each authorised military function.

Space: secure connectivity, early warning and the development of IRIS²

Space-enabled capabilities are increasingly relevant to European military operations because they support communications, positioning, navigation, timing, intelligence collection and the transmission of information between geographically separated systems. Dependence on space services introduces vulnerabilities associated with service availability, interference, cyber threats, ground infrastructure and the concentration of suppliers. A resilient military architecture therefore requires consideration of both orbital assets and the terrestrial networks through which their services are delivered.

The European Union's IRIS² secure-connectivity programme provides a particularly important example of the effort to develop European-controlled communications infrastructure. The European Space Agency reported on 7 August 2026 that the European Commission and the SpaceRISE consortium had concluded an implementation arrangement expanding the programme's principal constellation to 348 satellites, comprising 330 low-Earth-orbit satellites and 18 medium-Earth-orbit satellites. The announcement identified an additional layer of 66 satellites intended to strengthen the system's capacity for governmental, defence, security and emergency-service requirements. ESA also reported national investment commitments including €656 million from Poland, €500 million from Hungary and a Spanish announcement of €1.6–2 billion. These figures refer to programme commitments and announced investments; they are not evidence that the complete constellation has been deployed or that the projected services are operationally available. IRIS² Reinforced and Accelerated as Implementation Advances — European Space Agency — Aug 2026. ESA: TBD

IRIS² is relevant to defence-industrial sovereignty because it involves satellite manufacturing, secure communications, launch services, ground infrastructure and public-private cooperation. Its industrial participants include the SpaceRISE consortium, associated with SES, Eutelsat and Hispasat, alongside European institutional and technical partners. ESA's role concerns technical implementation, qualification and validation. These functions illustrate how space-related defence resilience extends beyond the spacecraft themselves to include the complete industrial and operational ecosystem required to provide secure services.

The programme must nevertheless be distinguished from a dedicated military early-warning or missile-tracking constellation. Secure connectivity, navigation, reconnaissance and missile warning are different space functions with different payloads, processing requirements and operational purposes. The EU's September 2026 selection of the SPACE European Defence Project of Common Interest specifically identified areas including missile-launch early warning, satellite communications, intelligence and reconnaissance, positioning and timing, navigation warfare and rapid replacement of spacecraft. This project creates a more explicit institutional link between European defence readiness and several space-based capabilities, but its selection does not establish that the relevant satellites have already been built or placed into service. European Defence Projects of Common Interest — Council of the European Union — Sep 2026. Consilium

Multi-domain integration: technical functions and industrial dependencies

Domain	Military function	Critical industrial requirements	Principal integration risk	Relevant programme / institution
Artificial intelligence	Classification, decision support, maintenance and information processing	Data engineering, computing, software assurance and validation	Unreliable performance outside tested conditions	NATO requirements, FCAS and national programmes
Electronic warfare	Electronic support, protection and disruption	RF engineering, antennas, electronics and secure software	Adversary adaptation and incompatible systems	Ukrainian–European EW partnerships
Autonomous systems	Unmanned operation and mission support	Sensors, embedded processing, software and propulsion	Reliability, control and operational safety	Drone partnerships, FCAS Remote Carriers
Cyber defence	Protection of military and industrial information systems	Secure development, testing and incident management	Compromised suppliers, software or data	National and NATO cyber-security frameworks
Satellite connectivity	Secure communications and network resilience	Satellites, terminals, launch services and ground systems	Availability, interference and supplier dependence	IRIS²
Space early warning	Detection and warning of relevant missile threats	Space sensors, processing, communications and integration	Programme maturity and data availability	SPACE EDPCI
Multi-domain command systems	Coordination of sensors, platforms and operational decisions	Secure interfaces, standards and information exchange	Incompatible networks and fragmented authority	NATO IAMD, EU-FIAMD and FCAS
Precision navigation and timing	Positioning, synchronisation and mission support	Satellite and terrestrial timing infrastructure	Disruption or degradation of navigation services	European space and national defence programmes

The decisive constraint: integrating innovation without creating an unmanageable software architecture

The integration of AI, autonomous systems, electronic warfare and space-enabled communications into European defence networks creates considerable technological opportunities. It also introduces systemic risks associated with software complexity, inconsistent standards, data security and dependence on specialised suppliers. A national programme may develop an advanced sensor or algorithm, but its value to multinational operations remains limited if its outputs cannot be interpreted or exchanged by the systems responsible for subsequent decisions. Conversely, excessive centralisation can create dependencies on shared infrastructure whose disruption affects multiple users simultaneously.

An effective architecture should therefore establish appropriate standards for information exchange, security and system interfaces while preserving sufficient technical flexibility to incorporate new equipment. This is a complex engineering and institutional task, particularly where several governments and industrial partners retain separate authorities. The relevant performance measure is not the quantity of artificial-intelligence features incorporated into a product, but whether the complete system produces reliable, timely and secure operational information under realistic conditions.

Chapter 10 — Key judgments. Europe's technological transformation is moving towards software-intensive, networked and increasingly autonomous capabilities. The major strategic opportunity lies in connecting information processing, communications, sensing and military platforms through interoperable architectures. IRIS² and the EU's SPACE and EU-FIAMD projects demonstrate institutional attention to these requirements, while national and industrial programmes are developing relevant technologies. The principal risks concern cybersecurity, data governance, software assurance and the difficulty of integrating heterogeneous systems without creating new critical dependencies.

Chapter 11 — Industrial Geography and Production Capacity: Country-Level Specialisation, Manufacturers, Investment, Critical Dependencies and Expansion Constraints

European defence production is a geographically distributed industrial system with uneven capacity and specialised bottlenecks

The industrial geography of European defence is characterised by a concentration of specialised manufacturers, geographically dispersed supply chains and national procurement systems that do not always generate predictable demand for shared production capacity. This structure creates both resilience and vulnerability. Geographical distribution can reduce exposure to disruption at a single site and allow countries to contribute complementary industrial capabilities. However, production may still depend on a limited number of specialised suppliers, restricted components or facilities with long qualification requirements. The strategic question is therefore not how many countries possess a defence industry, but whether the collective manufacturing system can supply essential equipment, sustain production during increased demand and replace critical components when disruptions occur.

European defence manufacturers occupy different positions within this structure. Some companies integrate major platforms such as combat aircraft, military vehicles and naval systems. Others specialise in missiles, propulsion, radar, electronic warfare, precision engineering, ammunition, explosives or software. A manufacturer responsible for final assembly may depend on multiple specialised suppliers, each operating under different contractual, regulatory and production conditions. This can create bottlenecks that remain invisible when industrial capacity is measured only through final assembly lines or headline investment announcements.

The geographic distribution of capability is particularly significant when comparing established industrial centres with emerging production partnerships. Germany, France, Italy and the United Kingdom possess extensive aerospace and defence-manufacturing capabilities, while Sweden, Norway and other northern European states contribute important specialised technologies and production facilities. Poland and several central European countries are relevant to ground-based manufacturing, logistics, maintenance and evolving procurement networks. The Baltic states are increasingly seeking technological and industrial roles through specialised manufacturing, unmanned systems and international partnerships. Ukraine's industrial contribution is distinctive because its technology-development environment is directly influenced by ongoing military operations. These different structures can reinforce one another through collaborative production, but only where the necessary legal and technical arrangements exist.

Ammunition production provides a measurable example of the relationship between industrial investment and capacity

The European Commission's Act in Support of Ammunition Production (ASAP) is one of the clearest examples of an EU instrument targeting identifiable manufacturing bottlenecks. In March 2024, the Commission announced the allocation of approximately €500 million to projects intended to expand ammunition production, particularly in areas including explosives, propellants, shell manufacturing, missiles, testing and reconditioning. The Commission reported the selection of 31 projects, with combined EU and Norwegian funding of approximately €513 million and an anticipated total investment of around €1.4 billion when industrial co-financing was included. These figures are important because they identify funding for specific industrial functions rather than a general defence expenditure commitment. Around €2 Billion to Strengthen EU Defence Industry Readiness — European Commission — Mar 2024. Defence Industry and Space

The programme's financial distribution reveals the importance of upstream materials. The Commission identifies a project portfolio of approximately €248 million for powder, €124 million for explosives, €90 million for shells, €50 million for missiles, and €2 million for testing and reconditioning certification. These are portfolio allocations and should not be interpreted as equivalent measures of realised manufacturing output. The significance of the distribution is that powder and explosives account for a substantial proportion of the funding, reflecting the importance of propellants and energetic materials as constraints on ammunition production. Increasing the number of shell-body manufacturing facilities provides limited benefit if there is insufficient capacity to manufacture the energetic materials needed to complete the ammunition. Act in Support of Ammunition Production: Boosting Defence Production — European Commission. Defence Industry and Space

The Commission's original target was to support annual European ammunition-shell production capacity of 2 million by the end of 2025. This was a capacity objective associated with the programme, and it must be distinguished from the number of completed shells produced, accepted, delivered to armed forces or available in military inventories. A production facility may possess theoretical capacity without operating continuously at that rate. Actual output depends on workforce availability, components, supply contracts, maintenance, testing and confirmed orders. Moreover, ammunition production is not a uniform category: different calibres, propellant types and components cannot be assumed to be interchangeable.

A concrete example of industrial reinforcement was documented on 10 November 2025, when the European Commission reported that Chemring Nobel in Norway had received €66.7 million in EU financial support intended to more than double its explosives production capacity. This illustrates the relevance of specialised upstream facilities to the wider European ammunition ecosystem. The funding demonstrates support for expansion, while the realised manufacturing result must still be assessed through completed investment and production data. ASAP: EU Strengthens Ammunition Production Capacity in Norway — European Commission — Nov 2025. Defence Industry and Space

Country-level industrial specialisation and major production relationships

Germany's industrial significance includes advanced ground systems, ammunition, precision engineering, sensors, electronics and ground-based air defence. Relevant companies include Rheinmetall, Diehl Defence, Hensoldt, KNDS Germany and other specialised suppliers. Their contributions vary across platforms, components and manufacturing processes. Germany's ability to support European defence production therefore depends on the interaction between large manufacturers, specialised suppliers and national procurement authorities. Expansion in one product category cannot automatically be translated into greater output in another, particularly where production requires different technologies, materials and certification.

France possesses major industrial capabilities in combat aviation, missiles, naval systems, sensors and electronics through companies and industrial organisations including Dassault Aviation, Thales, Naval Group, MBDA and associated suppliers. Its strategic model emphasises the preservation of advanced national capabilities while participating in collaborative European programmes where these serve relevant military and industrial objectives. The Franco-Italian SAMP/T NG programme is particularly important because it demonstrates an established multinational approach to system development and production involving sophisticated air-defence technologies.

Italy's industrial geography encompasses aerospace, military electronics, naval manufacturing, helicopters, radar, missiles, vehicles and specialised engineering. Leonardo, Fincantieri, the Italian participants in MBDA and other manufacturers contribute to national and multinational programmes. Italy's involvement in GCAP creates a further opportunity to integrate aerospace engineering and advanced systems development within a long-term international industrial structure. However, the industrial benefits of participation depend on actual workshare, the allocation of technology rights and the continuity of development funding. The country also faces the need to reconcile industrial investment with its national military requirements and wider fiscal constraints.

The United Kingdom combines advanced aerospace, propulsion, complex weapons, maritime systems and defence electronics. Relevant industrial participants include BAE Systems, Rolls-Royce, MBDA UK and other specialised manufacturers. Its participation in GCAP and the Octopus technology-sharing arrangement demonstrates two markedly different industrial timescales: the long development horizon of advanced combat aircraft and the intended rapid production of lower-cost interceptor systems. Both require sustained industrial capacity, but the relevant engineering, testing, procurement and supply-chain requirements differ substantially.

Sweden's contribution includes combat aviation, sensors, electronic warfare, weapons integration and specialised defence systems. Saab's role in Gripen and other systems makes Sweden particularly relevant to European aerospace and advanced electronics. Norway possesses significant defence-industrial specialisations through companies such as Kongsberg and Nammo, alongside suppliers of energetic materials and other components. The expansion of Norwegian–Ukrainian production cooperation adds another dimension involving the localisation of Ukrainian-developed technology. Poland's industrial development encompasses military vehicles, ammunition, maintenance, logistics and new technology partnerships, while the Baltic states are increasingly pursuing specialised manufacturing and technology-transfer relationships.

European production geography: comparative industrial structure

Country / region	Representative industrial actors	Principal industrial functions	Collaborative relevance	Structural exposure
Germany	Rheinmetall, Diehl Defence, Hensoldt, KNDS Germany	Ground systems, ammunition, air defence, sensors, engineering	European procurement, Ukrainian cooperation and NATO sustainment	Energetic materials, advanced electronics and production lead times
France	Dassault Aviation, Thales, Naval Group, MBDA	Combat aircraft, missiles, naval systems, radars and integration	SAMP/T NG, FCAS and complex-weapons cooperation	Programme governance, specialised components and funding continuity
Italy	Leonardo, Fincantieri, MBDA Italy and suppliers	Aerospace, radar, helicopters, naval platforms and missiles	GCAP, SAMP/T NG and European integration	Industrial workshare, procurement coordination and fiscal exposure
United Kingdom	BAE Systems, Rolls-Royce, MBDA UK and suppliers	Combat aviation, propulsion, complex weapons and naval systems	GCAP, Octopus, Lyra and transatlantic partnerships	Development costs, advanced components and technology governance
Sweden	Saab and associated suppliers	Combat aviation, electronics and weapons integration	Gripen, Nordic programmes and Ukrainian cooperation	Aircraft programme execution and production continuity
Norway	Kongsberg, Nammo, Chemring Nobel and suppliers	Missiles, defence electronics, ammunition and energetic materials	NASAMS, Build with Ukraine and ASAP-supported expansion	Specialised production facilities and regulatory authorisations
Poland	National defence manufacturers and foreign industrial partners	Ground equipment, ammunition, maintenance and logistics	Eastern-flank procurement and Ukrainian technology cooperation	Supplier integration and diverse equipment inventories
Baltic states	National manufacturers, technology firms and international partners	Unmanned systems, electronics, testing and specialised assembly	Drone Coalition, SkyFortress, IRIS-T SLM and industrial localisation	Small domestic markets, manufacturing scale and supplier access
Ukraine	Ukrainian defence companies and government-linked industrial structures	Drones, electronic warfare, precision systems and rapid adaptation	Licensed production, joint development and distributed manufacturing	Wartime disruption, infrastructure protection and technology governance

The table identifies representative companies and industrial functions, not comparable national output or a ranking of industrial strength. Programme relationships are supported by European Defence Industry Programme — Council of the European Union, GCAP Development Contract — UK Ministry of Defence — Jul 2026, SAMP/T NG Order — MBDA — Oct 2026, and European Ammunition Production Support — European Commission.

The industrial bottlenecks that determine whether investment becomes military capability

Several categories of industrial constraint are particularly important. The first concerns energetic materials, including propellants and explosives. These are essential to ammunition and many missile systems, and their production requires specialised facilities and stringent safety procedures. The second concerns advanced electronics, including sensors, processors, power electronics and communications equipment. The third concerns precision manufacturing and the qualification of components that must function reliably under demanding conditions. The fourth concerns skilled labour and specialised engineering. The fifth concerns testing and certification, which can constrain production even when manufacturing facilities are available. The sixth concerns the ability to finance industrial expansion while maintaining confidence in future procurement demand.

These constraints interact. Investment in additional assembly capacity may produce limited output if suppliers cannot provide the necessary components. Expansion in specialised components may remain underutilised if procurement demand is uncertain. Training additional personnel may be insufficient if production equipment or testing facilities remain unavailable. Governments seeking to accelerate manufacturing must therefore assess the whole industrial chain rather than finance isolated facilities based on headline capacity targets.

The European Commission's ASAP programme provides an example of this approach by directing funding towards specific production stages. EDIP extends the institutional focus to industrial reinforcement and security of supply, while the European Defence Fund supports collaborative research and development. SAFE addresses another element by providing a loan-based framework for eligible procurement. These instruments can complement one another, but their effectiveness depends on the extent to which investment decisions, manufacturing capacity and equipment orders are coordinated.

Critical raw materials and the wider technological supply chain

European defence systems also depend on raw materials and components shared with civilian industries, including electronics, aerospace, telecommunications and energy technologies. This creates competition for certain inputs and can expose defence production to disruptions outside the military sector. For space technologies, the European Commission identifies gallium and germanium as examples of strategically important materials used in components such as transistors and solar panels. Its published analysis identifies substantial Asian concentration in production and exports of these materials and links European investment in critical technologies to reducing strategic dependencies. These figures are sector-specific and should not be interpreted as direct measures of the dependence of every European weapons programme. A More Resilient Europe — European Commission. Defence Industry and Space

The strategic relevance of critical materials depends on the particular application and the availability of substitutes. Some products may be redesigned to use alternative materials or suppliers, while others depend on specialised characteristics that cannot be readily replaced without extensive testing. Industrial policy must therefore distinguish general import dependence from critical technological dependence. The strongest resilience measures include qualified alternative suppliers, appropriate inventories, control over technical documentation and the ability to modify designs when components become unavailable.

Measuring real industrial readiness

The absence of fully comparable, independently verified production data across all major European defence manufacturers prevents a defensible calculation of total European industrial readiness from the material assessed here. Public announcements frequently combine factory investments, expected capacity, procurement orders, framework contracts and planned deliveries without adopting common definitions. Treating these figures as equivalent would create a misleading impression of precision. A more reliable assessment requires consistent measurement of installed capacity, actual output, accepted deliveries, inventories, production lead times and workforce constraints, with explicit reference periods and definitions.

The industrial-readiness assessment should therefore focus on verifiable transitions. An announced factory becomes meaningful when the relevant investment has been made, equipment installed and production authorised. Installed capacity becomes relevant to military supply when production is sustained and products pass applicable acceptance requirements. Deliveries become operationally consequential when equipment is integrated, personnel trained and sustainment established. At every stage, the responsible government or manufacturer should provide documentation sufficient to identify the actual status of the programme.

Chapter 11 — Key judgments. Europe's defence-industrial network possesses extensive technological and manufacturing capabilities but remains exposed to specialised supply-chain constraints, national procurement fragmentation and uncertainties concerning sustained production demand. ASAP provides a concrete example of investment aimed at upstream production bottlenecks, while EDIP, SAFE and the European Defence Fund address other parts of the industrial development process. The principal strategic requirement is to coordinate procurement, production, supplier qualification and long-term sustainment without confusing announced capacity with realised output.

European Defence Technology, Industrial Dependencies and Production Maturity

Complete HTML dashboard for direct insertion into WordPress. It includes an interactive defence-technology network, 3D-style industrial maturity visualisations, a technology-dependency matrix, a searchable production and cooperation table, a 2025–2031 development timeline, five languages (English, Italian, Spanish, French and German), and animation controls.

The design is self-contained, uses no external libraries and restricts its CSS and JavaScript to its own unique container. Numerical financial commitments are kept separate from industrial maturity assessments. No fabricated production volumes, readiness scores or performance percentages are used.

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PILLAR III — GEOPOLITICAL CONSEQUENCES, INDUSTRIAL SOVEREIGNTY AND THE 2031 OUTLOOK

Chapter 12 — The Changing European Security Balance: Russia, Belarus, the United States, Türkiye and the Global Defence Market

Europe is entering a new strategic equilibrium defined by industrial endurance, geopolitical exposure and the credibility of collective defence

The central geopolitical consequence of Europe's defence transformation is that military deterrence is becoming inseparable from the capacity to finance, manufacture, replenish and technologically adapt military capabilities over extended periods. This development changes the relationship between European governments, the United States, Ukraine, Russia and the wider international defence market. Military power cannot be evaluated exclusively through nominal force inventories, announced procurement programmes or annual expenditure commitments. Its credibility also depends on whether the industrial system can provide replacement equipment, maintain existing platforms, support operational deployments and respond to changing military requirements without becoming critically dependent on a limited number of suppliers or foreign authorisations.

The transformation is occurring within an asymmetric security environment. Russia remains the principal conventional military threat identified in NATO's assessment of the Euro-Atlantic region, while its cooperation with Belarus affects the security geometry of the Alliance's eastern frontier. The United States remains central to NATO's military capabilities, deterrence and transatlantic defence-industrial system, but European governments are simultaneously seeking greater capacity to sustain their own military requirements. Türkiye occupies a distinct position as a NATO Ally with a substantial domestic defence industry and regional security priorities extending beyond the European Union. Ukraine is increasingly relevant not only as the central theatre of Russia's war, but as a source of military innovation and a potential participant in future European production networks. These relationships are neither uniformly cooperative nor entirely competitive: they combine alliance obligations, industrial interests, technological dependencies, national sovereignty and different geopolitical priorities.

NATO's 2025 Hague Summit declaration formally identified Russia as a long-term threat to Euro-Atlantic security and established the commitment to invest 5% of GDP annually by 2035, including at least 3.5% for core defence requirements and up to 1.5% for broader defence- and security-related investment. The declaration also committed the Allies to expanding transatlantic defence-industrial cooperation and addressing barriers to defence trade within the Alliance. The significance of these commitments is that they connect military requirements to a longer-term industrial investment framework. They do not establish a common NATO procurement budget or imply that national defence industries will operate without commercial, legal or technological restrictions. The Hague Summit Declaration — NATO — Jun 2025. The Hague Summit Declaration

Russia — Military regeneration, industrial endurance and sustained pressure on European security

Russia's military challenge to Europe must be assessed along several dimensions that have different implications for European defence planning. The first is its continuing capacity to conduct conventional military operations and employ long-range weapons. The second is the development and adaptation of unmanned systems and electronic-warfare capabilities. The third involves military-industrial regeneration and the possibility of sustaining equipment production despite economic and technological constraints. The fourth concerns hybrid activities, including cyber operations, sabotage, interference with communications and hostile activity affecting critical infrastructure. The fifth is Russia's nuclear deterrence posture and the broader risks of military escalation. These dimensions cannot be reduced to a single estimate of Russian military strength because they rely on different resources, institutions and operational mechanisms.

NATO's updated assessment identifies Russia as its most significant and direct security threat and describes Russian efforts to expand military capabilities, challenge the Euro-Atlantic security architecture and conduct hybrid actions against Allied countries. The Alliance also identifies Russia's growing strategic cooperation with China and defence-industrial relationships involving Iran and North Korea as sources of concern. This institutional assessment supports the conclusion that European governments face a sustained strategic challenge extending beyond the immediate availability of Russian conventional forces. It does not, however, establish an inevitable Russian attack against NATO territory or provide a verified date for such an event. Indeed, at a press conference on 14 October 2026, NATO Secretary General Mark Rutte stated that the Alliance did not see an imminent threat to NATO territory, while emphasising that its defence posture and plans remained in place. The distinction between a serious long-term security threat and an imminent attack is analytically essential. Deterrence and Defence — NATO — 2026; Joint Press Conference with the Prime Minister of Estonia — NATO — Oct 2026. NATO Topic+1

The industrial dimension of the Russian challenge is particularly important. European defence planning cannot be organised solely around the number of systems that Russia possesses at a particular moment. It must account for the capacity to replace losses, expand selected production lines, develop alternative components and adapt equipment under the influence of operational experience. Industrial regeneration may proceed at different rates across missiles, ammunition, military vehicles, aircraft and electronic systems. Without comparable official production records, these categories cannot be combined into a defensible numerical estimate of Russia's total industrial endurance. A credible European response should therefore be based on capability requirements and observable production indicators rather than speculative comparisons of aggregate national output.

The strategic implications extend to European infrastructure. NATO's September 2026 assessment describes airspace violations, cyberattacks, acts of sabotage and interference affecting Allied countries, and identifies the protection of critical infrastructure as a central element of its strengthened eastern-flank posture. These threats complicate the conventional distinction between military and civilian security. Ports, railways, electricity networks, communications systems, industrial facilities and transportation corridors may be essential to military reinforcement even where they are primarily civilian assets. Their resilience consequently affects deterrence, logistical continuity and the ability of defence manufacturers to sustain output. Strengthening NATO's Eastern Flank — NATO — Sep 2026. NATO Topic

Europe's response must therefore address both military capabilities and the infrastructure supporting them. Air defence can protect selected installations against particular threats, but it cannot substitute for diversified transport routes, protected communications, industrial redundancy and recovery arrangements. Likewise, increasing ammunition stocks can improve resilience against sustained operations, but only when storage, transportation, maintenance and replenishment mechanisms are adequate. The central policy challenge is to identify where infrastructure and industrial dependencies create systemic vulnerabilities and to determine which investments produce the greatest improvement in the continuity of essential military functions.

Belarus — Strategic geography, Russian military integration and northeastern European exposure

Belarus occupies an important position in Europe's security environment because of its geographic relationship with Poland, Lithuania, Latvia, Ukraine and Russia. Its military and political relationship with Moscow affects the operating environment along NATO's northeastern frontier, particularly through the potential movement, support and positioning of military forces and capabilities. NATO has also identified Russia's announced deployment of nuclear weapons to Belarus as part of its broader assessment of Russian nuclear signalling and strategic coercion. The significance of Belarus is therefore not confined to the independent capabilities of the Belarusian armed forces; it also concerns the extent to which Belarusian territory and infrastructure support Russian military activity. Deterrence and Defence — NATO — 2026. NATO Topic

For Poland and the Baltic states, this creates a planning environment in which territorial defence, surveillance, reinforcement and the protection of transport infrastructure must be considered together. The operational relevance of a geographic corridor cannot be inferred solely from its dimensions on a map. Its military significance depends on available forces, logistics, infrastructure, terrain, air-defence coverage, readiness and the wider strategic circumstances. A responsible assessment should therefore avoid treating geographic proximity as proof of an imminent operation or assuming that particular routes would necessarily be used in a future conflict.

The industrial implications are nevertheless substantial. Defence requirements associated with the northeastern frontier can influence procurement priorities for surveillance, air defence, mobility, communications, engineering and sustainment equipment. They can also create incentives for distributed maintenance and manufacturing facilities capable of supporting forces across several national territories. Poland's industrial development, Baltic technology partnerships and Nordic reinforcement arrangements should consequently be understood partly as responses to a regional operating environment in which national systems must function within a wider Allied framework.

United States — The indispensable ally and the principal external technology dependency

The United States has a dual role in Europe's defence transformation. It remains a central provider of military capabilities, strategic deterrence, intelligence, advanced defence technologies and equipment used by European armed forces. At the same time, the acquisition of American-origin systems creates dependencies involving technology access, configuration control, maintenance, intellectual property, export permissions and, in certain cases, the availability of proprietary components and software. These dependencies are not inherently undesirable: transatlantic cooperation can provide capabilities that European manufacturers cannot develop or deliver at comparable speed. The policy question is whether the benefits of acquiring advanced American systems are accompanied by arrangements that allow European forces to sustain essential military functions under adverse conditions.

This distinction is important when evaluating the concept of European strategic autonomy. Industrial autonomy should not be defined as the elimination of American technology from European forces. Such an objective would disregard existing operational requirements, established procurement relationships and the benefits of technological cooperation. A more defensible definition is the ability to preserve critical decision-making and operational functions when external suppliers, political permissions or specialised components become unavailable. Under this definition, European autonomy can coexist with extensive transatlantic cooperation, provided that governments understand the limitations imposed by specific contracts and technology-control regimes.

The Hague declaration's commitment to strengthening transatlantic industrial cooperation demonstrates that NATO's institutional direction is not towards a complete separation between American and European defence production. Instead, the Alliance seeks greater industrial capacity and fewer obstacles to defence cooperation. However, political support for reducing trade barriers does not automatically supersede national export-control laws, intellectual-property obligations or contractual restrictions. Each defence programme must therefore be evaluated according to the rights and obligations governing its actual technology and supply chain. The Hague Summit Declaration — NATO — Jun 2025. The Hague Summit Declaration

The relationship between the United States and Europe is likely to be influenced by the scale and allocation of future European procurement. Greater spending could increase European demand for American systems, particularly where urgent capability gaps favour established foreign suppliers. Alternatively, predictable long-term procurement could support European manufacturers and reduce reliance on certain external technologies. Both outcomes could occur simultaneously across different categories of equipment. The decisive factor is not whether aggregate European defence expenditure increases, but how governments allocate expenditure between immediate acquisitions, domestic industrial development, multinational programmes, sustainment and research.

Türkiye — NATO interoperability and a defence-industrial model outside EU membership

Türkiye's position in the European security architecture is distinctive because it combines NATO membership, a geographically important role in Black Sea and wider regional security, and an established national defence-industrial sector operating outside the European Union's institutional framework. Its participation in NATO provides a basis for military interoperability and multinational capability development, while its national industrial strategy and foreign-policy priorities are shaped by a wider regional environment. This creates opportunities for cooperation with European governments, but also means that Turkish industrial participation cannot be assumed to follow the same rules as procurement among EU Member States.

The European Union's SAFE framework explicitly provides pathways for participation by certain non-EU countries, including candidates, potential candidates and countries with relevant EU security and defence partnerships. However, the ability of a country to participate in a procurement arrangement does not automatically mean that its manufacturers meet every industrial-origin or eligibility condition attached to a financed product. Those questions depend on the applicable regulation and any relevant supplementary agreements. Türkiye's potential participation in emerging European production networks therefore requires examination at the level of specific instruments and contracts rather than general assumptions about NATO membership. SAFE: Council Adopts €150 Billion Boost for Joint Procurement — Council of the European Union — May 2025. Consilium

Türkiye's strategic relevance also extends to international defence markets, where national industrial capabilities, export relationships and regional security priorities influence the availability and pricing of military equipment. European governments may find opportunities for cooperation in selected categories of technology and manufacturing, but these opportunities will depend on compatibility, security assurances, export permissions and the willingness of participating governments and companies to establish durable arrangements. Industrial cooperation should not be inferred merely from the existence of diplomatic relations or common membership in NATO.

The global defence market is being reorganised around production certainty

The wider international defence market is undergoing a shift in which delivery schedules, supply security, access to intellectual property and long-term maintenance arrangements are becoming increasingly important alongside technical performance and acquisition price. The value of a defence contract depends partly on whether a manufacturer can deliver equipment when it is needed and sustain it throughout the relevant operational period. A system with advanced declared characteristics may represent a less useful acquisition if its delivery schedule, ammunition availability or maintenance arrangements are incompatible with urgent national requirements. Conversely, a less technologically ambitious system may provide substantial military value if it can be manufactured reliably, integrated rapidly and replenished through a resilient supply chain.

European industrial policy is consequently interacting with international supplier competition in increasingly complex ways. Governments may seek domestic production requirements or multinational workshare arrangements to justify industrial investment and preserve essential technical capabilities. Manufacturers may seek long-term procurement commitments before expanding capacity. Foreign suppliers may offer established products but retain restrictions affecting production rights or modifications. Ukrainian companies may contribute rapid technological development while requiring access to capital, qualified manufacturing facilities and international commercial structures. The resulting market cannot be understood simply as a competition between European and non-European firms; it is a network of commercial, technological and governmental dependencies in which suppliers often collaborate across borders.

Geopolitical dependence and European decision-making

Strategic actor	Principal relationship with European security	Industrial transmission mechanism	Main uncertainty	Consequence for European policy
Russia	Principal direct security threat identified by NATO	Military regeneration, long-range systems, electronic warfare, hybrid activity	Future force development and production sustainability	Long-term capability planning and resilience
Belarus	Strategic geographic relationship with Russia and NATO's northeastern frontier	Military infrastructure, territorial access and regional operating conditions	Future extent of military integration and specific deployments	Surveillance, reinforcement and territorial defence
United States	Central NATO ally and major technology supplier	Advanced weapons, support, components, licences and interoperability	Continuity and terms of programme-specific technology access	Preserve cooperation while identifying critical dependencies
Türkiye	NATO Ally and independent defence-industrial actor	National production, regional cooperation and potential multinational procurement	Eligibility, industrial participation and export permissions	Selective cooperation under applicable rules
Ukraine	Security partner and source of operational technological innovation	Licensing, industrial localisation, R&D and production partnerships	Wartime sustainability and implementation of agreements	Reciprocal development and supply-chain integration
European Union	Industrial, financial and regulatory coordination	SAFE, EDIP, procurement rules and industrial incentives	Conversion of financing into production and capability	Coordinated demand and industrial capacity
NATO	Collective defence and operational integration	Capability targets, military standards and planning	National execution and production availability	Align national procurement with operational requirements

The assessment rests on NATO's Deterrence and Defence Framework, the Hague Summit Declaration, and the Council's SAFE Regulation Overview. The consequences and uncertainties are analytical judgments, not claims of verified future events.

Chapter 12 — Key judgments

Europe's security balance is becoming increasingly dependent on defence-industrial endurance, technological access and the operational resilience of multinational systems. Russia's long-term threat creates continuing demand for European capability development, while Belarus affects the strategic geography of the northeastern frontier. American capabilities remain central to European defence, but their use introduces programme-specific technology and sustainment dependencies. Türkiye provides opportunities for selected cooperation outside the EU framework, while Ukraine's role as an industrial and technological partner is expanding.

The most consequential development through 2031 will be whether European governments can increase domestic and collaborative production without reducing the benefits of transatlantic cooperation or generating incompatible national systems. The relevant evidence will be completed industrial agreements, delivery performance, supply-chain diversification, operational interoperability and the ability to sustain military capabilities during prolonged periods of demand.

Chapter 13 — Defence Economics and Industrial Sovereignty: Financing, Procurement, Intellectual Property, Export Controls and Strategic Dependencies

European defence economics is becoming a problem of capital allocation, production incentives and strategic control

The defining economic challenge is not whether Europe can increase defence expenditure, but whether that expenditure can generate durable industrial capacity without creating unsustainable fiscal obligations, fragmented procurement or new technological dependencies. The distinction between spending and capability is particularly important because European defence financing is distributed across national budgets, EU loans, EU grants, bilateral assistance, multinational programmes and private industrial investment. These instruments differ in legal authority, repayment obligations, eligible expenditure, geographic coverage and the extent to which their funds become available to manufacturers. Combining their headline values without reconciling those characteristics would produce a misleading picture of European military-industrial resources.

The European Defence Agency's July 2026 data provide a more precise baseline for understanding this transformation. Defence expenditure across the 27 EU Member States reached €418 billion in 2025, representing 2.2% of EU GDP and an increase of approximately 20% over 2024. The agency projected expenditure of €454 billion in 2026, equivalent to approximately 2.4% of GDP, while identifying a possible rise to €547 billion by 2029 if current trends continued. Defence equipment procurement reached €115 billion in 2025, while collaborative procurement represented only 24% of total equipment spending. Defence research and development expenditure amounted to €17 billion in 2025 and was projected to reach €20 billion in 2026. These figures describe the EU Member States collectively, not all European NATO countries, and the 2026 and 2029 values are projections rather than realised expenditure. EU Defence Spending: €418 Billion in 2025, Projected €454 Billion in 2026 — European Defence Agency — Jul 2026. eda.europa.eu

These figures reveal an important imbalance. European governments are increasing expenditure at a pace that creates substantial opportunities for manufacturers, but their procurement decisions remain predominantly national. Collaborative procurement accounted for less than one-quarter of equipment expenditure in the EDA's 2025 reporting. This does not mean that all nationally procured equipment is incompatible or that collaborative procurement automatically produces superior outcomes. National programmes may respond to specific requirements and urgent operational needs, while multinational programmes can encounter delays arising from divergent specifications and industrial workshare. Nevertheless, the relatively limited collaborative share indicates that Europe's additional financial resources have not yet been fully converted into consolidated demand. This matters because fragmented demand can prevent manufacturers from investing efficiently in common production lines, interchangeable components and long-term sustainment arrangements.

Financing architecture: why EU loans, grants and national expenditure cannot be aggregated mechanically

The EU's SAFE instrument provides up to €150 billion in loans to eligible Member States, financed through borrowing by the European Union. SAFE is intended to support defence procurement, particularly cooperative acquisitions that can increase demand for products manufactured within the eligible industrial framework. The beneficiary Member States remain responsible for repayment. Consequently, SAFE can change the financing conditions and timing of defence investment, but it does not eliminate the corresponding national fiscal obligations. Nor does the existence of an authorised financing ceiling establish that the full amount has been disbursed or converted into contracts. The actual industrial consequences depend on national plans, loan agreements, procurement procedures and the delivery performance of suppliers. What Is Security Action for Europe (SAFE)? — Council of the European Union — 2026. Consilium

The distinction between financing authorisation and execution is already visible in SAFE's implementation. According to the Council's June 2026 account, 19 national investment plans had been submitted to the Commission, 18 Member States had received Council approval for financial assistance between February and April 2026, and 15 of the 19 plans included projects with Ukraine. These are meaningful indicators of institutional adoption and the geographic reach of planned procurement. They do not establish that all approved allocations had been disbursed, that every Ukrainian project had entered production or that the resulting equipment had been delivered. The approval of a national plan is a necessary administrative development, not the final stage of industrial execution. SAFE: Member State Allocations and Participation — Council of the European Union — Jun 2026. Consilium

EDIP operates through a different economic mechanism. Its €1.5 billion programme envelope for 2025–2027 consists of grants rather than repayable loans, with €300 million allocated within the total for support to Ukraine's defence industry. EDIP is intended to improve industrial responsiveness, production capacity, common procurement and supply security. Its resources are considerably smaller than SAFE's loan ceiling, but the two instruments serve different purposes. Targeted grants can support industrial activities that may not be economically feasible through equipment purchases alone, including elements of supply-chain development, capacity expansion and institutional cooperation. A comparison based exclusively on nominal financial value would therefore overlook the difference between demand financing and industrial development support. European Defence Industry Programme — Council of the European Union — Dec 2025. Consilium

The wider European funding architecture also includes national defence budgets, bilateral assistance, research programmes and the financial resources of private manufacturers. These streams can interact, but should not be treated as independent additions to a single expenditure total. For example, a national procurement contract supported by a SAFE loan remains part of the beneficiary state's defence expenditure when the relevant accounting conditions are met. Adding the SAFE loan value to the associated national procurement value would risk counting the same underlying activity twice. Similar care is necessary when evaluating EU grants supporting projects that also receive national contributions, or multinational programmes financed through several governments.

Fiscal sustainability and the cost of industrial mobilisation

The fiscal consequences of expanding defence expenditure depend on the duration of commitments, their financing structure and the economic effects of industrial investment. A government that increases procurement for one budget year may generate substantial immediate demand without providing manufacturers with the confidence necessary to invest in new facilities. Conversely, a multi-year procurement programme may support industrial expansion but create contractual obligations extending well beyond the current fiscal planning period. Defence policy must therefore reconcile the need for long-term production certainty with national budget flexibility and the risks associated with changing military requirements.

Industrial investment also creates costs that are not reflected in the acquisition price of equipment. Manufacturers may need to build facilities, purchase machinery, qualify suppliers, recruit and train personnel, establish testing infrastructure and maintain inventories of specialised components. Some investments may remain useful across several programmes, while others are tied to a particular product or configuration. When demand is uncertain, companies may require advance payments, minimum purchase commitments or other contractual protections before expanding capacity. Governments seeking rapid production increases must therefore consider how procurement contracts distribute risk between taxpayers and manufacturers.

The potential economic benefits of increased European defence production include employment, technological innovation, specialised manufacturing and the development of industrial capabilities that may support other sectors. However, these benefits cannot be assumed to exceed costs in every circumstance. Defence spending competes for fiscal resources, skilled labour, capital and industrial inputs. Its impact on productivity and economic growth depends on domestic value added, import content, the availability of labour and the extent to which investment creates enduring productive capacity. A defensible macroeconomic assessment would require country-specific fiscal multipliers, procurement composition, import shares and industrial-capacity data. Without those inputs, assigning precise GDP or employment effects to the €150 billion SAFE instrument or the NATO expenditure commitment would be speculative.

Industrial sovereignty depends on enforceable technology rights

European industrial sovereignty is often discussed as a question of where equipment is manufactured. That definition is incomplete. A product assembled in Europe may remain dependent on foreign intellectual property, restricted components, proprietary software or external maintenance authorisations. Conversely, equipment manufactured abroad may be supported through arrangements granting substantial local maintenance, modification and sustainment rights. The decisive distinction is therefore between geographic production and effective control over the technologies and processes necessary to preserve military capability.

A comprehensive assessment of sovereignty should examine design authority, manufacturing licences, access to technical documentation, source-code rights, component substitution, export permissions, configuration management and the ability to maintain systems without the continuous participation of the original supplier. These elements can be allocated differently across programmes. A state may hold manufacturing rights but lack permission to modify critical software. It may possess repair facilities but remain dependent on imported components. It may participate in a multinational programme without controlling the relevant intellectual property or having unrestricted authority to export the finished product.

This problem is particularly relevant to Ukrainian–European industrial partnerships. Ukrainian technology may be localised within a European manufacturing facility, but the resulting arrangements could preserve Ukrainian design ownership while granting the European partner limited production rights. Alternatively, the participants could establish a joint-development structure in which improvements, derivative designs and export permissions are governed through a shared contractual framework. Neither arrangement is inherently superior in all circumstances. Their value depends on operational requirements, commercial incentives, security considerations and the need to preserve Ukraine's control over sensitive technologies.

Export controls remain a material constraint on European integration

The EU's defence-industrial ambitions operate within a legal framework that preserves significant national authority over military exports and the transfer of sensitive technologies. Directive 2009/43/EC seeks to simplify intra-EU transfers of defence-related products through general, global and individual transfer licences. It does not remove national discretion over exports to third countries or eliminate the need for authorisations. Article 4 establishes the general requirement for prior authorisation of transfers between Member States, subject to specified exceptions, while Articles 5–7 establish different licensing arrangements. The directive therefore creates a framework for facilitating defence-related industrial activity, but does not establish unrestricted movement of every defence product throughout Europe. Directive 2009/43/EC on Transfers of Defence-Related Products — European Parliament and Council — May 2009, Consolidated 2026. EUR-Lex

External military exports are also subject to the EU's common rules under Council Common Position 2008/944/CFSP, as amended in April 2025. The framework requires Member States to assess relevant military export applications against defined criteria, including international obligations, regional stability, human rights, diversion risks and the intended end use of equipment. Importantly, its scope includes applications concerning licensed production in third countries and intangible transfers of military software and technology where national licensing requirements apply. The updated rules also address re-export risks and permit cooperation among Member States participating in joint defence projects, while preserving national discretion over export decisions. Council Common Position 2008/944/CFSP, Consolidated Following Decision 2025/779 — Council of the European Union — Apr 2025. EUR-Lex

These provisions have direct consequences for multinational production. A missile, unmanned aircraft or communications system incorporating components originating in several countries may require approvals affecting the transfer of technology, components or finished products. A multinational production agreement may allocate industrial work to several jurisdictions without resolving every future export decision. Companies therefore need to understand which states control relevant technologies and whether permitted manufacturing activities extend to modifications, third-country sales and support services. National governments must balance the commercial and security benefits of industrial cooperation against their legal obligations and the risks associated with technology proliferation.

The October 2026 EU defence-readiness simplification package is particularly relevant. The European Commission's implementation overview records adoption on 21 October 2026 of legislation addressing accelerated permitting, defence investment conditions and the simplification of intra-EU transfers and security-related procurement, including Regulations (EU) 2026/2381 and 2026/2382 and Directive (EU) 2026/2383. The Commission identifies 23 November 2026 as their entry-into-force date. Accordingly, as of this assessment's 10 November cut-off, they had been adopted but had not yet entered into force. They should not be treated as already implemented changes to every applicable national procurement or licensing procedure. Simplification and Defence Readiness Omnibus — European Commission — Oct 2026. European Commission

The economics of cooperation: efficiency gains and institutional friction

Collaborative procurement can generate economies of scale where participating countries purchase equipment with sufficiently similar characteristics, coordinate delivery schedules and establish common sustainment requirements. It may also reduce repeated development and certification costs. However, multinational programmes face additional coordination burdens. Governments may disagree over industrial workshare, technical requirements, intellectual-property ownership, funding responsibility and export policy. These disagreements can increase costs or delay delivery even when the underlying technology is sound. The objective should therefore not be to maximise the number of participating states, but to identify where cooperation creates a measurable improvement in capability, affordability, security of supply or industrial resilience.

The European Defence Industrial Strategy published in March 2024 established targets for greater collaborative procurement and demand for European-manufactured equipment. Its stated objectives include procuring at least 40% of defence equipment collaboratively by 2030, directing at least 50% of defence procurement expenditure towards products manufactured in Europe by 2030, and increasing intra-EU trade in defence goods to at least 35%. These are policy objectives rather than achieved outcomes. Their industrial relevance is that they attempt to influence the composition of future demand, not merely the total amount spent. First-Ever European Defence Industrial Strategy to Enhance Europe's Readiness and Security — European Commission — Mar 2024. European Commission

Financial, regulatory and industrial evidence table

Indicator / instrument	Verified value or provision	Reference period	Economic significance	Critical limitation
EU defence expenditure	€418 billion	2025	Aggregate national defence demand	Includes different expenditure categories
Projected EU expenditure	€454 billion	2026	Anticipated increase in national demand	Projection, not realised expenditure
EDA longer-term projection	Up to €547 billion	2029	Possible continued market expansion	Conditional on expenditure trends
Equipment procurement	€115 billion	2025	Direct equipment demand	Does not represent manufacturing output
Collaborative procurement	24% of equipment expenditure	2025	Degree of joint acquisition	Not a measure of interoperability
Defence R&D expenditure	€17 billion	2025	Research and development investment	Not equivalent to deployable technology
Projected defence R&D	€20 billion	2026	Expected innovation expenditure	Projection
SAFE	Up to €150 billion	Established 2025	Loan-financed procurement	Loans repayable by Member States
EDIP	€1.5 billion	2025–2027	Industrial development grants	Programme budget, not verified disbursement
Ukraine Support Instrument	€300 million	Within EDIP	Support to Ukrainian defence industry	Included in EDIP total
SAFE national plans	19 submitted	2025	Procurement planning participation	Plans do not establish deliveries
SAFE plans involving Ukraine	15	2025 submissions	Planned industrial participation	Projects may differ in maturity
EDIS collaborative procurement objective	At least 40%	By 2030	Demand aggregation	Policy target, not achieved result
EDIS European procurement objective	At least 50%	By 2030	European industrial demand	Policy target
EDIS intra-EU defence trade objective	At least 35%	By 2030	Internal industrial integration	Policy target

Official sources: EDA Defence Data 2025–2026 — European Defence Agency — Jul 2026; SAFE — Council of the European Union — 2026; EDIP — Council of the European Union — Dec 2025; European Defence Industrial Strategy — European Commission — Mar 2024.

Chapter 13 — Key judgments

Europe's industrial sovereignty will depend less on the nominal geographic origin of equipment than on control over essential technologies, procurement decisions, maintenance capabilities and supply-chain continuity. EU financing can encourage collaboration, but the scale of available funds should not obscure the fiscal obligations associated with borrowing or the distinction between commitments and actual industrial output. The persistence of predominantly national procurement remains a significant structural challenge. Export controls and intellectual-property restrictions are legitimate elements of national security governance, but they can also complicate multinational production when they are not addressed early in programme design.

The central policy requirement is to ensure that industrial investment supports operational capability rather than the accumulation of disconnected procurement programmes. This requires coordinated demand, transparent technology rights, realistic delivery schedules and a distinction between industrial policy objectives and verified manufacturing performance.

Chapter 14 — The Future of European Defence Partnerships: Emerging Agreements, Technology Coalitions, Production Hubs and Industrial Consolidation

Europe's next industrial transformation will be determined by the governance of multinational production

The most consequential development in European defence cooperation is the emergence of a production model in which national governments increasingly seek to combine procurement demand, technological specialisation and manufacturing capacity across several jurisdictions. This model differs from traditional equipment transfers and conventional procurement arrangements because the participating countries may contribute different elements of the product's development and industrial life cycle. One partner may possess the original technology and operational experience, another may provide manufacturing facilities and qualified suppliers, while additional states may contribute financing, specialised components, integration capabilities or future procurement demand. The resulting network has the potential to increase production resilience and distribute industrial risks, but it also creates complex requirements concerning design authority, component sourcing, quality assurance, export permissions and contractual responsibilities.

European defence partnerships are moving along several different institutional pathways. Bilateral technology arrangements can provide relatively direct mechanisms for addressing specific requirements. Multinational procurement coalitions can aggregate demand and support more predictable production. EU instruments can establish financial and regulatory incentives for collaboration. NATO capability planning can encourage interoperability and identify operational requirements that multiple national programmes must satisfy. These mechanisms can reinforce one another, but their interaction is not automatic. A multinational coalition may procure equipment from several national suppliers without establishing a common technology programme. Conversely, a joint industrial project may develop advanced equipment without receiving the procurement commitments needed for sustained production.

The most useful approach is therefore to distinguish between cooperation structures according to the functions they actually perform. A political declaration establishes an intention to cooperate; a framework agreement may define procedures and areas of activity; a technology licence establishes particular rights; a production contract creates enforceable industrial obligations; a procurement contract generates demand; and completed deliveries provide evidence of actual industrial output. The maturity of a partnership cannot be inferred simply from the number of participants or the prominence of the governmental announcement.

The Build with Ukraine model and the emergence of distributed production

The Norwegian–Ukrainian Build with Ukraine arrangements provide an important illustration of distributed manufacturing. On 27 April 2026, the Norwegian Ministry of Defence announced the signing of the first bilateral project establishing a framework for producing Ukrainian-designed drones in Norway. The government explicitly identified the need for relevant export permissions before the production arrangements could be implemented. The Ukrainian manufacturer indicated that it expected the first Norwegian-produced systems to be delivered to Ukraine before the summer of 2026, but that expectation should not be converted into a verified delivery claim without a subsequent official record confirming completion. Signing of Agreement to Build Ukrainian Drones in Norway — Norwegian Ministry of Defence — Apr 2026. Regjeringen.no

The strategic significance of this model is the relocation or duplication of selected production activities while preserving a relationship with the technology's original developer. Such arrangements can potentially reduce the concentration of manufacturing risk, provide access to additional suppliers and establish production capacity in jurisdictions with different infrastructure and financing conditions. However, distributed production requires the transfer of sufficient technical knowledge to manufacture the product reliably, and it may create additional dependencies if certain components remain available only through the original industrial network.

This distinction becomes especially important for products that require frequent technological modifications. When the original manufacturer changes the design, the partner operating a licensed production line must determine whether the modification falls within the existing manufacturing rights, requires new technical documentation or triggers additional testing and authorisation. A geographically distributed production network can support resilience only if the partners establish effective configuration management and communicate relevant changes in a timely manner. Otherwise, parallel factories may produce incompatible versions of nominally identical equipment.

Lithuania and Latvia: specialised industrial hubs rather than comprehensive national production systems

Lithuania's October 2026 cooperation with Ukrainian manufacturers provides an example of industrial localisation focused on particular technologies rather than the creation of a comprehensive national defence production system. The letter of intent between Pekkla UAB and December One RND Ltd concerned electronic-warfare equipment and components for unmanned aircraft, with the stated ambition to establish a Lithuanian joint venture and begin production during 2027. The parties' complementary contributions included Lithuanian industrial and regulatory resources and Ukrainian technological expertise. The proposed production date remains an objective rather than evidence that manufacturing has begun. Lithuania Gains Ukraine's Drone Production Technology — Lithuanian Ministry of National Defence — Oct 2026. LR Krašto apsaugos ministerija

The importance of this approach is that smaller national economies can participate in European defence-industrial integration through specialised manufacturing and technology-development capabilities. They do not need to reproduce every element of a major weapons system domestically to contribute to a broader production network. Their value may instead arise from expertise in electronics, sensing, software, communications, testing or particular components. Such specialisation can support efficient production when international procurement creates sufficient demand, but it also increases the importance of predictable supply relationships and external markets.

Latvia's June 2026 defence cooperation framework with Ukraine illustrates a complementary institutional model. The Latvian government approved a ten-year arrangement covering military cooperation, technology transfer, industrial production, research and development and the exchange of operational expertise. It indicated an intention to allocate approximately €110 million during the first two years, subject to the necessary budgetary approvals. The agreement also provided for cooperation concerning Ukrainian military-product exports intended to strengthen Latvian defence capabilities, while identifying potential industrial localisation and post-war cooperation. The document demonstrates how a relatively modest national industrial base can seek to increase its defence capability through a combination of procurement, technology access, domestic manufacturing and multinational partnerships. Latvia and Ukraine to Sign Defence Cooperation Agreement — Latvian Ministry of Defence — Jun 2026. Aizsardzības ministrija

The development of these smaller industrial hubs creates both opportunities and structural challenges. Industrial specialisation can improve efficiency by allowing firms to focus on technologies for which they possess suitable capabilities. However, it may also expose manufacturers to changes in procurement demand or the loss of a particular technology licence. Governments can mitigate such vulnerabilities through long-term procurement frameworks, supplier diversification and arrangements supporting multiple customers. The objective should be sustainable specialisation within a wider industrial system, not the duplication of comprehensive national production chains.

The United Kingdom and Germany: different mechanisms for combining advanced industry with Ukrainian innovation

The British and German approaches illustrate how larger European defence-industrial economies can engage with Ukrainian technological development through different institutional and commercial mechanisms. The United Kingdom's March 2026 collaboration declaration identifies licensed production, joint research, industrial cooperation and the Lyra technology portfolio. Its significance lies in the capacity to connect Ukrainian designs with British manufacturing and development resources, potentially supporting systems with shorter technological modification cycles than traditional major-platform programmes. UK–Ukraine Enhanced Security and Defence Industrial Collaboration Declaration — UK Government — Mar 2026. GOV.UK

Germany's April 2026 strategic partnership framework identifies cooperation concerning the Anubis and Seth-X unmanned systems, including production arrangements and related technological cooperation. The strategic distinction is that these arrangements can connect German industrial capabilities with Ukrainian technological development while potentially creating new opportunities for the production and international distribution of relevant systems. Such opportunities remain dependent on the precise terms of the agreements, export permissions and the extent of implementation. Declaration on a Strategic Partnership Between Germany and Ukraine — German Federal Government — Apr 2026.

The comparison demonstrates that similar strategic objectives can be pursued through different industrial models. British programmes may emphasise selected technology portfolios and licensed manufacturing, while German partnerships may involve a different combination of development, production and international industrial arrangements. Neither model can be judged superior without verified information concerning cost, delivery performance, technical effectiveness and sustainment. The principal question is whether both can support production systems that remain commercially viable and operationally adaptable after the initial governmental commitments.

The institutionalisation of multinational armaments cooperation

EDIP introduces an additional mechanism through the Structure for European Armament Programme (SEAP), a legal framework intended to facilitate the management of multinational armaments programmes involving eligible participating countries. This addresses a significant institutional obstacle: multinational projects often require complex arrangements concerning legal personality, financial contributions, ownership, procurement responsibilities and industrial management. A dedicated legal structure can help establish continuity across national budget cycles and reduce some of the transaction costs associated with ad hoc cooperation. It does not, however, guarantee that participating governments will agree on technical specifications or sustain their financial commitments. EDIP: Forging Europe's Defence — European Commission — 2026. Defence Industry and Space

The European Commission's EDIP framework also identifies support for industrial supply-chain transformation, including a planned €100 million allocation through the FAST mechanism to Defence Equity Facility 2.0, intended to facilitate investment in defence-related small and medium-sized enterprises and small mid-cap companies. The strategic importance of this approach lies in the recognition that industrial resilience depends on more than major prime contractors. Specialised suppliers may provide critical electronics, components, software, materials or manufacturing services without possessing the financial capacity required for rapid expansion. Targeted financial mechanisms can potentially address some of these constraints, but their effectiveness must be evaluated through actual investment, supplier capacity and production outcomes. EDIP: Forging Europe's Defence — European Commission — 2026. Defence Industry and Space

Canada and the extension of European procurement networks beyond Europe

An important development in the external dimension of European industrial policy occurred on 15 June 2026, when the Council formally concluded an agreement permitting Canadian companies and eligible Canadian-origin products to participate in procurement under SAFE. The agreement had been signed on 14 February 2026 and entered into force on 1 August 2026. Canada thereby became the first non-European country to participate through this specific arrangement. This demonstrates that the European industrial framework is not based exclusively on restricting procurement to EU territory; it can accommodate selected external partners under negotiated conditions. SAFE: Council Concludes Agreement with Canada — Council of the European Union — Jun 2026; EU–Canada SAFE Participation Agreement — Council of the European Union — Aug 2026. Consilium+1

The agreement has broader implications for European industrial sovereignty. It establishes a precedent in which common procurement can be strengthened by participation from trusted partners outside the EU, provided that the relevant legal and industrial conditions are satisfied. It also demonstrates that autonomy and international cooperation are not mutually exclusive. The relevant policy objective is to preserve control over essential capabilities while obtaining access to technologies and production resources that strengthen collective security.

This model could influence future partnerships, but eligibility must be distinguished from actual industrial participation. A country's access to a procurement instrument does not establish that its companies have received contracts or that equipment has entered production. The relevant evidence would consist of procurement awards, contractual financial obligations, industrial participation and verified deliveries.

Emerging partnership and production-network matrix

Partnership / instrument	Participants	Industrial mechanism	Documented status	Potential structural significance
UK–Ukraine	United Kingdom, Ukraine	Licensed production, technological cooperation, R&D	Governmental collaboration framework	Connection between Ukrainian innovation and British industry
Germany–Ukraine	Germany, Ukraine	Joint development and production arrangements	Strategic partnership and identified implementing arrangements	Expansion of technology and manufacturing cooperation
Norway–Ukraine	Norway, Ukraine	Build with Ukraine production framework	Agreement signed April 2026	Distributed production of Ukrainian-designed systems
Lithuania–Ukraine	Lithuanian and Ukrainian companies	Planned joint venture and technology transfer	Letter of intent, October 2026	Specialised industrial localisation
Latvia–Ukraine	Latvia, Ukraine	Ten-year defence cooperation and possible localisation	Government-approved framework, June 2026	Combined procurement, R&D and national industrial development
Sweden–Ukraine	Sweden, Ukraine	Aviation and industrial cooperation	Frameworks and conditional procurement proposals	Advanced systems cooperation and future industrial participation
EU–Canada	European Union, Canada	Eligible Canadian participation in SAFE procurement	Agreement in force August 2026	Expansion of procurement partnerships beyond Europe
SEAP	Eligible participating countries	Multinational programme legal structure	Established under EDIP	More durable governance of collaborative armaments programmes
FAST / Defence Equity Facility 2.0	European Commission and eligible investment participants	Financial support for defence SMEs and smaller industrial suppliers	Programme framework	Potential strengthening of specialised supply chains

Official sources: UK–Ukraine Industrial Declaration — UK Government — Mar 2026; Norway–Ukraine Production Arrangements — Norwegian Ministry of Defence — Apr 2026; Lithuanian Industrial Cooperation — Lithuanian Ministry of National Defence — Oct 2026; EU–Canada SAFE Agreement — Council of the European Union — Jun 2026; EDIP Framework — European Commission — 2026.

The future industrial geography of European defence

The emerging structure suggests the potential development of several complementary industrial zones. Central European countries may contribute established manufacturing, specialised engineering, military mobility and logistics. Nordic and Baltic states may develop additional facilities and expertise for unmanned systems, electronic warfare, surveillance and selected defence technologies. France, Italy, Germany, Sweden and the United Kingdom possess established industrial structures capable of supporting sophisticated platforms, complex weapons and systems integration. Ukraine can contribute operationally informed technological development and manufacturing expertise, while external partners such as Canada and the United States may participate through relevant procurement, technology and industrial arrangements.

However, the geographic location of production is not sufficient to establish a functioning industrial network. Cross-border manufacturing depends on reliable logistics, components, licensing, standardisation and demand. A country may become an important assembly location without developing independent design authority. Another may possess valuable intellectual property but lack sufficient manufacturing capacity. A third may contribute financing without gaining access to the underlying technology. These differences are central to assessing future industrial sovereignty and the distribution of economic benefits.

The potential for industrial consolidation should also be considered carefully. Greater cooperation does not necessarily require corporate mergers or the creation of a small number of dominant European manufacturers. Consolidation can occur through common procurement, shared components, production partnerships, licensing and coordinated sustainment without changes in corporate ownership. In some circumstances, increased competition among specialised suppliers may improve innovation and procurement flexibility. In others, fragmented production may increase costs and delay delivery. The appropriate industrial structure depends on the characteristics of the equipment and the availability of alternative suppliers.

Chapter 14 — Key judgments

European defence partnerships are progressing beyond equipment transfers towards industrial cooperation involving technology, manufacturing and procurement. The most significant documented developments include the establishment of production frameworks in Norway, planned industrial localisation in Lithuania, continuing bilateral programmes involving the United Kingdom and Germany, and EU instruments supporting multinational procurement and industrial development. The EU–Canada SAFE agreement illustrates the possibility of extending European procurement networks to selected external partners.

The decisive uncertainty is whether these arrangements will create a durable production system with predictable demand, interoperable equipment and effective control over critical technologies. The most informative evidence will be completed manufacturing contracts, qualified production facilities, repeated procurement awards and the ability to maintain output despite component shortages, regulatory constraints or changing operational requirements.

Chapter 15 — Strategic Scenarios, Early-Warning Indicators and the European Defence Outlook, 2027–2031

The determining variable is the conversion of financial and institutional commitments into sustained military-industrial capability

The most defensible assessment for 2027–2031 is that European defence expenditure and cross-border industrial cooperation will remain structurally important, while the pace of operational integration is likely to differ significantly among countries, technological sectors and procurement programmes. The available evidence supports a trajectory of expanding industrial cooperation, but does not establish that the European defence technological and industrial base will become fully integrated by 2031. Nor does it support a precise numerical probability for any particular industrial outcome. Long-term procurement depends on national budgets, the security environment, industrial capacity, export permissions and the effectiveness of coordination among governments. These variables interact in ways that cannot be reliably reduced to a single forecast without a documented model and defensible assumptions.

The starting conditions are nevertheless more clearly observable than the eventual outcome. European defence expenditure increased substantially during 2025, with the EDA recording €418 billion across the EU Member States. The agency's 2026 forecast of €454 billion and conditional 2029 projection of up to €547 billion indicate the possibility of continued expansion. NATO's 2035 expenditure commitment creates another long-term policy framework, while the EU's Readiness Roadmap 2030 defines capability-development objectives and industrial priorities. Bilateral partnerships involving Ukraine demonstrate growing interest in reciprocal technological development and manufacturing. These developments support an assessment of sustained governmental demand, but should not be interpreted as evidence of future production volumes or the achievement of common military readiness standards. EU Defence Spending: €418 Billion in 2025, Projected €454 Billion in 2026 — European Defence Agency — Jul 2026; Future of European Defence — European Commission — 2025. eda.europa.eu+1

An additional consideration is the distinction between industrial transformation and military readiness. A manufacturer may expand production without increasing the availability of equipment to a specific armed force if contracts, testing, training or logistics are delayed. Conversely, a government may improve readiness through maintenance, training or inventory management without establishing new manufacturing facilities. These outcomes are related but not interchangeable. The 2026 Annual Defence Readiness Report presented by the European Defence Agency explicitly organised its assessment around expenditure, capabilities, industry and partnerships. The agency also noted that significant capability gaps remained despite progress in investment and cooperation. The full report was intended for governmental use and was not publicly released, limiting the detail that can be independently examined through open sources. Ministers Welcome First Annual Defence Readiness Report — European Defence Agency — Sep 2026. eda.europa.eu

Scenario A — Progressive industrial convergence

Under this pathway, European governments increasingly align national procurement programmes with NATO capability requirements and EU industrial instruments. Collaborative procurement expands, equipment specifications become more compatible and manufacturers receive sufficient long-term demand to justify investment in production facilities. Ukrainian technologies are incorporated into selected European manufacturing networks through licensing, joint development and industrial localisation, while established European suppliers contribute engineering, certification, sustainment and access to broader procurement markets.

The mechanism supporting this pathway would be a mutually reinforcing relationship between procurement coordination and industrial investment. Governments that consolidate demand for comparable systems can reduce uncertainty for manufacturers. Manufacturers can then increase production capacity and organise supply chains around more predictable requirements. Common standards can reduce the number of incompatible configurations and facilitate maintenance, training and logistics. Where technical cooperation with Ukraine includes effective technology rights and operational feedback, manufacturers may also become more capable of adapting products in response to changing requirements.

This pathway does not require every country to acquire identical equipment. Industrial convergence can occur through compatible communications, shared technical standards, interchangeable components, common testing arrangements and coordinated logistics. National specialisation could remain substantial, while the wider European system becomes more effective through better integration.

The principal obstacles are political, commercial and technical. Governments may resist changes that reduce national control over procurement or redistribute industrial activity. Manufacturers may seek to protect intellectual property and established supplier relationships. Multinational programmes may develop conflicting specifications or encounter delays in funding commitments. Production investments may also be constrained by workforce availability, components and infrastructure.

The strongest confirming evidence would be an increase in collaborative procurement, the execution of multinational contracts, completed industrial projects and successful interoperability testing. The European Commission's target of at least 40% collaborative procurement by 2030 provides one policy benchmark, although the achievement of that target would still need to be assessed alongside equipment quality, delivery schedules and military effectiveness. European Defence Industrial Strategy — European Commission — Mar 2024.

Scenario B — Asymmetric integration through bilateral industrial coalitions

Under this pathway, European defence cooperation continues to expand, but integration remains concentrated in selected countries and technological sectors. Bilateral agreements and smaller multinational coalitions progress more rapidly than broad European programmes because they can define narrower objectives and involve fewer participating authorities. Certain industrial partnerships generate production, while others remain at the level of declarations, research or procurement proposals. The result is a European defence-industrial network with areas of substantial cooperation but persistent differences in technical standards, capacity and procurement practices.

This pathway is particularly relevant because the existing evidence already demonstrates substantial variation in cooperation models. The United Kingdom has pursued licensed production and technology collaboration with Ukraine. Norway has established a Build with Ukraine framework. Lithuania has developed specialised technology-transfer initiatives and planned industrial localisation. Germany has identified joint-production arrangements, while Sweden's cooperation includes sophisticated aviation requirements and conditional procurement proposals. These programmes are not at equivalent stages of implementation, and their manufacturing consequences cannot be compared merely by counting agreements.

Asymmetric integration could produce meaningful improvements in military capability without generating a fully coherent European industrial market. Some countries might develop valuable production specialisations, while others continue to rely on external suppliers or primarily national procurement. Successful technologies might spread through bilateral licensing rather than common European programmes. The principal risk is that industrial expansion occurs without sufficient common standards, causing additional maintenance, training and interoperability burdens.

The main confirming indicators would be sustained bilateral production growth accompanied by a relatively limited increase in multinational procurement, continued differences in national technical specifications and uneven access to essential technologies. This pathway would not necessarily represent policy failure: smaller coalitions may be efficient for rapidly developing technologies. Its weakness would arise if the resulting systems could not function together or if the wider industrial architecture remained vulnerable to disruptions affecting individual suppliers.

Scenario C — Persistent fragmentation and industrial underperformance

Under the third pathway, European governments continue increasing defence expenditure but fail to coordinate procurement and industrial development sufficiently. Equipment orders are distributed among multiple programmes with limited commonality, industrial investment responds to uncertain national demand and suppliers struggle to expand production at the required pace. Export restrictions, intellectual-property disputes, certification delays and incompatible requirements reduce the benefits of multinational cooperation. Political declarations remain numerous, but manufacturing output and operational availability improve more slowly than expenditure.

The mechanism driving this pathway would be the failure to translate financing into predictable, coordinated industrial demand. Manufacturers could face high capital requirements without sufficient contractual certainty. Governments might prioritise immediate acquisitions from established foreign suppliers while underinvesting in domestic sustainment, component production and technical expertise. Collaborative programmes could be delayed by disagreements over specifications or industrial workshare. Under these conditions, Europe could spend more while retaining critical dependencies and experiencing shortages in selected equipment categories.

The principal warning indicators would include repeated delays in procurement awards, cancellation of planned industrial facilities, persistent supplier shortages, limited collaborative purchasing, unfulfilled production targets and incompatibilities revealed during multinational operational exercises. A particularly concerning development would be the combination of rising expenditure and limited improvement in equipment availability, because it would indicate that additional resources were not being converted efficiently into military capability.

Scenario D — A more demanding security environment forces accelerated but uneven mobilisation

A fourth pathway concerns the possibility that a deterioration in the security environment increases the urgency of procurement and industrial expansion beyond existing planning assumptions. This scenario is not a prediction of a particular conflict or escalation event. It examines the consequences of a more demanding operating environment in which governments face greater pressure to replenish inventories, protect infrastructure and accelerate the availability of selected capabilities.

Under such conditions, governments might increase procurement commitments, prioritise rapid deliveries and seek greater industrial redundancy. Manufacturers could receive stronger incentives to expand production, but supply-chain constraints might also become more pronounced as multiple customers compete for the same components and manufacturing resources. Emergency procurement could temporarily favour established suppliers and proven production lines over more complex multinational development programmes. The resulting increase in industrial activity might therefore produce rapid capability improvements in selected sectors while reducing the coherence of longer-term integration.

The principal indicators would be changes in national procurement priorities, accelerated contracting, the expansion of production arrangements, increased use of exceptional procurement procedures and a greater emphasis on infrastructure protection. Such developments would need to be distinguished from routine implementation of existing defence programmes. The scenario also highlights why industrial resilience should be developed before a crisis rather than relying exclusively on emergency expansion.

Comparison of strategic pathways

Strategic pathway	Industrial mechanism	Main benefit	Principal vulnerability	Observable indicators
Progressive convergence	Coordinated procurement, common standards, multinational production	More efficient and interoperable capability development	Complexity of multinational governance	Growing collaborative procurement, compatible systems, sustained contracts
Asymmetric integration	Bilateral and small-coalition production networks	Speed, specialisation and technological flexibility	Fragmentation and unequal access to technology	Bilateral production increases without comparable market integration
Persistent fragmentation	Predominantly national procurement and disconnected programmes	National discretion and supplier diversity	Duplication, costs and incompatible systems	Delayed contracts, limited cooperation, repeated production bottlenecks
Accelerated mobilisation under pressure	Urgent procurement and industrial expansion	Faster availability of selected capabilities	Competition for components and inconsistent long-term planning	Emergency contracts, expanded capacity, changing procurement priorities

These scenarios are not mutually exclusive and are not assigned numerical probabilities. Different technological sectors and countries could follow different pathways during the same period.

Early-warning indicators: distinguishing genuine industrial progress from political announcements

A credible monitoring system should focus on records that reveal whether industrial and military commitments have moved into implementation. Government declarations are important for understanding intentions, but they are insufficient for assessing production performance. Procurement awards, manufacturing licences, industrial investment, supplier qualification, delivery acceptance and operational trials provide stronger evidence of tangible outcomes. Where possible, these observations should be compared over time using consistent definitions.

The monitoring process should also avoid interpreting the absence of public information as proof of programme failure. Military production and procurement may involve classified, commercially sensitive or restricted information. In such cases, the appropriate conclusion is that the public record does not establish the relevant outcome. Conversely, the publication of a production target should not be treated as verification that the target has been achieved.

Indicator	Relevant evidence	Positive signpost	Adverse signpost	Principal authority
Collaborative procurement	Annual EDA reporting and procurement records	Sustained increase in coordinated equipment expenditure	Limited cooperation despite rising expenditure	EDA, national procurement authorities
Industrial capacity	Contract awards, factory commissioning, production disclosures	Qualified facilities and repeatable production	Delayed commissioning or persistent bottlenecks	National governments, manufacturers
Technology transfer	Licences, implementing agreements and technical responsibilities	Rights sufficient for production and maintenance	Narrow or unresolved technology access	Export authorities, contracting parties
Supply-chain resilience	Supplier qualification and procurement records	Multiple qualified sources for critical inputs	Concentration and prolonged shortages	Defence ministries, manufacturers
Interoperability	Military acceptance and multinational testing	Compatible command, communications and support systems	Repeated integration failures	NATO, national armed forces
Ukrainian industrial participation	SAFE plans, EDIP awards and bilateral contracts	Funded, implemented projects	Announced projects without identifiable execution	European Commission, governments
Fiscal sustainability	Multi-year budgets and expenditure records	Stable procurement funding and manageable obligations	Repeated cancellations or financing gaps	Finance ministries, parliaments
Export permissions	Licensing decisions and relevant agreements	Timely lawful transfers and clear conditions	Unresolved re-export or technology restrictions	National licensing authorities
Military mobility	Infrastructure projects and movement arrangements	Improved reinforcement capacity	Persistent legal or logistical bottlenecks	EU institutions, NATO, national authorities

The 2027–2031 monitoring horizon

During 2027, the most useful evidence will concern the implementation of industrial arrangements announced in 2026, including projects with explicit production targets and national procurement commitments. The focus should be on whether facilities enter operation, whether relevant export permissions are obtained and whether manufacturers can demonstrate repeatable production. The European Commission's objective of establishing a more coordinated military-mobility area by 2027 provides another relevant benchmark, although implementation and operational utility will require separate verification. Future of European Defence — European Commission — 2025. European Commission

During 2028, the emphasis should shift towards the sustainability of newly established manufacturing arrangements, including component availability, production continuity and procurement beyond initial demonstration orders. This is an analytical monitoring priority, not a claim that specific facilities will achieve full production by that year. Governments should examine whether industrial partners can adapt designs without disrupting manufacturing and whether multinational supply chains function reliably under changing demand.

During 2029, the NATO expenditure review established by the Hague declaration will provide an important institutional point for evaluating investment trajectories and the relationship between spending and capability requirements. The EDA's conditional projection of up to €547 billion in EU defence expenditure also identifies 2029 as a relevant year for evaluating whether current national spending trends have continued. These are separate benchmarks: NATO's review concerns Allied commitments and capability requirements, while the EDA projection concerns aggregate expenditure across EU Member States. The Hague Summit Declaration — NATO — Jun 2025; EDA Defence Data 2025–2026 — European Defence Agency — Jul 2026. The Hague Summit Declaration+1

During 2030, European governments will face an especially important evaluation point because the EU's Readiness Roadmap and industrial-policy targets use that year as their planning horizon. The relevant assessment should consider actual collaborative procurement, manufacturing capacity, equipment availability, interoperability and the remaining capability gaps identified through official reporting. Achieving a financial or procurement percentage would not by itself demonstrate complete military readiness.

By 2031, the cumulative evidence should make it possible to evaluate whether Europe's defence-industrial expansion has produced a more coherent and resilient system. The principal questions will concern the sustainability of manufacturing capacity, the integration of Ukrainian technological expertise, the reliability of multinational procurement and the extent to which European military capabilities remain dependent on external suppliers. This horizon is a framework for assessment rather than a prediction of a particular political or military outcome.

Chapter 15 — Key judgments

The available evidence supports continued demand for European defence capability development and an expanding network of bilateral and multinational industrial cooperation. It does not establish that European industrial convergence will be completed by 2031. The most plausible structural concern is uneven implementation, in which selected partnerships and technologies progress rapidly while broader procurement and sustainment remain fragmented. This qualitative judgment derives from the coexistence of expanding governmental programmes and the EDA's documented evidence of relatively limited collaborative procurement.

The principal indicators are the conversion of financing into contracts, contracts into verified production, production into accepted equipment, and equipment into sustainable operational capability. The existence of funding mechanisms and governmental declarations is necessary for many programmes, but cannot substitute for those outcomes.

Chapter 16 — Policy Options and Final Net Assessment: Building an Interoperable, Scalable and Resilient European Defence System

European defence policy must move from announcing commitments to governing their implementation

The central policy conclusion is that Europe's defence transformation will succeed only if military requirements, industrial incentives, technology rights, procurement financing and operational interoperability are governed as parts of a connected system. Increasing expenditure can create favourable conditions for industrial investment, but additional financial resources do not automatically eliminate manufacturing bottlenecks, improve supply security or produce interoperable equipment. Similarly, expanding the number of bilateral cooperation agreements may increase access to technology without resolving the legal, commercial and operational constraints that determine whether the resulting systems can be manufactured and sustained. European defence policy must therefore concentrate on implementation capacity rather than the volume of announcements or the nominal value of financing instruments.

The first requirement is institutional clarity. NATO possesses the central collective-defence and operational planning functions, while the EU can support industrial development, financing, procurement coordination and relevant regulatory measures. National governments retain the authority necessary to implement defence budgets, procure equipment and decide on military commitments. Private manufacturers control substantial elements of engineering, manufacturing and intellectual property. Ukraine's growing role introduces additional opportunities for technological cooperation and production partnerships. Successful implementation requires defined responsibilities among these actors, rather than the assumption that all will pursue identical objectives.

This division of responsibility should be reflected in programme governance. NATO's capability requirements can inform the military characteristics needed from equipment. National procurement authorities can translate those requirements into funded acquisition programmes. EU instruments can support eligible collaborative procurement and industrial development. Manufacturers can establish production and sustainment arrangements, while relevant military authorities validate equipment and determine whether it meets operational needs. Each stage should produce evidence that can be evaluated independently. A programme should not be classified as successful because a governmental declaration was signed, a manufacturing facility was announced or a financing allocation was approved.

Policy option A — Establish binding, multi-year procurement cooperation around compatible capability requirements

The first option is to increase the use of multi-year procurement arrangements involving countries with sufficiently similar military requirements. The objective would be to provide manufacturers with predictable demand while reducing duplication in development, qualification and sustainment. NATO capability targets could provide a common reference for relevant military requirements, while EU instruments such as SAFE and EDIP could support eligible procurement and industrial cooperation.

The responsible authorities would be national defence ministries and procurement agencies, acting within their budgetary and legal powers. EU institutions could provide financing and regulatory coordination where applicable, while NATO would remain responsible for the relevant operational requirements. Implementation would require agreement on technical specifications, quantities, delivery schedules, industrial participation, maintenance arrangements and cost allocation.

The expected benefit is greater predictability for manufacturers and potentially more efficient use of procurement expenditure. The principal burden would be the negotiation of common requirements and the management of changes during programme execution. The time required would vary by equipment category, with established products potentially permitting more rapid procurement than systems requiring major research or development. Once major industrial investments and contracts are established, reversibility would become more limited because cancellation could create financial costs and reduce production continuity.

The principal downside is the risk that common procurement requirements become overly complex or delay urgent acquisitions. This can be mitigated by limiting cooperation to areas where operational requirements genuinely overlap and by preserving appropriate national flexibility.

Policy option B — Create a technology-sovereignty framework for multinational production

The second option is to require participating governments to define technology-control and sustainment requirements before committing to significant multinational production programmes. The relevant issues include design authority, manufacturing rights, source-code access, permitted modifications, component substitution, intellectual-property ownership and export permissions. The objective would not be to require unrestricted disclosure of sensitive technologies, but to ensure that participating states understand and can manage the dependencies created by the agreement.

The responsible authorities would include national defence ministries, export-control authorities, procurement agencies and the contracting companies. The EU could support greater regulatory coherence within its competences, while national governments would preserve the powers and obligations established by applicable legislation.

The expected benefit would be a reduction in the risk that equipment manufactured within Europe remains critically dependent on unavailable foreign technical support or permissions. The implementation burden would involve contractual negotiation, technical review and legal compliance. Some elements could be established during procurement preparation, while more complex programmes might require longer negotiations and continuing technology-management arrangements.

The principal downside is that extensive sovereignty requirements could increase acquisition costs, discourage participation by certain technology owners or delay access to urgently required capabilities. The appropriate approach should therefore be proportionate to the importance of the equipment and the consequences of losing access to a particular technology.

Policy option C — Prioritise critical suppliers and industrial production bottlenecks

The third option is to direct greater attention towards the industrial inputs that determine whether defence equipment can be manufactured and maintained at scale. These include specialised electronics, propulsion components, sensors, materials, testing facilities, qualified engineering personnel and other inputs that may be concentrated among a limited number of suppliers. The relevant policy objective is not to relocate every component within Europe, but to identify where dependence on a particular supplier or jurisdiction creates unacceptable risks to essential military capability.

National governments, industrial authorities and manufacturers would need to cooperate in identifying critical production dependencies. EU industrial instruments could support eligible investments, while private companies would remain responsible for much of the practical supplier qualification and manufacturing activity.

The expected benefit would be greater production continuity and reduced vulnerability to disruption. The implementation burden could be substantial where alternative suppliers require extensive qualification or investment. Time-to-effect would vary considerably, particularly for specialised components and complex manufacturing processes. Certain investments would be relatively reversible, while new facilities and long-term supply contracts could create enduring financial obligations.

The principal risk is that governments may subsidise unnecessary capacity or select suppliers based on political considerations rather than industrial performance. Transparent qualification standards, competitive procurement and demonstrable demand should therefore remain central to the process.

Policy option D — Integrate Ukrainian technology through structured, reciprocal industrial partnerships

The fourth option is to establish a more systematic framework for incorporating Ukrainian technological expertise into European development and production programmes. Existing bilateral arrangements demonstrate that such cooperation can involve licensed production, joint ventures, research, industrial localisation and procurement. A more coherent approach would identify where Ukrainian technologies address recognised military requirements and establish the legal, technical and commercial arrangements needed for reliable implementation.

The responsible authorities would be the participating national governments, defence-industrial organisations and relevant procurement bodies. EU programmes could support eligible projects, while NATO-compatible requirements would be relevant where the resulting equipment is intended for Allied operations.

The expected benefit would be access to operationally informed technologies and the possibility of combining rapid development with established industrial resources. The principal implementation burdens would concern technology security, production rights, component supply, testing, quality assurance and the management of continuing design changes.

The main risk is that technology transfer may be pursued because of its political visibility rather than demonstrated operational or industrial value. Programmes should therefore be evaluated using the same standards applied to other defence acquisitions: technical suitability, cost, production reliability, legal feasibility and operational performance.

Policy option E — Establish a common capability-delivery and industrial-readiness reporting framework

The fifth option is to improve the transparency and comparability of European defence-industrial reporting without requiring publication of operationally sensitive information. The objective would be to distinguish financing approvals, procurement commitments, industrial capacity, realised output, delivered equipment and operational availability through consistent definitions.

The European Defence Agency's existing data collection and Annual Defence Readiness reporting provide relevant institutional foundations. National authorities and EU institutions could develop additional indicators within their competences, while preserving confidentiality where necessary. Such an approach could improve the evaluation of expenditure effectiveness and reveal whether increasing procurement demand is generating sustainable production.

The implementation burden would involve data collection, common definitions, reporting obligations and mechanisms to protect sensitive information. The time-to-effect could be shorter than for major industrial expansion because the initiative would build on existing reporting structures. However, meaningful comparability would still require careful reconciliation of national accounting methods and definitions.

The principal risk is that reporting requirements become administratively burdensome or encourage governments to optimise headline indicators rather than genuine capability. The framework should therefore concentrate on a limited number of decision-relevant measures and avoid arbitrary composite scores.

Policy option F — Strengthen the protection of industrial, energy and logistical infrastructure

The sixth option concerns the resilience of the physical and digital infrastructure supporting European defence production. Manufacturing facilities depend on electricity, communications, transportation, specialised suppliers, information systems and a workforce capable of sustaining production. Disruption to these dependencies can limit military output even where sufficient funding and production orders exist.

National governments would remain responsible for much of the relevant infrastructure protection, supported by EU measures and NATO operational coordination where appropriate. The expected benefit would be improved continuity of essential military-industrial functions during periods of disruption. Implementation could include infrastructure assessments, redundancy arrangements, contingency planning and cooperation between military, civilian and industrial authorities.

The principal burden would be the cost of building and maintaining resilience across a broad range of infrastructure assets. Some measures could be implemented relatively quickly through planning and operational changes, while major infrastructure investments would require longer development periods. The main risk is that resources become dispersed across projects whose contribution to defence continuity is difficult to measure. Prioritisation should therefore be based on the consequences of disruption and the availability of alternatives.

Comparative policy options and decision consequences

Option	Responsible authority	Expected effect	Implementation burden	Time-to-effect	Reversibility	Principal downside
Multi-year joint procurement	National defence ministries and procurement agencies; EU support where eligible	Predictable demand and greater interoperability	Common requirements, contracts, industrial workshare	Procurement-cycle dependent	Limited after binding contracts	Delays and reduced flexibility
Technology-sovereignty framework	Governments, export authorities and manufacturers	Improved control of critical technologies and sustainment	Licensing, legal review and contractual negotiation	Programme-dependent	Moderate before contracts; limited after transfer	Higher costs or restricted participation
Critical supplier investment	Governments, manufacturers and eligible EU mechanisms	More resilient production and component availability	Capital, workforce and supplier qualification	Medium to long term	Limited for specialised facilities	Overcapacity or inefficient subsidies
Reciprocal Ukrainian partnerships	Participating governments and companies	Access to operational innovation and distributed production	Technical rights, testing, security and supply chains	Technology-dependent	Variable	Incomplete technology transfer or weak industrial execution
Capability-delivery reporting	EDA, national authorities and EU institutions	Better measurement of industrial and military outcomes	Data governance and comparable definitions	Short to medium term	High	Administrative burden and misleading metrics
Infrastructure resilience	National authorities, infrastructure operators and NATO coordination	Greater continuity of military-industrial functions	Investment, coordination and contingency planning	Varies by infrastructure	Variable	Poorly targeted expenditure

Strategic priorities for Germany, France, Italy and the United Kingdom

Germany should be assessed primarily through the ability to convert its industrial and logistical resources into sustained production and operational support. Its central geographic position, established manufacturing capacity and role in European reinforcement create a particular requirement for dependable equipment output, maintenance, transportation and supply-chain continuity. Greater cooperation with Ukrainian manufacturers could contribute to technical innovation, but the strategic value will depend on integrating those technologies into production and sustainment structures that can operate over time.

France faces the challenge of preserving sovereign capabilities in advanced military technologies while participating effectively in multinational programmes. Its strategic interests include maintaining access to complex weapons, combat aviation, naval systems and critical technologies. The most consequential policy choice concerns how to balance national design authority with collaborative procurement and industrial partnerships. Excessive fragmentation could increase costs, while poorly governed multinational cooperation could constrain national control over essential technologies.

Italy has an opportunity to contribute through aerospace, electronics, radar, naval systems, integrated air defence and advanced systems engineering. Its industrial importance lies particularly in the capacity to integrate complex technologies and support multinational programmes. The principal strategic concern is whether Italian industry can participate meaningfully in emerging European production networks and technological standards while preserving sufficient investment in domestic engineering, components and sustainment. Its Mediterranean security requirements also mean that national procurement priorities cannot be based exclusively on eastern-flank operational scenarios.

The United Kingdom will remain central to European defence technology and industrial cooperation despite its position outside the EU. Its established bilateral arrangements with Ukraine, participation in NATO and ability to work through multinational coalitions create opportunities for technological development and production. The principal policy challenge concerns the relationship between rapid innovation, manufacturing scale, procurement continuity and access to European industrial programmes under applicable participation rules.

These national priorities are complementary in several respects, but they are not identical. Germany's industrial and logistical responsibilities differ from France's sovereign technology priorities, Italy's systems-integration and Mediterranean requirements, and the United Kingdom's mix of bilateral innovation and wider Allied commitments. European policy should seek functional interoperability among these approaches rather than assume that effective integration requires identical national defence strategies.

Principal gaps in the official record

The available official sources establish the existence of major financial commitments, institutional programmes and selected bilateral industrial arrangements. They do not provide a single verified dataset covering the realised monthly production of all major European defence systems, the operational availability of corresponding national inventories, the detailed intellectual-property conditions attached to every multinational programme or the full cost of industrial expansion across participating countries.

The most consequential gaps concern programme execution and effective capability. National procurement records, contract awards, official manufacturing disclosures, defence-budget implementation reports, export-control decisions and military acceptance documentation are therefore more informative than political announcements alone. Some of these records may remain classified or commercially sensitive. Their absence from the public domain should be treated as a limitation of the available evidence, not as proof that the relevant activity has not occurred.

Final Net Assessment — Europe's Defence Architecture in 2031

The transformation of European defence represents a structural change in the relationship between military security, industrial production, technological innovation and national sovereignty. Its direction is supported by identifiable governmental commitments, institutional programmes, expanding industrial cooperation and substantially higher defence expenditure. The European Union has developed financial and regulatory instruments intended to strengthen procurement and industrial capacity. NATO has established more demanding investment and capability requirements. Ukraine has become an increasingly important technological and industrial partner, while major European defence manufacturers and smaller specialised firms are being drawn into new production relationships.

These developments are significant, but their ultimate outcome remains open. Higher expenditure does not automatically produce greater military effectiveness; local manufacturing does not necessarily establish technological independence; bilateral cooperation does not always create multinational interoperability; and political commitments do not guarantee industrial execution. The principal risk is that the expansion of financial and institutional structures proceeds faster than the manufacturing, logistical and operational systems required to convert them into sustainable capability.

The decisive strategic objective for Europe through 2031 is to develop a defence-industrial system capable of sustained production, rapid technological adaptation, secure access to critical components and effective multinational military integration. This requires the preservation of national decision-making authority where necessary, combined with stronger coordination where common requirements justify it. It also requires a realistic understanding of transatlantic dependencies and the opportunities created by cooperation with Ukraine and other trusted industrial partners.

The strongest evidence of success would be the emergence of durable multinational procurement programmes, operationally useful technology transfers, verified manufacturing expansion, resilient supply chains and military systems capable of functioning together under demanding conditions. The weakest outcome would be a fragmented market characterised by greater expenditure, numerous political agreements and insufficient improvement in delivered military capability.

Europe's security will ultimately depend less on the ambition of its defence announcements than on the capacity of its institutions, armed forces and manufacturers to translate financial resources and technological innovation into reliable military power.

Strategic Dependencies, Defence Economics and the 2031 Outlook

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