How the United States, Russia, China, Ukraine, European powers, Israel and Indo-Pacific nations are transforming military doctrine, electronic warfare, autonomous systems, industrial production and strategic deterrence.

Geographic scope: Global, with individual national assessments covering the principal military powers and strategically exposed states.

Assessment period: 2022–25 October 2026, with a forward-looking strategic horizon extending to 2031.

Executive Summary — Bottom Line Up Front

The transformation of contemporary warfare is no longer adequately explained by the proliferation of unmanned aerial vehicles or the integration of artificial intelligence into existing military platforms. A more consequential change is under way: military advantage is increasingly determined by the ability to control, interpret, protect and contest the information on which operational decisions depend. The essential competition is shifting from possession of superior weapons alone towards the capacity to sustain reliable decisions within an environment of persistent surveillance, electronic interference, distributed autonomous systems and deliberately misleading information.

The Russian-Ukrainian war has accelerated this transformation, but its strategic consequences reach substantially beyond Eastern Europe. The United States is attempting to reconcile technologically advanced military capabilities with greater quantities of affordable autonomous systems. NATO is committing to a multinational expansion of counter-drone capabilities. European states are reorganising procurement and military structures. Japan and Taiwan are pursuing asymmetric unmanned defence architectures, while India and Israel are strengthening different components of integrated detection, electronic warfare and layered interception.

The most important documented developments include NATO’s July 2026 commitment to more than USD 40 billion in counter-drone capabilities over five years, Ukraine’s recording of more than 3 million UAV strike missions in its DELTA Mission Control system, Japan’s approximately ¥100.1 billion FY2026 allocation for the SHIELD unmanned coastal-defence initiative, and Germany’s October 2026 announcement of a specialised military drone regiment intended to reach full operational capability in 2029.

These developments point towards a global military-industrial competition in which the principal strategic assets will include integrated sensing, secure communications, electronic-spectrum resilience, trustworthy artificial intelligence, scalable manufacturing and effective coordination between human commanders and autonomous platforms.

Principal assessment: By 2031, superiority in contested military environments will depend less on the nominal quantity of autonomous systems possessed by a state than on how successfully it integrates them into resilient command structures, sustains industrial replacement rates and prevents adversaries from corrupting or overwhelming its operational picture.

The decisive uncertainty remains whether military organisations can adapt doctrine, procurement, training and validation procedures at the same rate as the technologies and countermeasures they intend to employ.

Autonomous Warfare Becomes an Institution: The U.S. Command Model and the Strategic Race with Russia, China and Europe

Autonomous Warfare Is Rewriting the Economics of Military Power — And Governments Are Buying Time They May Not Have

The next contest for military superiority will not be decided by which country possesses the most sophisticated autonomous weapons, but by which government can manufacture, replace, integrate and control them faster than its adversaries can render them obsolete. That distinction is already reshaping public expenditure, industrial policy and alliance politics. Global military spending reached $2.887 trillion in 2025, yet NATO’s new procurement commitments, Europe’s defence-financing programmes and the industrial mobilisation of Ukraine reveal a widening discrepancy between money authorised and capability actually available. The strategic vulnerability is no longer confined to shortages of weapons. It lies in production chains dependent on concentrated suppliers, military organisations acquiring technologies faster than they can validate them, and governments committing future budgets before establishing whether their industrial systems can sustain the resulting obligations.

The $2.9 Trillion Question Is No Longer How Much Governments Spend

According to the Stockholm International Peace Research Institute’s April 2026 assessment, global military expenditure reached $2.887 trillion in 2025, increasing 2.9% in real terms over the preceding year. The United States accounted for $954 billion, China for an estimated $336 billion and Russia for an estimated $190 billion. Germany reached $114 billion, while India spent $92.1 billion. Together, the five countries represented approximately 58% of global military expenditure. These figures describe the financial distribution of military power, but not the quantity of usable equipment that governments can generate from it.

Europe’s spending reached $864 billion in 2025, an increase of 14% in real terms. Germany expanded expenditure by 24%, Poland by 23% and Italy by 20%, according to SIPRI’s comparable methodology. The acceleration reflects a redistribution of fiscal priorities towards defence, but it also exposes European governments to a problem that larger appropriations cannot immediately solve: qualified industrial production takes longer to establish than budgetary commitments take to announce.

NATO’s 2025 decision to pursue defence and defence-related expenditure equivalent to 5% of GDP by 2035 introduces a further constraint. The commitment distinguishes at least 3.5% for core defence requirements from up to 1.5% for wider security-related investment. It creates a long-term political obligation without determining how individual governments will distribute resources among ammunition, autonomous platforms, personnel, infrastructure and maintenance.

The contradiction is visible in the alliance’s July 2026 Drone Edge declaration, which commits allies to invest more than $40 billion in counter-drone capabilities over five years. The figure demonstrates collective demand, not equipment delivered. Between that commitment and an operational defensive capability stand contracts, production schedules, technical qualification, training and integration. The countries that shorten this interval without sacrificing reliability will obtain more military value from their budgets than those that simply increase expenditure.

Ukraine Has Turned Battlefield Attrition Into an Industrial Procurement System

Ukraine provides the clearest documented example of how prolonged warfare can reorganise the relationship between military requirements and manufacturing. Its Ministry of Defence reported approximately 4 million drones produced in 2025, compared with several thousand in 2022, and identified an objective exceeding 7 million for 2026. The distinction between realised production and planned output matters: industrial ambition is not equivalent to accepted deliveries, and neither establishes how many systems are simultaneously available for military employment.

The more consequential innovation concerns procurement. By May 2026, Ukraine reported deliveries of approximately 485,000 UAVs and other equipment worth UAH 31.4 billion through DOT-Chain Defence, a purchasing mechanism connecting military requirements with more than 200 domestic manufacturers. The ministry also reported more than 590,000 UAV orders through the separate Brave1 Market channel during the first nine months of 2026. Those figures refer to different mechanisms and categories and cannot be added to establish total national production.

Ukraine is attempting to reduce the interval between operational demand, supplier response and equipment availability. This challenges the conventional procurement model, in which technical specifications may remain largely fixed throughout lengthy acquisition programmes. The September 2026 authorisation of 650 additional unmanned-aircraft models illustrates the speed of design diversification, but it also introduces substantial requirements for spare parts, operator training, quality control and software compatibility.

The industrial consequences extend beyond Ukrainian territory. An April 2026 agreement with Norway provided for joint production of Ukrainian-designed strike drones in Norway, with several thousand systems planned. Such arrangements move production into allied industrial environments while connecting foreign capital with technology developed under wartime conditions. They also raise questions about intellectual property, component sourcing, export authority and the distribution of manufacturing benefits.

Russia confronts a different problem. Its established defence-industrial base and capacity to direct substantial resources towards military production support prolonged operations, but industrial endurance remains dependent on labour, components, financing and the ability to adapt equipment. Russia’s estimated $190 billion in military expenditure for 2025, equivalent to approximately 7.5% of GDP, illustrates the scale of the commitment. Ukraine’s corresponding burden reached approximately 40% of GDP. The two economies are sustaining military production under radically different financial conditions, which makes direct comparisons based on drone counts or announced factory capacity insufficient.

The lesson for NATO procurement authorities is not that every European army should reproduce Ukraine’s acquisition system. It is that the industrial feedback process has become part of military effectiveness. A government unable to translate validated operational experience into contracts and technical modifications risks purchasing equipment whose useful configuration has changed before deployment.

Europe Can Finance Rearmament Faster Than It Can Manufacture Sovereignty

The European Union’s response combines financial scale with a continuing institutional problem. The SAFE instrument offers up to €150 billion in long-maturity loans for defence investment and joint procurement. Its sourcing provisions require at least 65% of relevant component costs to originate within eligible European and Ukrainian industrial jurisdictions. The measure is intended to convert security expenditure into industrial capacity, but the financing remains debt rather than an unconditional budget transfer.

The European Defence Industry Programme, adopted in December 2025, provides €1.5 billion in grants for 2025–2027, including €300 million allocated to a Ukraine Support Instrument. In October 2026, the Council adopted the €115 million AGILE programme, designed to accelerate the transition of innovative defence technologies towards operational capability. These instruments address distinct problems: financing procurement, strengthening industrial cooperation and bridging the gap between prototype development and qualified production.

Their effectiveness will depend on whether national acquisition authorities can translate separate programmes into an integrated manufacturing structure. Financial assistance cannot eliminate differences in national security requirements, industrial workshare, intellectual-property restrictions or technical standards. A component manufactured inside the EU does not automatically provide strategic autonomy if essential materials, processing technologies or maintenance rights remain controlled elsewhere.

Italy illustrates the dilemma. The country possesses important capabilities in defence electronics, naval construction, aerospace and advanced manufacturing, while its Army has identified Drone Dome, AD3S and Leonardo’s ACUS Enhanced within its counter-UAS portfolio. Its Mediterranean exposure also creates requirements for maritime surveillance, port protection and underwater technologies. But the presence of qualified industrial sectors does not establish that they have received orders sufficient to expand production or that civilian suppliers can enter defence programmes without additional certification and investment.

France has chosen a different route, reinforcing its broad national defence model through a revised Military Programming Law. Its August 2026 update provided for €36 billion in additional expenditure during 2026–2030, including €8.5 billion for munitions, €2 billion for drones and remotely operated munitions, and €1.6 billion for ground-based air defence and counter-drone capabilities. Germany, meanwhile, announced a specialist unmanned-systems regiment in October 2026, intended to grow towards approximately 600 personnel and reach full operational capability in 2029. Britain has committed more than £5 billion over four years to drone transformation, alongside almost £2 billion for a Digital Targeting Web.

These decisions reveal three competing models: French sovereign capability development, German organisational restructuring and British investment in digitally integrated forces. Italy faces a choice over where its industrial base can create defensible technological control within European programmes. None of these approaches can be judged by announcements alone. Their success depends on accepted equipment, sustained production and military readiness.

China’s Industrial Concentration Is a Defence Vulnerability for Its Competitors

The international supply chain presents a constraint that defence ministries cannot overcome simply by placing additional orders. The International Energy Agency’s Global Critical Minerals Outlook 2026 reports that China accounts for more than 90% of refining supply in several important categories, including gallium, graphite, manganese and rare earths. These materials contribute to industrial technologies used in electronics, permanent magnets, batteries and specialised manufacturing.

China’s position is not merely a consequence of access to mineral deposits. The economically consequential concentration lies in refining, purification and downstream processing. Establishing an alternative mining project does not automatically produce qualified materials for advanced manufacturing. The IEA estimates that alternative refining projects can face capital costs approximately 20% to more than 150% higher, depending on the technology and location, while average operating costs may be around 50% higher.

This is where national defence policy collides with commercial economics. Governments seek diversified suppliers to reduce geopolitical exposure, while manufacturers face established competitors with lower costs, accumulated expertise and substantial scale. A procurement authority demanding a more secure supply chain may therefore have to accept higher prices, longer development periods or public financing for facilities that private investors would otherwise regard as unattractive.

The IEA estimates that approximately $60 billion in investment over the coming decade could contribute to diversification of magnet rare-earth supply chains. Yet financing mineral extraction without building separation, processing and magnet manufacturing would reproduce significant dependencies at a different production stage.

This matters to the United States and Europe because their defence technologies depend on components produced through international industrial networks. It also matters to China, whose manufacturing advantages must still be converted into reliable military systems. The US Department of Defense’s December 2025 assessment cautioned against treating Chinese demonstrations of AI-enabled and autonomous equipment as proof of mature operational capability.

The relevant competition is therefore between industrial systems, not simply between Western software and Chinese manufacturing. Whoever controls the qualified components, technical interfaces, production equipment and maintenance arrangements can exercise influence over the cost and availability of future military capabilities.

Military AI Has Reached the Point Where Legal Review Becomes an Industrial Requirement

The deployment of artificial intelligence in military operations introduces another constraint: equipment must be technically reliable and legally employable. The distinction between software assisting a human decision-maker and a weapon selecting and engaging targets after activation is fundamental. A system capable of classifying imagery does not thereby acquire authority to determine that an attack is lawful.

Article 36 of Additional Protocol I to the Geneva Conventions requires states bound by that provision to review the legality of new weapons, means and methods of warfare. Software-defined systems complicate this responsibility because changes in models, operating parameters or intended employment can affect the conditions examined during initial review.

The United States Department of Defense addressed related issues in its January 2023 Directive 3000.09, requiring appropriate levels of human judgment over the use of force and establishing technical and operational assurance obligations. The International Committee of the Red Cross, in its October 2026 guidance, called for additional legally binding restrictions on autonomous weapons. Those proposals must be distinguished from the existing law: political advocacy for new rules does not mean they have already entered into force.

The governance problem has direct commercial consequences. Military purchasers need evidence that software configurations are controlled, technical limitations are understood and systems remain within approved operating conditions. Every significant change may create new testing and documentation requirements. Manufacturers able to provide dependable validation and lifecycle support could acquire procurement advantages, while companies that rely on impressive demonstrations without sufficient evidence of operational reliability may encounter barriers to adoption.

This requirement creates a difficult trade-off. Excessively slow assurance procedures can prevent armed forces from using valuable improvements, while inadequate review can produce operational failures, unlawful effects or systems that allied forces cannot confidently integrate. Legal governance is therefore becoming part of defence-industrial competitiveness rather than merely a restriction imposed after development.

The Next 24 Months Will Expose the Difference Between Rearmament and Readiness

The period from October 2026 to October 2028 will provide an early test of whether recent commitments are changing military capability or primarily expanding future financial obligations. NATO’s Drone Edge programme is intended to increase counter-drone investment and multiply operator training by the end of 2027. Japan has allocated approximately ¥100.1 billion for its SHIELD unmanned coastal-defence initiative, targeting establishment of the architecture during FY2027. Germany expects initial activity from its specialist drone regiment in 2027, while the EU’s AGILE programme is scheduled to become operational in early 2027.

These milestones create measurable tests. Governments will have to demonstrate that manufacturers can deliver qualified equipment, armed forces can integrate it, and public investment can secure sufficient industrial capacity without multiplying incompatible national programmes. European defence authorities will also need to show that the €150 billion SAFE loan framework contributes to production and procurement rather than merely transferring expenditure into future fiscal obligations.

The economic cost of failure will not fall exclusively on defence ministries. Taxpayers will finance contracts and debt commitments that may produce fewer operational capabilities than anticipated. Manufacturers will bear the consequences of fragmented demand and uncertain production schedules. Energy and transport operators will remain exposed where infrastructure protection develops more slowly than the threats it is intended to address. Military personnel will operate equipment whose availability depends on procurement and maintenance decisions made years earlier.

For Europe, the most damaging outcome would be to increase defence expenditure while retaining concentrated component dependencies, fragmented procurement and insufficient replenishment capacity. For the United States, the corresponding risk is that advanced military capabilities remain expensive to replace during a prolonged Indo-Pacific contingency. For China, industrial scale will need to translate into operationally dependable systems rather than demonstrations of technological ambition.

By October 2028, the meaningful evidence will not be the number of national strategies published or the total value of announced investments. It will be the quantity of equipment accepted into service, the reliability of the systems supporting it, the rate at which industry can replace losses and the financial obligations governments have incurred to achieve those results. The contest for military superiority is becoming a test of industrial execution. Governments that confuse purchasing commitments with deliverable capacity will pay twice: first through their budgets, and then through the military capabilities those budgets fail to produce.

The Rising Nexus of Autonomous Warfare: How NATO and Ukrainian Partnerships Are Shaping the Future of Combat

---

Navigational Index

Pillar I — The Transformation of War: Technology, Doctrine and Operational Reality

• Chapter 1. From Platform-Centric Warfare to Information-Centric Military Operations
• Chapter 2. Military Deception, Electronic Warfare and the Contest for Decision Superiority
• Chapter 3. Artificial Intelligence, Sensor Fusion and Autonomous Target Recognition
• Chapter 4. The Economics of Attrition: Industrial Scale, Disposable Systems and Defensive Sustainability
• Chapter 5. The Evolution of Warfare Across Land, Air, Maritime, Space and Cyber Domains

Pillar II — Global Military Powers and National Strategic Responses

• Chapter 6. Ukraine and Russia: Operational Adaptation, Industrial Mobilisation and the Eastern European Battlefield
• Chapter 7. United States: Autonomous Mass, Joint Command Systems and Indo-Pacific Military Competition
• Chapter 8. China: Intelligentised Warfare, Military-Civil Fusion and the Taiwan Strategic Equation
• Chapter 9. NATO and the European Union: Collective Defence, Interoperability and Industrial Sovereignty
• Chapter 10. Italy: Military Modernisation, National Defence Industry, Mediterranean Security and Strategic Opportunities
• Chapter 11. France: Strategic Autonomy, Electronic Warfare, Counter-Drone Defence and Military Innovation
• Chapter 12. Germany: Military Reorganisation, Defence Industrial Expansion and the Eastern Flank
• Chapter 13. United Kingdom: Integrated Force Transformation, Digital Targeting and Autonomous Warfare
• Chapter 14. Poland, the Baltic States and Northern Europe: Frontline Defence and Distributed Military Resilience
• Chapter 15. Israel, Iran and the Middle East: Integrated Air Defence, Precision Threats and the Regional Technology Contest
• Chapter 16. Japan, Taiwan, South Korea and India: Maritime Denial, Asymmetric Defence and Asian Military Modernisation
• Chapter 17. Türkiye, the Gulf States and Emerging Military-Industrial Powers: Export Competition, Technology Transfer and Strategic Dependency

Pillar III — Industrial Power, Strategic Risks and the International Security Order to 2031

• Chapter 18. Global Defence Industrial Competition: Manufacturers, Supply Chains, Critical Components and Production Capacity
• Chapter 19. Economic Consequences: Military Budgets, Procurement Reform, Infrastructure Protection and Technology Markets
• Chapter 20. Military Artificial Intelligence Governance, International Humanitarian Law and Command Responsibility
• Chapter 21. Future War Scenarios: NATO–Russia, Taiwan, the Middle East and Multidomain Escalation
• Chapter 22. The Strategic Balance to 2031: Indicators, National Choices and Implications for Global Security

---

Anduril’s Ghost Shark: The Future of Undersea Autonomous Warfare

Master Strategic Abstract

The transformation of military power and the declining reliability of battlefield transparency

The international security system is entering a period in which the relationship between military power, technological superiority and operational effectiveness is being fundamentally reorganised. The capacity to discover an adversary’s position through satellites, reconnaissance aircraft, electronic intelligence and unmanned systems has expanded dramatically, but the resulting increase in battlefield visibility has not produced a corresponding certainty of military judgment. More information does not necessarily generate better decisions. When surveillance networks encounter deliberately misleading signals, electronic interference, incomplete intelligence or adversarial manipulation, the speed of the decision-making process can become a source of vulnerability rather than superiority.

This distinction has important consequences for contemporary military doctrine. Armed forces increasingly depend on interconnected systems that detect, classify, prioritise and distribute information across multiple operational levels. Artificial intelligence can accelerate these functions, particularly where large volumes of sensor data exceed the capacity of human operators. Yet this same dependence introduces exposure to false positives, degraded communications, compromised data provenance and errors that can spread rapidly through command networks. The relevant strategic objective is therefore not simply to generate more information, but to establish which information can be trusted, how confidently it can support military decisions, and whether the resulting operational picture remains reliable under deliberate interference.

The strongest military organisations will consequently require two complementary capabilities. They must protect the integrity of their own intelligence and command architecture while maintaining the ability to operate when that architecture is incomplete, delayed or temporarily unavailable. This involves electronic warfare, resilient communications, distributed command, independent verification of sensor outputs and systematic testing of autonomous systems under conditions that resemble an adversary’s actual countermeasures.

The British Strategic Defence Review published in June 2025 reflects this transition by advocating an integrated force built around conventional weapons, autonomous systems, artificial intelligence and a common digital targeting architecture. Its analysis explicitly identifies the combination of inexpensive mass-produced weapons and advanced military capabilities as a structural change in the economics of warfare.

Ukraine as the operational laboratory of industrialised autonomous warfare

Ukraine provides the most substantial publicly documented contemporary example of rapid adaptation in drone-intensive land warfare. Its experience demonstrates the operational significance of integrating unmanned systems with data collection, logistical support, electronic warfare and command-level assessment. The Ukrainian Ministry of Defence reported on 19 October 2026 that DELTA Mission Control had recorded nearly 3.6 million reconnaissance mission reports, more than 3 million strike missions, approximately 1.02 million UAV logistics missions, nearly 168,000 unmanned-ground-vehicle logistics missions and almost 500,000 aerial interception missions as of 1 October 2026. These are reported mission records rather than verified counts of distinct destroyed targets, and the categories cannot automatically be added to produce a unique platform or engagement total.

The strategic importance of these figures lies in the development of an increasingly integrated operational data architecture. Mission reporting can support the identification of effective equipment, recurring technical failures, logistical constraints and changing threats. The resulting information can influence training, procurement and technical modification, potentially shortening the interval between battlefield observation and industrial adaptation. Such a process offers a different model of capability development from traditional procurement cycles that depend heavily on fixed specifications and comparatively infrequent equipment upgrades.

A separate Ukrainian Ministry of Defence announcement on 22 September 2026 recorded the authorisation of 650 additional unmanned aerial system models since the beginning of the year, including 231 fibre-optic-controlled variants and 42 interceptor drone models. The fibre-optic systems illustrate an important countermeasure to conventional electronic interference: replacing a vulnerable radio-control link with a physical connection in certain operational applications. The solution creates different constraints involving range, cable management and logistics, but it demonstrates the capacity of technological substitution to undermine previously effective defensive methods.

Russia’s adaptation creates the opposing dimension of the same contest. Its use of massed unmanned aircraft, electronic warfare and layered strike methods requires Ukraine to distribute defensive resources across numerous potential targets. The resulting competition is not reducible to comparing the price of an attacking drone with the price of an interceptor. It encompasses the availability of sensors, the endurance of crews, the consumption of ammunition, the protection of critical infrastructure and the economic consequences of disrupted production or electricity supplies.

The critical lesson for other states is that a successful autonomous-warfare architecture cannot be acquired solely through purchases of drones. It must be sustained by an organisation capable of continuously evaluating combat outcomes and translating those evaluations into changes in technology, doctrine and industrial production.

The Escalation of Drone Warfare: From Tactical FPV Strikes in Ukraine and Lebanon to Autonomous Swarm Dominance by 2031

The United States and NATO: transforming scale into an operational advantage

The United States confronts a different structural problem. Its armed forces possess sophisticated command networks, long-range precision weapons and advanced aerospace capabilities, but those advantages must increasingly be exercised against opponents capable of deploying large numbers of comparatively inexpensive unmanned platforms. The central challenge is preserving high-end superiority without accepting an unsustainable economic exchange in which expensive defensive systems must repeatedly engage low-cost threats.

The Replicator initiative, announced during the previous US administration, was designed to accelerate the fielding of large numbers of attritable autonomous capabilities across operational domains. Its publicly declared original objective was to field multiple thousands of systems by August 2025. That programme objective should not be confused with independently established quantities delivered or operationally available. The counter-unmanned-systems strategy announced in December 2024, followed by the establishment of Joint Interagency Task Force 401 in August 2025, further illustrates the institutional effort to consolidate counter-drone responsibility and accelerate the availability of defensive technologies.

NATO has moved towards a broader multinational response. Its Drone Edge declaration of 7 July 2026 established an undertaking to invest more than USD 40 billion in counter-drone capabilities over five years and to train five times as many drone operators by the end of 2027. The alliance is also developing a counter-drone marketplace intended to improve access to tested, compatible equipment. The published commitment is a collective investment objective; it is not evidence that the entire amount has already been appropriated, contracted or disbursed.

The alliance has simultaneously begun creating technical infrastructure for faster assessment. NATO’s counter-drone testing activities in Latvia, initiated in March 2026, bring together defence manufacturers, military operators and government representatives to evaluate interceptor technologies and electronic-warfare solutions. The programme is significant because standardised testing and interoperability can reduce the risk of member states acquiring incompatible equipment, although technical compatibility alone does not establish operational effectiveness.

Europe: common threats, fundamentally different national responses

The European response remains differentiated by geography, industrial structure, fiscal capacity and strategic tradition. Germany is adapting its military organisation, France is pursuing practical counter-drone improvements within its broader defence model, Britain is advancing an integrated digital-force concept, Italy is developing capabilities across land and maritime operations, while Poland is prioritising direct protection of its territory and the alliance’s eastern flank.

Germany’s October 2026 announcement of a dedicated unmanned-systems regiment represents an organisational response rather than merely another equipment purchase. The Bundeswehr anticipates an initial force of approximately 350 personnel in 2027, expansion towards 600 personnel and full operational capability in 2029. Its planned composition includes drone defence, electronic warfare and testing functions. This structure creates the possibility of closer connections between deployment, experimentation and technical modification, although its announced future capacity must not be treated as already fielded.

France has advanced more immediate battlefield solutions, including the Proteus counter-drone system developed through its army-led innovation effort. Official French Army reporting describes a system combining a 20 mm weapon with thermal sensing, deployed with the 35th Parachute Artillery Regiment from September 2025. Its significance lies in the renewed importance of relatively economical local defence against unmanned aircraft, complementing rather than replacing longer-range air defence.

Italy’s response is particularly relevant to European industrial policy. The Italian Army identifies Rafael’s Drone Dome, the AD3S system developed through cooperation with national industry, and Leonardo’s ACUS Enhanced as components of its counter-unmanned-aircraft capabilities. The Italian Navy’s operational experimentation during 2025 also involved the integration of unmanned aerial and maritime assets into shipboard command arrangements, including testing related to counter-drone defence and sensor-data fusion. These activities demonstrate a technological foundation, while leaving an important distinction between experimentation, limited capability availability and force-wide deployment.

Poland has adopted a more territorially focused approach. Its SAN counter-drone programme, contracted in January 2026, is intended to integrate detection, tracking, identification and kinetic or non-kinetic engagement into a layered architecture. Polish government announcements identify 18 battery modules and a major role for domestic industry, with Kongsberg participating through the industrial consortium. The programme illustrates how protection against unmanned systems is becoming part of national territorial defence infrastructure rather than remaining solely a capability assigned to expeditionary military formations.

The Indo-Pacific and Middle East: different operational environments, convergent technological requirements

Japan’s modernisation illustrates the translation of lessons from drone-intensive warfare into a maritime defence strategy. Its SHIELD initiative aims to develop a layered architecture employing aerial, surface and underwater unmanned systems in support of coastal and territorial defence. The Japanese Ministry of Defense’s FY2026 budget documentation assigns approximately ¥100.1 billion to the initiative, with the objective of establishing the architecture during FY2027. The broader FY2026 unmanned-defence capability allocation is approximately ¥277.3 billion. These amounts concern different budgetary scopes and must not be treated as interchangeable.

Taiwan shares Japan’s interest in asymmetric capabilities, but its implementation depends on domestic political agreement as well as industrial capacity. An executive proposal for a special procurement programme covering domestically sourced unmanned vehicles sought a ceiling of NT$210 billion over the period extending to December 2031. Taiwan’s Ministry of National Defense subsequently stated in August 2026 that the legislature had not approved the executive’s proposed version. This episode demonstrates that strategic urgency does not eliminate budgetary and legislative constraints, and that announced capability objectives may remain contingent on political decisions.

India has accelerated its own development of counter-drone systems, electronic warfare and military surveillance. On 21 October 2026, the Indian Ministry of Defence announced an approximately ₹770 crore contract with Bharat Electronics Limited for improved low-level lightweight radars capable of detecting and tracking targets including small drones. This follows a July 2026 package of acquisition approvals covering systems that included the AKASH TARANG anti-UAV electronic-warfare capability. The approvals and the signed radar contract represent different acquisition stages.

Israel’s response is shaped by the need to intercept diverse threats within a geographically concentrated and highly contested environment. In December 2025, the Israeli Ministry of Defense and Rafael announced delivery of the first operational Iron Beam high-power laser system to the Israel Defense Forces. A further June 2026 announcement described testing involving upgraded Iron Dome capabilities and scenarios integrating Iron Beam into the wider air-defence battle-management architecture. Such developments are important for the economics of layered defence, but delivery of the first system and successful testing do not establish nationwide coverage or a fully mature production-scale deployment.

The decisive industrial and strategic problem

Across these national cases, a common industrial requirement is emerging: the ability to manufacture, maintain and continuously improve systems whose useful operational configuration may change substantially during a relatively short period. This requirement affects propulsion, batteries, optical sensors, radar components, secure communications, software, electronic-warfare equipment, semiconductors and battlefield information systems.

The traditional defence-industrial model was largely organised around expensive platforms with comparatively long development cycles. Autonomous and counter-autonomous warfare does not eliminate those platforms, but it creates a parallel requirement for equipment that is affordable, modular, replaceable and adaptable. Procurement processes must consequently distinguish between technologies requiring years of qualification and those that can be updated through controlled, relatively rapid software or component changes.

The associated strategic risk is that the countries best able to purchase advanced military equipment will not necessarily be those best able to sustain it during prolonged operations. Access to critical components, domestic production, repair facilities, technical personnel and reliable software validation could increasingly determine military endurance. Conversely, rapid innovation without adequate verification could expose forces to failures, misclassification, friendly-force incidents and legal consequences.

By 2031, the most consequential division between military powers may therefore concern institutional adaptability rather than absolute technological sophistication. States capable of combining industrial scale with reliable command, technical validation and effective operational learning will possess an advantage that cannot be measured simply by counting drones, missiles or autonomous platforms.

Key Evidence Table — Verified Developments Through 25 October 2026

Country or institution	Verified development	Reference date	Strategic significance
Ukraine	More than 3 million UAV strike missions recorded in DELTA Mission Control	1 Oct 2026	Digitised operational reporting and analysis
Ukraine	650 new UAS models codified since January	22 Sep 2026	Rapid technical diversification
NATO	More than USD 40bn counter-drone investment commitment over five years	7 Jul 2026	Collective procurement and industrial demand
Germany	New specialised drone regiment; approximately 600 personnel planned at full capability	Oct 2026	Organisational integration by 2029
Japan	¥100.1bn FY2026 allocation to SHIELD	FY2026	Layered unmanned coastal defence
Taiwan	NT$210bn proposed autonomous-vehicle procurement ceiling; executive proposal not approved	Aug 2026	Political constraint on asymmetric procurement
Poland	SAN counter-drone programme covering 18 battery modules	Jan 2026	Layered territorial and eastern-flank defence
Israel	First operational Iron Beam system delivered to IDF	28 Dec 2025	Directed-energy integration
India	₹770 crore radar procurement contract with BEL	21 Oct 2026	Small-UAV detection and domestic manufacturing
United Kingdom	Strategic Defence Review advocates high-volume autonomous systems and integrated digital targeting	Jun 2025	Long-term transformation of force design

Figures describe different administrative and operational categories, including reported missions, model authorisations, investment commitments, budget allocations, contracts, deliveries and proposed force structures. They are not directly comparable measures of military capability. Primary documentation:

Competing Strategic Pathways, 2026–2031

The central uncertainty is not whether unmanned and AI-enabled military technologies will continue developing, but which institutional and technological model will prove most sustainable under prolonged pressure.

Strategic pathway	Supporting evidence	Principal limitation	Assessment
Industrialised autonomous mass	Ukraine’s high operational volumes, NATO’s procurement ambitions and Japan’s SHIELD initiative	Mass does not guarantee survivability or operational effectiveness	Strong evidence of expanding investment and operational use
Integrated sensing and decision superiority	DELTA, British digital targeting ambitions and integrated counter-UAS architectures	Sensor reliability, communications vulnerability and data provenance	Strong strategic potential; comparative performance remains uncertain
Adaptation and countermeasure dominance	Fibre-optic drones, electronic-warfare development and layered interceptors	Repeated technical counter-adaptation and escalating complexity	Already evident as an important driver of innovation
High-cost platform persistence	Continued reliance on advanced aerospace, naval and missile-defence systems	Affordability and replacement during prolonged conflict	Likely to coexist with autonomous mass rather than disappear

These pathways are overlapping rather than mutually exclusive. A state can invest simultaneously in inexpensive autonomous platforms, advanced combat aircraft, integrated missile defence and resilient command networks. The strategic question is how these capabilities perform together when communications are degraded and operational losses exceed peacetime assumptions.

Principal Intelligence Gaps and Strategic Watch Indicators

The greatest limitation of currently available open-source evidence concerns the relationship between announced capability and demonstrated operational performance. A procurement contract can establish a government’s intention and legal commitment, but cannot establish fielded readiness. Similarly, reported interception totals cannot, without compatible definitions and independent assessment, establish the reliability of a defensive architecture across all relevant operating conditions.

The following indicators would materially influence the assessment through 2031.

Strategic indicator	What should be observed	Why it matters
Autonomous-system replacement capacity	Delivered equipment, replenishment intervals, manufacturing bottlenecks	Measures industrial sustainability
Electronic-warfare resilience	Repeated performance in realistic contested-spectrum testing	Distinguishes laboratory effectiveness from operational capability
AI-supported targeting reliability	Validation results, recorded errors, independent human oversight	Determines the reliability of accelerated military decisions
Counter-drone cost sustainability	Comparable complete engagement costs and defensive capacity	Tests economic endurance during prolonged attacks
NATO interoperability	Multinational exercises, common technical standards and integrated acquisitions	Measures coalition operational coherence
National force integration	Training completion, fielded units and exercises beyond demonstrations	Establishes institutional implementation
Critical infrastructure protection	Deployment coverage, recovery capacity and incident outcomes	Connects military modernisation with national resilience

No decision-useful quantitative visualisation is supportable from the verified record without combining incompatible budgetary, operational and procurement categories.

Preliminary Net Strategic Assessment

The evidence available through 25 October 2026 supports a significant but carefully bounded conclusion. Contemporary military development is progressing towards greater integration of autonomous platforms, digital command systems, electronic warfare and distributed sensing, while the capacity to manufacture and adapt these technologies is becoming an increasingly important component of national military power.

It does not follow that autonomy will displace conventional forces, that artificial intelligence will reliably outperform human judgment in all military settings, or that numerical superiority in inexpensive platforms will automatically overcome an advanced integrated defence. The evidence instead supports a transition towards hybrid force structures in which sophisticated conventional capabilities and mass-produced autonomous systems perform complementary functions.

For governments, the relevant policy decision is therefore not simply how much to invest in drones or artificial intelligence. It is how to organise procurement, industrial capacity, personnel, training, command authority and technical assurance so that the armed forces can continue operating effectively against an opponent capable of contesting both their physical assets and the information on which their decisions depend.

The principal strategic advantage of the next decade will belong to military organisations that can preserve decision reliability while adapting their technology and operational methods faster than their opponents can exploit their vulnerabilities.

---

---

PILLAR I — THE TRANSFORMATION OF WAR: TECHNOLOGY, DOCTRINE AND OPERATIONAL REALITY

Chapter 1. From Platform-Centric Warfare to Information-Centric Military Operations

The restructuring of military superiority: from individual weapons performance to the effectiveness of the entire combat system

The transformation now taking place in military affairs is altering the relationship between the technological sophistication of individual weapons, the organisation of armed forces and the capacity of states to convert industrial resources into operational effectiveness. For much of the post-Cold War period, modernisation programmes in the world’s principal military powers were organised around the acquisition of increasingly capable aircraft, armoured vehicles, surface combatants, submarines, precision-guided missiles and integrated air-defence systems. The strategic justification was substantial: superior sensors, extended engagement ranges, improved survivability and network-enabled coordination could allow technologically advanced forces to achieve military objectives with fewer platforms and potentially lower personnel losses. That logic has not disappeared, and high-performance conventional systems remain indispensable for functions that inexpensive unmanned platforms cannot reliably perform. What has changed is the assumption that technological superiority concentrated in a limited number of sophisticated assets can independently guarantee operational superiority against an opponent able to conduct persistent reconnaissance, exploit electronic signatures, manufacture large quantities of expendable equipment and continuously adapt its methods of attack. A formation equipped with advanced vehicles may possess considerable firepower yet remain exposed if its movements are continuously detected, its communications are disrupted, its logistics are identifiable and its defensive ammunition is consumed by comparatively inexpensive threats. Conversely, a numerically smaller or less technologically sophisticated force can impose substantial costs by connecting distributed sensors with responsive command structures and affordable weapons. The central measure of effectiveness is consequently moving beyond platform performance towards the reliability and adaptability of the entire system that discovers threats, interprets intelligence, authorises action, employs weapons and evaluates results.

This evolution is particularly significant because the increased availability of reconnaissance does not eliminate uncertainty; it changes its characteristics. The traditional military problem of acquiring sufficient information about an opponent has increasingly become a problem of distinguishing relevant information from excessive, contradictory or deliberately manipulated observations. Satellites, electro-optical payloads, synthetic-aperture radar, ground-surveillance systems, radio-frequency monitoring equipment and unmanned reconnaissance aircraft can collectively generate a volume of information that exceeds the capacity of conventional headquarters to process manually. However, the presence of a sensor observation does not necessarily establish the identity, military purpose or current operational status of the observed object. A detected radio emission might correspond to military equipment, civilian infrastructure, interference or a deliberately misleading source. Thermal observations can indicate activity without resolving the identity or intentions of the people or systems involved. A detected vehicle may already have moved by the time the information reaches a commander, while a classification produced by an automated system may be technically confident but based on inadequate contextual information. The significance of modern information-centric operations therefore lies not simply in increasing the number of sensors, but in designing decision structures capable of preserving source provenance, recognising contradictory evidence, communicating uncertainty and remaining operational when parts of the information network become unavailable.

The United Kingdom’s Strategic Defence Review 2025 provides a particularly explicit institutional expression of this doctrinal transition. Rather than treating digital systems as supplementary equipment attached to existing military platforms, it proposes an Integrated Force supported by shared data, a common digital foundation and a targeting network linking sensors, decision-makers and effectors across operational domains. The document identifies a 2027 objective for the digital targeting web and describes a development model in which conventional platforms operate alongside increasingly numerous unmanned and autonomous systems. Its proposed architecture allows, in principle, intelligence from one platform or domain to inform the employment of a different military capability, thereby reducing the dependence of a particular weapon on its own sensors. The conceptual importance is considerable because the military value of a platform becomes partly dependent on the effectiveness of the wider information network in which it participates. A reconnaissance asset that cannot itself engage a target may nevertheless contribute decisively to an operation when its information can be securely transferred to a suitable response capability. Equally, a powerful weapon may contribute relatively little when the information necessary for legitimate and effective employment arrives too late, cannot be verified or is unavailable under electronic interference. The Strategic Defence Review 2025 — United Kingdom Ministry of Defence — June 2025.

The operational consequences of persistent observation and the changing relationship between movement, protection and concealment

Persistent observation changes military operations because it can shorten the time available between an activity becoming detectable and the adversary attempting to exploit that information. Historically, armies could often move reserves, concentrate artillery, assemble engineering assets or relocate headquarters behind screening forces and terrain features, accepting that an opponent might discover these activities only after considerable delay. Contemporary reconnaissance capabilities can reduce this delay, particularly in environments where opposing forces maintain dense concentrations of unmanned aircraft and where electronically observable equipment generates repeated patterns of activity. Nevertheless, describing the modern battlefield as completely transparent would be analytically incorrect. Weather, terrain, concealment, equipment availability, sensor limitations, electronic warfare, operational distance and the competing demands placed on reconnaissance systems all create substantial gaps in observation. The important change is not that every movement is permanently visible, but that the probability of detection and the potential consequences of exposure can be sufficiently high to alter how formations are organised and employed.

This has major implications for force concentration. Armoured formations, artillery batteries, command posts, engineering equipment and logistical installations derive part of their military usefulness from their ability to operate together. Concentration provides firepower, protection, engineering support and command coherence, but it can also create detectable physical and electromagnetic patterns. Dispersion can reduce exposure to concentrated attacks, yet excessive dispersion introduces its own costs through longer supply routes, additional communications requirements, difficulties in maintaining equipment and slower coordination between units. The choice is therefore not simply between dispersing forces and accepting destruction. Military organisations must establish a workable balance between concentration, mobility, protection, communications resilience and the ability to regroup when operationally necessary. Such an approach requires commanders to understand which signatures their formations generate, how quickly those signatures can be observed and exploited, and what resources are required to preserve essential military functions during periods of disruption.

The United States Department of Defense formally recognised these pressures in its December 2024 strategy for countering unmanned systems, which identified the growing difficulty of hiding, concentrating, communicating and manoeuvring in an environment increasingly affected by affordable, networked unmanned technologies. The strategy also addressed threats to installations and personnel beyond conventional battlefields, indicating that the problem includes homeland security and the protection of military infrastructure. This is strategically significant because the same technology that threatens manoeuvre formations can also affect fixed airbases, ammunition depots, ports and command installations, where defensive responsibilities may be distributed among several military, security and civilian authorities. Department of Defense Announces Strategy for Countering Unmanned Systems — United States Department of Defense — December 2024.

The resulting doctrinal challenge involves integrating protection into the design of operations rather than treating it as an activity conducted after an operational plan has been established. Physical camouflage, electromagnetic discipline, mobility, alternative communications, defensive electronic warfare, protected logistics and appropriately controlled deception contribute to different aspects of survivability. They cannot be assumed to provide equivalent protection, nor can their benefits be evaluated independently of the adversary’s reconnaissance and engagement capabilities. A formation that reduces visible activity but continues transmitting detectable electronic signals may remain exposed, whereas a unit that minimises emissions may lose access to information necessary for coordinated manoeuvre. The strategic implication for military education is that commanders must increasingly understand the interactions between physical movement and information-system performance rather than assigning them to entirely separate technical communities.

The emergence of an operational data economy: Ukraine’s institutional experience

An especially consequential development in contemporary warfare is the emergence of operational information as an input into military procurement and industrial production, rather than merely an output of battlefield reporting. Ukraine’s DELTA ecosystem demonstrates the potential scale of this development. According to its Ministry of Defence, DELTA Mission Control recorded more than 1.8 million results of completed missions during September 2026, compared with approximately 196,000 monthly records at the beginning of the year. The reported increase reflects the expansion of the system’s use and recorded activity; it does not, by itself, demonstrate an equivalent increase in military effectiveness or combat success. Its importance lies in the possibility of connecting observations from the field to broader organisational learning, particularly where information can be classified consistently and linked to equipment types, mission environments, operational outcomes and subsequent decisions. Drone Warfare in Ukraine: What Does DELTA Record? — Ministry of Defence of Ukraine — October 2026.

The distinction between recording operational activity and extracting reliable conclusions from that activity is fundamental. A military organisation may collect millions of records and still draw misleading conclusions if the reported outcomes are incomplete, if operational definitions change or if observations from different environments are compared without adequate adjustment. Systems employed in relatively favourable operating conditions may appear more effective than those deployed against stronger electronic countermeasures, even when the latter are technically superior. Equipment that receives more frequent use may generate more recorded successes while also consuming more supplies and personnel. Similarly, a procurement system that rewards easily measurable outcomes can inadvertently discourage activities that are strategically valuable but difficult to quantify. Operational-data systems therefore require common definitions, documented data-quality rules, mechanisms for correcting reports, independent evaluation and explicit distinctions between missions attempted, missions completed, claimed effects and independently confirmed results.

Ukraine’s experience is especially relevant because data collection is becoming connected to decentralised equipment demand. In September 2026, the Ministry of Defence reported that military units had ordered more than 590,000 unmanned aerial vehicles through the government-operated Brave1 Market during the first nine months of the year. It identified interceptor systems as the most frequently ordered category, followed by copter-type first-person-view strike platforms, while noting substantial growth in demand for fixed-wing systems. Crucially, these were orders rather than verified deliveries or evidence that every system became operational. The marketplace also incorporates an incentive framework through which units receive purchasing points associated with specified military activities. This creates a potential connection between battlefield reporting, unit-level requirements and the visibility manufacturers have into demand, although the quality of the resulting incentives depends on verification and the avoidance of distorted reporting. Troops Have Ordered Over 590,000 UAVs Through Brave1 Market — Ministry of Defence of Ukraine — September 2026.

The strategic significance extends well beyond Ukraine. A procurement organisation informed by validated operational data could identify equipment that repeatedly fails in particular environments, understand which spare parts cause significant delays and revise technical requirements before weaknesses become entrenched across an entire fleet. For European and NATO defence ministries, the question becomes whether procurement regulations, industrial agreements, cybersecurity requirements and military information systems can support a comparable cycle without compromising accountability or commercial competition. Militaries need a process through which relevant battlefield observations can change industrial requirements, while also preventing suppliers or individual units from presenting incomplete performance figures as evidence of superiority. This balance between operational responsiveness and institutional verification is likely to become one of the defining elements of defence modernisation.

The reorganisation of command authority and the limits of digital centralisation

Information-centric warfare also challenges the assumption that improving communications necessarily requires centralising operational decisions. A common digital picture can enable senior headquarters to observe activities previously understood principally by subordinate commanders, potentially encouraging higher-level intervention in tactical decisions. While such intervention may be appropriate for politically sensitive operations or activities with strategic consequences, excessive centralisation risks creating bottlenecks and reducing the responsiveness of local forces. The problem is especially acute when military communications are degraded or when dispersed units must continue operating under partial connectivity. Digital transformation can therefore produce competing organisational effects: it can support greater central coordination while simultaneously making decentralised execution more valuable.

The appropriate distribution of authority depends on the mission, the expected communications environment, the reliability of the available information and the consequences of incorrect action. Where a decision requires detailed local knowledge, the ability of a remote headquarters to view a sensor feed does not automatically make that headquarters better positioned to act. Conversely, where several formations share limited defensive assets or where an engagement could have strategic consequences, local autonomy without adequate coordination may be dangerous. Modern command arrangements must preserve the ability to operate with incomplete information while establishing explicit requirements for consultation, authorisation, escalation and after-action accountability.

This produces an important institutional distinction between information availability, decision authority and weapon autonomy. A system that automatically consolidates surveillance data does not necessarily possess authority to make military decisions. A commander supported by algorithmic recommendations remains responsible for evaluating the information and applying relevant rules. An autonomous system that selects and engages targets after activation raises a different set of technical and legal questions. These categories must remain distinct if defence organisations are to make reliable judgments about technology adoption, personnel requirements and the legal responsibilities associated with operational use.

Comparative institutional models for the transition to information-centric operations

Military development model	Core organisational feature	Potential operational advantage	Principal limitation	Relevant official evidence
Integrated digital force	Common data environment connecting sensors, decision-makers and response capabilities	More flexible cross-domain coordination	Dependence on interoperable, resilient networks	UK Strategic Defence Review 2025
Continuous operational-data cycle	Digital reporting of mission outcomes and subsequent analysis	Faster institutional learning from recorded activity	Reporting quality, representativeness and incentive distortion	Ukraine DELTA Mission Control, October 2026
Distributed technology acquisition	Unit-level equipment demand communicated through a digital procurement marketplace	Closer connection between operational requirements and purchases	Orders do not establish delivery, quality or sustained effectiveness	Ukraine Brave1 Market, September 2026
Cross-domain unmanned defence	Integrated military response to diverse unmanned threats	Common protection requirements across forces and installations	Multiple authorities, technical diversity and resource competition	US Counter-Unmanned Systems Strategy, December 2024

The emerging institutional problem is therefore not whether military forces should become more digital, but which functions should be integrated, how authority should be distributed, how information should be validated and how combat units should continue operating when digital infrastructure is degraded. Investment in more sophisticated platforms cannot resolve these questions independently. The transition to information-centric military operations requires changes to operational doctrine, personnel training, software governance, procurement oversight and command culture, with success measured by demonstrated performance under adverse conditions rather than by the number of digital systems acquired.

Chapter 2. Military Deception, Electronic Warfare and the Contest for Decision Superiority

Deception as a strategic contest over the reliability of the adversary’s operational picture

Military deception is acquiring renewed significance because modern armed forces increasingly construct their understanding of the operational environment through combinations of human intelligence, technical sensors, digital networks and automated processing. Historically, deception frequently involved concealing military intentions, creating misleading impressions about force dispositions or encouraging an opponent to allocate resources inappropriately. Contemporary technology does not invalidate these principles, but it changes the environment in which they are applied. Information can now be collected and distributed through systems operating at speeds that leave limited time for independent human analysis, while a single misleading observation may be replicated across several connected applications if its provenance and reliability are not properly maintained. The strategic vulnerability is not confined to a machine incorrectly recognising an object. It also includes the possibility that human decision-makers will rely on an apparently coherent operational picture whose underlying observations are incomplete, stale, duplicated or manipulated. Modern deception must consequently be understood as a challenge to the integrity of military knowledge, rather than only as an attempt to disguise a particular physical asset.

The relationship between deception and information technology is frequently oversimplified through the assumption that automated classification systems can be reliably fooled by inexpensive imitations. There is no general basis for that conclusion. Modern detection architectures may compare optical imagery, thermal behaviour, radar returns, radio-frequency emissions, acoustic observations and historical patterns, with each information source providing opportunities for either corroboration or contradiction. A false observation that appears plausible to one sensor may be rejected when evaluated against other available information. Conversely, an operational environment affected by poor visibility, damaged infrastructure or electronic interference may prevent such corroboration and increase uncertainty. The relevant capability is therefore not merely detection accuracy under ideal conditions, but the resilience of a complete information process when an intelligent adversary attempts to influence it.

For governments assessing deception and counter-deception investments, three distinctions are essential. The first concerns concealment versus misinformation: reducing a genuine signature is fundamentally different from generating information intended to produce a false conclusion. The second concerns technical interference versus behavioural influence: a disrupted sensor or communications link does not necessarily cause the adversary to make a particular decision. The third concerns temporary tactical effects versus enduring operational advantage: causing a momentary classification error is not equivalent to altering the outcome of an operation. Without these distinctions, military organisations risk measuring the performance of isolated deception equipment while failing to establish whether the equipment materially improves force protection, operational freedom or command effectiveness.

Electronic warfare and the contest for control of the electromagnetic environment

Electronic warfare constitutes one of the most consequential technical dimensions of this contest because almost every modern military formation depends on electromagnetic activity for some combination of sensing, navigation, communications and coordination. Radar systems transmit or receive electromagnetic signals, radio networks enable distributed command, satellite-navigation receivers support positioning and timing, and many unmanned systems depend on wireless communications. Electronic warfare can interfere with these functions through a variety of mechanisms, but its effectiveness depends on the characteristics of the target system and the operational environment. A communications disruption may affect one technical architecture while leaving another unaffected; a navigation problem may impair a platform without preventing it from operating through alternative methods; and the use of electronic countermeasures can also interfere with friendly equipment or civilian services. Consequently, claims concerning electronic-warfare superiority must be evaluated against defined operating conditions and observable results rather than general assertions about the power of particular systems.

NATO’s counter-drone exercises provide evidence that the alliance is treating electronic warfare and conventional defensive weapons as complementary instruments rather than interchangeable solutions. During counter-drone training conducted in Latvia in April 2026, multinational forces practised detecting and responding to unmanned aircraft through electronic-warfare equipment and conventional weapons. The exercise reflected an operational requirement to coordinate different defensive capabilities while maintaining the ability to act when some threats cannot be defeated through interference alone. The programme also illustrates why training cannot be confined to equipment operators. Commanders must understand the operational consequences of electronic interference, the limitations of different defensive responses and the risk that measures intended to protect one formation may affect adjacent allied units. NATO Troops Take Part in Counter-Drone Training in Latvia — NATO — April 2026.

A particularly revealing technical development is the growing use of fibre-optic-controlled unmanned aircraft. On 22 September 2026, Ukraine’s Ministry of Defence announced that 231 such systems had been codified for military use since the beginning of the year. The significance is that a platform using a physical fibre-optic control connection does not depend on an ordinary radio-control link for the functions carried through that connection. This can reduce exposure to certain forms of radio-frequency interference, although it introduces different constraints involving the physical cable, platform configuration, mobility and operational environment. It does not make the aircraft universally immune to electronic warfare, nor does it eliminate vulnerabilities affecting other onboard systems. The broader strategic lesson is that a successful countermeasure can encourage the opposing side to substitute technologies, thereby changing the effectiveness of existing defensive investments. Defence Forces Arsenal Expands with 650 New Unmanned Aerial Systems — Ministry of Defence of Ukraine — September 2026.

This relationship between interference and technological substitution has major procurement implications. Defence ministries that acquire electronic countermeasures based on a narrow definition of current threats may discover that adversaries can modify communications, navigation or control arrangements more rapidly than conventional acquisition programmes can respond. The institutional solution cannot be to assume that every technical innovation will remain effective indefinitely. Instead, acquisition strategies require modularity, realistic testing against different threat configurations and a mechanism for updating systems when their operational performance deteriorates. The durability of an electronic-warfare investment should therefore be assessed partly through its capacity for adaptation and integration with other defensive capabilities, rather than exclusively through initial technical performance.

Testing the effectiveness of deception and countermeasures under realistic conditions

NATO’s establishment of specialised innovation ranges in 2026 provides a concrete indication of the growing importance of controlled testing, evaluation, verification and validation. During 9–13 March 2026, its Latvian innovation range conducted an initial campaign involving unmanned aircraft and counter-unmanned aircraft technologies. The programme brought together industry representatives, military users and government authorities to evaluate systems in conditions including interceptor activity and electronic-warfare testing. NATO also identified complementary innovation ranges addressing cyber technologies in Estonia, resilient communications through Finnish-Swedish cooperation, underwater systems in Italy and autonomous maritime capabilities in the Netherlands. The geographic and functional distribution is significant because the same technological problem can produce different operational requirements across land, maritime, communications and underwater environments. New NATO Innovation Range Starts Counter-Drone Technology Testing in Latvia — NATO — March 2026.

The strategic value of such programmes depends on whether evaluation progresses beyond basic demonstrations. A manufacturer may establish that a detector recognises a particular aircraft under controlled conditions, but operational performance also depends on the frequency of false alarms, the system’s behaviour near civilian activity, the quality of its integration with command networks and its resilience against deliberate interference. Likewise, a system capable of disrupting one communications protocol may be ineffective against another or may produce unacceptable interference with authorised users. Government purchasers therefore require testing arrangements that reflect operational diversity while protecting sensitive technical information and avoiding the accidental disclosure of vulnerabilities.

An important further distinction concerns the evaluation of deception resistance. A system may demonstrate strong accuracy when classifying ordinary test data yet perform poorly against inputs designed to resemble genuine operational information while concealing crucial differences. This does not establish that all artificial-intelligence systems are inherently unreliable. It means that testing must examine the conditions in which a model’s confidence is justified, whether its uncertainty is communicated to users and how rapidly abnormal observations can be investigated. The appropriate institutional response includes secure data management, independent evaluation, controlled software changes and procedures for suspending or restricting systems whose behaviour becomes unreliable.

Coalition interoperability and the danger of inconsistent operational information

Electronic warfare and deception create particular difficulties in multinational military operations because different states may possess different sensors, classification systems, communications protocols and rules governing the exchange of sensitive information. An observation considered reliable by one national system may arrive in another system without the original contextual data necessary for independent assessment. A defensive electronic-warfare measure employed by one force may disrupt communications used by another. Inadequate coordination can consequently create operational uncertainty even without successful enemy interference. Coalition effectiveness depends on common technical standards and the ability to exchange information without losing the details necessary to interpret it.

This issue is not resolved merely by connecting systems to a common network. Interoperability has several dimensions, including the technical ability to exchange information, the semantic ability to interpret it consistently, the procedural ability to act on it and the political authority to release particular information to partners. An alliance may achieve technical connectivity while retaining significant differences in national operational procedures or disclosure restrictions. These limitations become especially consequential when surveillance information is converted into time-sensitive military decisions.

NATO’s July 2026 Drone Edge declaration and associated procurement activity should be understood partly through this institutional requirement. The declaration commits participating allies to substantial counter-drone investment and additional training, while the proposed marketplace seeks to improve access to equipment compatible with alliance requirements. The longer-term benefit will depend on whether common evaluation and acquisition procedures produce systems capable of functioning together during demanding multinational operations. A large aggregate financial commitment establishes strategic intent, but operational integration requires sustained testing, shared procedures, trained personnel and reliable maintenance arrangements. NATO’s Drone Edge — North Atlantic Treaty Organization — July 2026.

Electronic-warfare and deception capability requirements

Capability area	Operational purpose	Essential validation question	Principal institutional risk	Relevant evidence
Electromagnetic situational awareness	Identify relevant signal activity and interference	Can observations be attributed and interpreted reliably?	Misclassification and incomplete coverage	NATO Innovation Range, March 2026
Electronic countermeasures	Disrupt susceptible hostile systems	Does the effect persist across relevant threat configurations?	Friendly-system interference and rapid obsolescence	NATO Latvia Training, April 2026
Alternative control links	Reduce dependence on vulnerable wireless functions	Which technical vulnerabilities are reduced and which remain?	New logistical and operational constraints	Ukraine UAS Codification, September 2026
Multisensor verification	Reduce reliance on single observations	Can independent evidence corroborate a classification?	Correlated sensor errors and false confidence	UK Strategic Defence Review, June 2025
Coalition information exchange	Support coordinated multinational action	Are uncertainty, provenance and classification preserved?	Incompatible systems and national release restrictions	NATO Drone Edge, July 2026
Deception-resistant decision support	Protect operational judgments against misleading inputs	Does the system identify contradictions and behave safely under uncertainty?	Automation bias and cascading errors	ICRC AI Decision-Support Guidance, October 2026

The principal doctrinal implication is that deception and electronic warfare should not be evaluated only through the immediate disruption or confusion they produce. Their strategic significance depends on whether they affect an opponent’s ability to sustain reliable operations over time, while the defending force remains capable of distinguishing real threats from misleading information. Electronic superiority is consequently a conditional and continuously contested advantage rather than a permanent technological property of any individual platform.

Chapter 3. Artificial Intelligence, Sensor Fusion and Autonomous Target Recognition

From algorithmic assistance to military decision infrastructure: the real technological transformation

The increasing integration of artificial intelligence into military operations is frequently presented as a transition towards autonomous machines independently performing tasks traditionally assigned to soldiers, intelligence analysts or commanders. This interpretation captures only part of the transformation. The more immediate and institutionally consequential development is the deployment of algorithms throughout the information processes that make military activity possible, including the analysis of imagery, correlation of radar observations, interpretation of communications data, management of logistical information, maintenance planning and prioritisation of operational reporting. These applications differ substantially in their technical requirements and legal implications. An algorithm capable of identifying recurring maintenance problems does not perform the same function as a system recommending the classification of a military object, and neither should automatically be equated with a weapon capable of independently selecting and engaging a target. The distinction matters because the value of artificial intelligence in defence is not determined exclusively by the sophistication of the underlying model, but by the reliability of the data it receives, the purpose for which it is employed, the conditions in which its results remain valid and the authority assigned to human users.

The emergence of distributed military sensor networks creates both the requirement for greater computational assistance and the conditions in which algorithmic errors may have serious consequences. Modern surveillance architectures can generate electro-optical imagery, radar detections, positional information, electronic emissions and other observations concerning a common operational environment. Sensor fusion attempts to combine these observations into information that is more useful than the individual inputs considered separately. In principle, independent sensors can compensate for one another’s limitations, providing corroboration where one source is ambiguous or temporarily unavailable. In practice, this process requires accurate timing, geographical registration, identity association and an understanding of uncertainty. Two observations that appear to concern the same object may have been collected at different times or may correspond to different objects occupying similar locations. A missing observation may indicate that a target has moved, that the sensor is unavailable or that its detection conditions have changed. Incorrectly correlating observations can create false tracks or reinforce an erroneous classification, particularly if several systems rely on the same underlying information while presenting their outputs as separate confirmation.

These technical problems become more important when algorithms accelerate the movement of information between collection and operational use. A machine-learning system may classify imagery rapidly, but a high-confidence classification does not establish that its underlying inputs were accurate, that the observed object remains in the same location or that the information supports a lawful military engagement. Statistical confidence scores are not equivalent to operational certainty, and a system’s performance on a controlled test dataset cannot establish how it will behave in every conflict environment. The central requirement is therefore a layered architecture in which data processing, source evaluation, operational interpretation and command authority remain distinguishable. Such an architecture must allow users to examine the evidence supporting a recommendation, identify meaningful uncertainty and challenge results that conflict with other information.

The International Committee of the Red Cross addressed these concerns in its October 2026 guidance on artificial-intelligence decision-support systems in armed conflict. It emphasised the importance of reliable data, rigorous testing, verification, validation, appropriate legal review, meaningful human engagement and the ability to challenge algorithmic outputs. It also identified automation bias as a specific concern: operators may place excessive confidence in technically generated recommendations even when contextual evidence justifies further examination. This is particularly important in environments where operational pressure, fatigue and high volumes of information create incentives to accept automated classifications without sufficient scrutiny. Frequently Asked Questions: AI Decision-Support Systems in Armed Conflict — International Committee of the Red Cross — October 2026.

The engineering problem: data provenance, temporal consistency and the reliability of sensor fusion

For government acquisition authorities, one of the most consequential aspects of military artificial intelligence is the quality of the information infrastructure preceding the algorithm. A modern classification model may achieve strong performance in a laboratory while remaining ineffective in practice because its inputs are incomplete, poorly synchronised, incorrectly labelled or drawn from conditions unlike those expected during military operations. The problem is particularly acute where data from different systems have been collected according to incompatible standards. National armed forces may operate equipment acquired from numerous suppliers over several decades, with distinct data formats, security requirements and software architectures. Integrating those systems requires more than creating a communications interface. The receiving system must understand what was observed, when the observation occurred, how accurate the reported position is, which transformations have already been applied and whether the observation originated from an independent source.

Temporal consistency deserves particular attention. The operational value of intelligence can decline rapidly when an object is mobile or when the observed activity is transient. An accurate classification of a vehicle made at one point in time may become operationally misleading if presented later without a clear indication of the observation’s age. Similarly, data drawn from different sensors may appear mutually reinforcing even when their observations refer to different stages of an event. Military information architectures therefore require mechanisms for preserving timestamps, recording sensor uncertainty, distinguishing original observations from subsequent interpretations and indicating when information should no longer be treated as current. These functions are not secondary administrative features; they determine whether high-speed computational analysis supports military judgment or merely accelerates the distribution of outdated information.

Data provenance presents an additional problem because the apparent independence of different information sources may be misleading. Several intelligence applications may draw from the same original sensor feed or database, resulting in multiple outputs that appear to corroborate one another without providing genuinely independent evidence. A classification system that combines these outputs without understanding their common origin can generate unjustified confidence. The problem is analogous to institutional reporting environments in which several assessments rely on a single unverified account. The solution requires traceable source relationships, transparent confidence information and evaluation methods that distinguish agreement among independent observations from the repetition of one underlying claim.

For coalition operations, these requirements become more difficult because information-sharing restrictions can remove details essential to interpretation. A receiving commander may obtain a target designation without full visibility into the observations supporting it, the processing applied or the uncertainty expressed by the originating intelligence system. Such limitations may be unavoidable for reasons of national security, but they should influence how the information is used and the level of confidence assigned to it. The strategic risk is that technical interoperability may create an appearance of common understanding while concealing substantial differences in the evidence available to participating forces.

Classification accuracy is not the same as operational or legal validity

An essential distinction in military artificial intelligence concerns the difference between identifying the physical characteristics of an object and determining its legal status or military significance in a particular situation. Computer vision may recognise that an observed object resembles a vehicle, aircraft, radar installation or person. This does not automatically establish whether the object constitutes a lawful military objective, whether it is currently being used for a military purpose or whether an attack would satisfy the applicable rules of international humanitarian law. Such determinations can depend on contextual information that is not visible to a sensor, including the purpose of an activity, the presence of protected persons and the anticipated consequences of military action.

The problem is especially important when military systems move from decision support towards autonomy in critical targeting functions. According to the ICRC’s October 2026 explanation, an autonomous weapon system is distinguished by its ability, after activation, to select and apply force to targets without further human intervention in choosing the specific target. This definition does not imply that all unmanned aircraft are autonomous weapons. A remotely piloted aircraft operated by a human who identifies the target and decides whether to fire remains fundamentally different from a weapon authorised to select and attack targets within specified parameters. Nor does the use of artificial intelligence in navigation automatically make a system autonomous in its targeting functions. These differences are essential to any credible assessment of military technology, since the presence of advanced algorithms in a platform is insufficient to establish that the platform possesses independent engagement authority. Frequently Asked Questions: Autonomous Weapon Systems — International Committee of the Red Cross — October 2026.

The distinction also changes the responsibilities of developers, procurement authorities and commanders. A system providing information to a human decision-maker should be assessed for the reliability of its recommendations and the risk that its presentation distorts human judgment. A system performing critical targeting functions autonomously requires evaluation of the conditions in which its operation remains sufficiently predictable and controllable. Where operational environments are dynamic or densely populated, contextual judgments may be especially difficult to express in the technical parameters governing autonomous behaviour. Legal obligations concerning distinction, proportionality and precautions cannot be reduced to an assumption that software accuracy is sufficient. The relevant question is whether the weapon and its intended method of use allow the responsible persons to comply with applicable law in the actual circumstances.

The development of reliable AI-assisted operations therefore requires a clear understanding of what the machine observes, what it infers, what the human authorises and what the weapon subsequently does. These are separate stages of responsibility, even when a digital system presents them within a single interface. Collapsing them into a generic concept of machine intelligence risks obscuring the limits of the evidence and undermining the accountability needed for operational decisions.

Adversarial manipulation, distribution shifts and the risk of automation bias

Artificial-intelligence systems can also become vulnerable when operational conditions differ from those represented in their training and evaluation data. This problem, commonly described as distribution shift, can arise from changes in weather, terrain, sensor performance, equipment configuration, camouflage, signal interference or the behaviour of an adversary. A model trained to recognise equipment under relatively stable conditions may encounter observations that fall outside the assumptions supporting its earlier performance. In such circumstances, an algorithm can produce confident but incorrect classifications unless its design and evaluation adequately address uncertainty.

Adversarial manipulation compounds this problem because an opposing force may deliberately alter observable characteristics or introduce misleading information. The consequences depend on how the model processes observations and what independent evidence is available. It would be unjustified to assume that a particular deception method can reliably manipulate all artificial-intelligence classifiers, just as it would be unjustified to assume that sophisticated algorithms cannot be deceived. The defensible conclusion is that military AI must be evaluated against realistic variations and deliberate interference, with procedures for detecting abnormal inputs and restricting use when reliability cannot be established.

The human dimension is equally important. An operator who repeatedly receives technically accurate recommendations may become less inclined to question later outputs, even when the underlying circumstances have changed. A commander facing significant time pressure may interpret a numerical confidence value as authoritative without understanding its statistical meaning. Poorly designed interfaces can reinforce this tendency by highlighting a single classification while making uncertainty, provenance and alternative interpretations difficult to inspect. Training programmes must therefore include the limitations of algorithms, the consequences of incomplete data, procedures for challenging automated results and the circumstances in which independent verification is essential.

The resulting acquisition requirement is substantially more demanding than ordinary software functionality testing. It encompasses data governance, operational validation, human-machine interaction, cybersecurity, model updates and the preservation of records sufficient to evaluate errors after operations. These requirements may increase initial development costs, but they also reduce the risk of purchasing systems whose apparent performance cannot be reproduced under realistic conditions.

Government procurement implications: distinguishing five levels of machine capability

Technology category	Principal military function	Evidence required for credible evaluation	Main operational risk	Human responsibility
Automated data processing	Organise and distribute observations	Data integrity, completeness, timing and repeatability	Propagation of incorrect or outdated information	Supervision of data quality and use
AI-assisted recognition	Identify patterns or classify observed objects	Representative datasets, independent testing and uncertainty measures	Misclassification and poor generalisation	Interpret output and determine its relevance
Multisensor fusion	Correlate observations from different sources	Provenance, timing, correlation accuracy and degraded-mode testing	False corroboration or incorrect track association	Evaluate the resulting operational picture
AI decision support	Recommend priorities, assessments or courses of action	Operational validation, explainability appropriate to use and human-factor testing	Automation bias and overreliance	Retain relevant decision authority
Autonomous critical targeting functions	Select and apply force after activation within defined conditions	Predictability, controllability, technical assurance and legal review	Unintended engagements and unlawful effects	Authorisation, legal compliance and accountability remain human responsibilities

This framework also provides a practical basis for distinguishing national investment priorities. A state may possess significant capabilities in automated intelligence processing while remaining cautious about autonomous weapon engagement. Another may prioritise robotics and navigation while lacking an integrated data environment across its armed forces. A third may invest heavily in advanced models but fail to secure access to the specialised data, personnel and testing environments needed to validate them. Comparing these states solely through reported artificial-intelligence expenditure or the number of announced autonomous platforms would therefore produce a misleading assessment of military capability.

The industrial implications of trustworthy military AI

The defence-industrial consequences of artificial intelligence extend beyond software development. Reliable deployment depends on processing hardware, secure communications, storage infrastructure, specialist engineering, cybersecurity and the capacity to manage software updates throughout equipment service lives. Some applications require computationally intensive central processing, while others must function at the tactical edge with restricted energy supplies, limited connectivity and demanding environmental conditions. These architectures generate different supply-chain and maintenance requirements. A system dependent on permanent high-bandwidth connectivity may perform effectively at a fixed installation but become unsuitable for a dispersed unit operating under electronic interference. Conversely, an autonomous platform designed to function locally may face constraints on computing power, data availability and the complexity of algorithms that can be supported within its physical configuration.

The relevant industrial question is therefore how defence ministries should balance specialised military technology with commercially available components and software. Commercial innovation can shorten development cycles and expand the pool of suppliers, but military integration requires additional assurance concerning security, technical compatibility, resilience and the availability of replacement components. Dependence on a single software provider or proprietary data environment can create long-term constraints analogous to dependence on a sole-source supplier of conventional equipment. Governments consequently need to preserve access to operational data, define clear interfaces, establish appropriate intellectual-property arrangements and ensure that critical military functions do not become impossible to maintain when commercial products change.

The decisive finding of this chapter is that artificial intelligence will create its greatest institutional value where it strengthens the reliability and usefulness of military information, rather than where it is simply used to automate decisions. A technically sophisticated algorithm embedded in an unreliable information architecture may increase operational risk, while a more limited system supported by representative data, transparent limitations and trained users can deliver greater practical utility. The strategic competition in military artificial intelligence is therefore also a competition over data quality, validation capacity, organisational discipline and the governance of critical decisions.

Chapter 4. The Economics of Attrition: Industrial Scale, Disposable Systems and Defensive Sustainability

The changing economic structure of modern military operations

The proliferation of comparatively inexpensive unmanned systems is challenging established assumptions about the relationship between military expenditure and operational advantage. Traditional defence economics has often prioritised the quality, durability and performance of platforms whose acquisition costs are high but whose operational utility is expected to extend across many years or decades. This remains rational for complex capabilities that cannot be replicated by simpler equipment, including advanced combat aviation, major naval platforms, strategic surveillance systems and sophisticated integrated air defence. However, conflicts involving large numbers of inexpensive autonomous or remotely operated systems introduce a different economic requirement: the ability to sustain substantial rates of equipment consumption, replace losses and continually modify technology in response to emerging countermeasures. A state may own highly sophisticated military systems yet face operational constraints if the quantities of weapons, spare parts or affordable defensive equipment available are insufficient for the tempo of a prolonged conflict.

The problem is especially visible in the economics of protection against unmanned threats. An attacking system does not need to be as technologically sophisticated as the defensive architecture confronting it. It may create operational costs through repeated air-defence alerts, temporary interruption of activities, expenditure of defensive ammunition, increased personnel requirements or damage to infrastructure if it penetrates existing defences. Nevertheless, the frequent comparison between the price of a low-cost drone and the price of a sophisticated interceptor is only a starting point. It does not capture the full economic consequences of an engagement. A defensive system may protect infrastructure whose potential loss would greatly exceed the cost of interception, while a cheaper defensive method may be unsuitable against particular targets or operational conditions. The relevant comparison concerns the cost and effectiveness of the complete defensive response, including detection, classification, engagement, personnel, maintenance, replenishment and the consequences of any failure.

This distinction has important implications for government budgeting. If a defence ministry evaluates procurement solely through individual unit prices, it may underestimate the expense of sustaining operations and overestimate the value of apparently inexpensive technologies. An unmanned aircraft’s purchase price does not include all the costs associated with operator training, communications, payloads, spare parts, batteries, maintenance, transportation, attrition and technical modification. Equally, a high-end defensive missile should not be judged exclusively against the price of the threat it destroys. Its employment may be economically justified when the expected damage prevented is substantial and no suitable alternative is available. Rational procurement requires an assessment of cost per operationally useful effect, with careful distinction between expenditure, delivered capability and independently established performance.

Ukraine’s 2026 procurement and technological diversification as evidence of a new production model

Ukraine’s defence procurement experience illustrates the relationship between technological diversification and the institutional pressures created by sustained operations. On 22 September 2026, its Ministry of Defence reported the codification and authorisation of 650 new unmanned aerial systems since the beginning of the year. The published categories included 238 strike copter models, 231 fibre-optic-controlled variants, 42 interceptor drones, 32 middle-strike aircraft and nine deep-strike aircraft. These figures describe authorised system types within specified categories, not the number of platforms produced, delivered or used in combat. They should therefore be interpreted as evidence of design diversification and administrative authorisation rather than direct measures of combat power. The reported predominance of Ukrainian-made systems is nevertheless significant because it indicates a substantial domestic role in the country’s rapidly changing technological requirements. Defence Forces Arsenal Expands with 650 New Unmanned Aerial Systems — Ministry of Defence of Ukraine — September 2026.

The industrial implications are substantial. A system of this kind can create demand for smaller manufacturers specialising in individual technologies, while also increasing the administrative burden associated with qualification, component standardisation, logistics and interoperability. Technological diversity can reduce dependence on a single platform type and allow relatively rapid responses to new operational requirements, but excessive diversity can complicate maintenance, operator training and access to replacement parts. The economic challenge is therefore to encourage competition and experimentation without allowing fragmentation to undermine industrial scale or the reliability of supply.

A related issue concerns the distinction between production capacity and realised output. A manufacturer may possess the facilities necessary to produce a specified number of drones under ideal conditions while remaining constrained by the availability of imported electronics, batteries, specialist components or sufficiently trained personnel. A government may place a substantial order without ensuring the financing, quality control or logistical arrangements required for timely delivery. Conversely, a smaller manufacturer may demonstrate strong technical performance but lack the working capital necessary to expand production. Assessing defence-industrial readiness consequently requires information about contracts, manufacturing throughput, component inventories, acceptance testing, deliveries, repairs and actual availability at operational units.

The September 2026 Brave1 Market figures offer a different perspective on the same problem. More than 590,000 unmanned aerial vehicles had been ordered through that channel during the first nine months of the year. This figure establishes substantial procurement demand within a specific purchasing mechanism, but it cannot be treated as the country’s total drone production or total national procurement. Nor can it be directly compared with the 650 codified systems, since one figure concerns ordered units and the other concerns authorised models. Such differences are particularly important when evaluating official announcements from different countries, where military budgets, industrial output, procurement commitments and delivered equipment are frequently presented together without sufficient clarification. Troops Have Ordered Over 590,000 UAVs Through Brave1 Market — Ministry of Defence of Ukraine — September 2026.

Industrial bottlenecks: why inexpensive equipment does not guarantee inexpensive military capability

The production of comparatively simple unmanned systems can rely on commercial supply chains and manufacturing technologies less specialised than those needed for major military platforms, but this does not eliminate strategic industrial dependencies. Electronic components, sensors, propulsion equipment, secure communications devices and energy-storage systems remain subject to variations in global availability, quality, production concentration and export restrictions. Where manufacturers depend on common suppliers for critical components, nominally diverse production capacity may conceal a shared vulnerability. Several companies may assemble different aircraft using the same imported flight-control hardware or communications subsystem, creating a common point of failure across otherwise separate programmes.

Quality assurance also becomes more important as production volumes increase. A small proportion of defective components can generate substantial losses when equipment is manufactured and employed at scale. In military applications, failures may involve premature loss of communications, reduced endurance, malfunctioning sensors or unreliable navigation. Such problems can reduce operational availability even when production statistics appear strong. A government seeking rapid procurement must therefore preserve mechanisms for technical acceptance, failure analysis and supplier accountability, while avoiding qualification processes so slow that they prevent necessary adaptation.

Working capital presents a further constraint. Manufacturers may receive orders that exceed their ability to finance inventories, expand facilities or employ specialist personnel before payment. This is especially relevant for smaller technology companies entering defence procurement from commercial markets. Long payment cycles and uncertain contract schedules can limit output even where the underlying technology is relatively mature. Conversely, excessively large advance commitments without appropriate production monitoring can expose governments to delivery delays, quality problems and financial losses. Effective industrial mobilisation consequently requires a combination of dependable demand, transparent contractual obligations, staged acceptance and access to financing suited to the production cycle.

The development of modular equipment can mitigate some of these constraints by allowing manufacturers to substitute approved components without redesigning entire systems. However, modularity must be demonstrated through technical compatibility and controlled testing rather than assumed from marketing descriptions. Different sensors or communications modules may change electrical requirements, weight distribution, software behaviour or electromagnetic characteristics. A modular procurement framework must therefore specify interfaces and acceptance criteria while preserving enough flexibility for incremental improvement.

The economics of defensive ammunition and layered interception

The increasing diversity of unmanned threats creates a strong argument for layered defensive architectures. A system designed to defeat large aircraft or sophisticated missiles may not be the economically optimal choice against every small unmanned target, while a low-cost defensive weapon may lack the range, reliability or engagement characteristics necessary to protect important infrastructure against more demanding threats. Different interception methods therefore occupy different positions within an integrated defensive architecture, including electronic interference, conventional gun systems, short-range interceptors, specialised counter-drone platforms and advanced missile systems. Directed-energy technologies may eventually affect the economics of some engagements, but their operational usefulness depends on factors including available power, atmospheric conditions, target characteristics, system availability and integration with the wider defence network.

The economic value of a layered architecture depends on the ability to select an appropriate response without creating an unacceptable risk of failure. A defender may conserve expensive interceptors by assigning simpler threats to lower-cost systems, but this requires sufficiently reliable classification and effective command coordination. The potential savings are not automatic: additional defensive layers introduce procurement, maintenance, personnel and integration costs of their own. The correct assessment compares alternative architectures over a relevant operating period and across a realistic distribution of threats, rather than comparing the cheapest advertised unit prices of individual weapons.

NATO’s July 2026 commitment to invest more than USD 40 billion in counter-drone capabilities over five years illustrates the scale of financial resources being directed towards these requirements. The alliance simultaneously announced plans to expand operator training and facilitate access to tested and compatible systems. The commitment is strategically important because counter-drone defence is no longer treated solely as a specialised tactical requirement. It is becoming a recurring element of national and collective defence expenditure, with implications for domestic manufacturing, acquisition policy and infrastructure security. However, the amount is an announced collective investment commitment, not an independently established total of completed expenditure, and its significance will depend on the allocation of resources among systems, training, integration and sustainment. NATO’s Drone Edge — North Atlantic Treaty Organization — July 2026.

A procurement framework for evaluating sustainable military capability

A rigorous economic assessment of autonomous and counter-autonomous equipment should incorporate the full lifecycle and operational context of the capability under consideration. The following framework identifies the most relevant variables without assigning unsupported numerical values.

Economic dimension	Required measurement	Why conventional unit-price comparisons are insufficient	Government decision relevance
Acquisition	Contracted unit cost, included equipment and contractual conditions	Prices may omit control equipment, payloads or services	Budget approval and supplier comparison
Production	Actual throughput, accepted units and component constraints	Nominal factory capacity does not establish output	Industrial mobilisation and supply security
Deployment	Transport, installation, integration and operator preparation	Equipment may require substantial additional infrastructure	Operational planning and programme budgeting
Operational availability	Serviceable units and time available for intended missions	Delivered inventory is not equivalent to usable capability	Force readiness assessment
Reliability	Failures under representative conditions and corrective maintenance	Low purchase price can conceal high failure costs	Qualification and contract performance
Defensive effectiveness	Verified outcomes against defined threat categories	Engagement claims may use different definitions	Layered defence allocation
Replenishment	Replacement lead times, reserve stocks and manufacturing continuity	High initial inventory can mask inadequate endurance	Prolonged-conflict sustainability
Adaptability	Cost and time required for approved technical modification	Rapid obsolescence can shorten useful equipment life	Modular procurement and upgrade planning
Personnel	Training, staffing and specialist maintenance requirements	Unmanned does not mean personnel-free	Military workforce planning
Strategic exposure	Dependence on foreign components, export authorisations and concentrated suppliers	Market availability can change during conflict	National industrial resilience

The table highlights why the economics of attrition should not be reduced to the pursuit of the lowest possible platform cost. A state that acquires very inexpensive equipment but cannot maintain it, replace losses or verify its effectiveness may achieve less operational value than a state purchasing a smaller number of more reliable systems within a sustainable industrial framework. Equally, a force that relies exclusively on highly sophisticated equipment may encounter unacceptable replenishment delays and expenditure during a prolonged conflict. The appropriate balance depends on the military functions required, the threat environment, the availability of industrial resources and the consequences of equipment failure.

Defence spending as an industrial-policy choice

The shift towards scalable autonomous capabilities also changes the relationship between defence ministries and national industrial policy. Traditional procurement frequently concentrates expenditure among a limited number of major contractors capable of managing complex programmes, extensive certification requirements and long-term support obligations. Emerging unmanned technologies create opportunities for smaller firms specialising in electronics, robotics, software, sensors, communications and specialised manufacturing. This can expand competition and increase the rate of innovation, but it also creates pressure to redesign procurement arrangements around shorter development cycles and more frequent technical evaluation.

For European governments, the challenge is especially important because domestic technological capacity is distributed across national industrial ecosystems with different strengths. Some countries possess major aerospace and defence-electronics manufacturers, while others have specialised robotics, software or advanced-component industries. A coordinated procurement environment can potentially generate economies of scale, reduce duplication and provide manufacturers with a more predictable demand signal. However, national preferences, export-control requirements, security classifications and differences in technical standards may obstruct cross-border production and support arrangements. The financial advantages of cooperation must therefore be weighed against the administrative complexity involved in establishing common specifications and supplier responsibilities.

A durable procurement strategy also needs to distinguish equipment intended for relatively stable requirements from technologies subject to rapid countermeasure adaptation. Major platforms and safety-critical systems may require extended qualification and lifecycle support, whereas some software-defined capabilities and modular components can benefit from more frequent controlled updates. Applying the same acquisition cycle to every technology can create inefficiency in both directions: complex systems may be introduced before adequate testing, while relatively mature improvements may be delayed unnecessarily.

The principal economic conclusion is that the decisive resource in prolonged autonomous warfare is not simply expenditure or manufacturing volume. It is the ability to maintain a continuous relationship between operational requirements, dependable production, equipment validation, replenishment and technical improvement. Industrial resilience becomes a military capability in its own right, and its effectiveness should be assessed through demonstrated output and sustainability rather than procurement announcements alone.

Chapter 5. The Evolution of Warfare Across Land, Air, Maritime, Space and Cyber Domains

Multidomain military operations: a transformation driven by interdependence rather than technological convergence alone

The integration of autonomous technologies into modern armed forces is altering operational relationships across land, air, maritime, space and cyber environments, but these changes are not occurring uniformly. Each domain has different physical constraints, communications requirements, logistical burdens and operational purposes. Land forces must operate amid terrain, obstacles, civilian infrastructure and dispersed formations. Air operations involve different combinations of speed, range, sensor coverage and defensive vulnerability. Maritime forces confront the scale of oceanic operating areas, the characteristics of surface and underwater communications, and the importance of ports and shipping routes. Space capabilities provide navigation, timing, communications and observation services that support activities across multiple domains, while cyber operations affect the information systems on which both military and civilian infrastructure depend. Autonomous technologies can influence every one of these environments, but the operational value of a particular system depends on how its technical characteristics correspond to the requirements of the domain in which it is employed.

This distinction is important because discussions of multidomain warfare sometimes imply that digital integration can eliminate the practical differences between operating environments. In reality, the effective coordination of military activities across domains requires a greater understanding of those differences, not their disappearance. A communications architecture suitable for airborne systems may not function underwater. A sensor designed to track aircraft may provide limited information about small surface objects or targets concealed by terrain. A maritime platform may remain at sea for extended periods but require substantial maintenance infrastructure when it returns to port. Similarly, the ability to obtain satellite imagery does not guarantee continuous observation of a specific location or establish the real-time status of an identified object. The strategic benefit of multidomain integration arises when complementary capabilities compensate for one another’s limitations and provide commanders with a more reliable basis for action.

The institutional challenge is particularly pronounced because national armed forces have traditionally organised significant parts of their doctrine, procurement and personnel systems around separate services. While joint operations have long existed, the increasing dependence on shared information and communications creates more direct consequences when technical systems are incompatible or operational responsibilities are insufficiently coordinated. A modern military formation may require information originating from several services, but a common operational picture can only be effective when its observations are current, appropriately classified and available to the authorities responsible for decisions. The United Kingdom’s Strategic Defence Review explicitly recognises this requirement through its proposed digital targeting web, while NATO’s exercises increasingly address the interoperability of sensors, command systems and defensive technologies. These developments indicate that multidomain integration is becoming a matter of institutional engineering as well as operational doctrine. The Strategic Defence Review 2025 — United Kingdom Ministry of Defence — June 2025.

Land warfare: persistent surveillance, mobility restrictions and the resilience of ground formations

Land warfare is experiencing some of the most visible consequences of the proliferation of unmanned systems because tactical reconnaissance and precision attack can now be conducted through equipment available in greater quantities and at lower unit costs than many traditional military platforms. The result is a change in the conditions under which ground forces move, assemble, maintain logistics and employ supporting weapons. Armoured vehicles, infantry formations and artillery remain essential for tasks that require physical control of territory, sustained firepower, protection and the ability to operate in complex environments. Nevertheless, these forces face a more demanding requirement to coordinate mobility, protection, engineering support and reconnaissance, particularly where opposing forces maintain repeated aerial observations of roads, supply points and potential assembly areas.

The effect on logistics is especially important. Ground operations depend on the movement of fuel, ammunition, spare parts, medical supplies and personnel, and these activities often create observable patterns. The introduction of unmanned logistical platforms can potentially reduce human exposure during certain transport tasks, but it does not eliminate the physical requirements of supply. Equipment must still be loaded, maintained, protected and delivered to usable locations, while unmanned vehicles can face difficulties associated with terrain, obstacles, weather and communications. The presence of autonomous or remotely operated equipment should therefore be evaluated in terms of its contribution to the functioning of an entire logistics system rather than as a direct replacement for every conventional transport activity.

Ukraine’s reported employment of unmanned ground vehicles for logistics provides evidence that this operational category has progressed beyond isolated demonstration. DELTA Mission Control recorded nearly 168,000 unmanned-ground-vehicle logistics missions from the system’s active rollout in March 2026 through 1 October 2026. The figure establishes substantial reported activity within a defined information system, but it does not identify the total mass transported, the proportion of deliveries completed successfully, the personnel exposure avoided or the equipment losses incurred. Those additional variables would be required to assess the overall operational and economic effectiveness of robotic logistics against conventional alternatives. Drone Warfare in Ukraine: What Does DELTA Record? — Ministry of Defence of Ukraine — October 2026.

The most significant long-term implication for land forces is the growing need to design formations capable of functioning under recurrent surveillance and intermittent communications. This affects vehicle design, field engineering, force protection, equipment distribution and tactical command arrangements. Greater reliance on robotic systems may reduce personnel exposure in some activities, but it can simultaneously increase demand for technically qualified maintainers, equipment recovery capabilities and reliable energy supplies. Ground forces will therefore need to assess whether unmanned equipment provides a measurable improvement in operational endurance and mission effectiveness, rather than assuming that the substitution of machines for personnel automatically produces a more capable formation.

Air warfare: from traditional air superiority to the management of heterogeneous aerial threats

The aerial domain presents a different set of challenges because armed forces must increasingly distinguish between sophisticated combat aircraft, cruise missiles, conventional reconnaissance drones, expendable strike aircraft and small unmanned systems operating at different speeds, altitudes and ranges. These threats cannot all be addressed effectively through a single defensive technology. Systems designed to engage high-performance aircraft may possess capabilities unnecessary for some small drones, while counter-drone equipment optimised for short-range defence may be unable to defeat faster, more distant or more demanding threats. Modern air defence consequently requires the coordination of multiple detection and engagement capabilities, with command systems capable of assigning appropriate responses while maintaining protection against more sophisticated attacks.

The economic consequences are particularly important for states exposed to repeated aerial threats. Defence authorities must determine not only which weapons can technically intercept an incoming target, but which combination of detection, classification and engagement systems provides sustainable protection over prolonged periods. This requirement involves maintaining adequate stocks, ensuring operational availability and preventing a defensive architecture from becoming excessively dependent on a limited number of expensive engagement mechanisms. The introduction of relatively affordable interceptor drones and alternative defensive technologies can expand available options, but their suitability must be demonstrated under the conditions in which they are expected to operate.

A further operational challenge concerns airspace management. Military activities may occur near civilian aviation routes, populated areas, transport infrastructure and critical national facilities. Defensive actions must therefore account for the possibility of misidentification, unintended effects and interference with authorised users. The problem becomes more complicated when many objects are simultaneously detected or when electronic interference reduces confidence in positioning and identification. Integrated air defence requires a reliable understanding of what is present in the airspace, which authorities may act and how military responses can be coordinated without generating additional hazards.

For governments, this points towards a requirement for layered defence architectures accompanied by appropriate legal authority, operator training and technical standards. The central procurement challenge is not to identify one universally superior counter-drone weapon, but to construct a sustainable system capable of responding proportionately and effectively to diverse aerial threats while remaining compatible with national and allied command structures.

Maritime warfare: unmanned systems, fleet protection and the security of strategic infrastructure

Maritime operations are undergoing a substantial technological transformation because unmanned systems can contribute to surveillance, mine countermeasures, environmental monitoring, infrastructure inspection and other activities traditionally requiring crewed vessels or specialised personnel. Surface and underwater platforms present different opportunities and constraints. An unmanned surface vessel may exploit communications and navigation technologies similar to those used in other maritime systems, whereas an underwater vehicle operates in an environment where conventional radio-frequency communications are severely constrained and where navigation and data exchange often require alternative technical arrangements. These differences affect endurance, command authority, maintenance and the ability to integrate unmanned platforms into fleet operations.

The strategic significance is particularly pronounced for countries dependent on maritime trade, energy imports, port infrastructure and undersea communications. The protection of naval bases and commercial ports increasingly requires attention to threats that may be difficult to identify through traditional large-platform surveillance methods. Undersea infrastructure also presents a distinct security problem because damage to cables or other installations may produce economic consequences disproportionate to the cost of the activity responsible. However, attributing an incident to deliberate hostile action requires evidence concerning the circumstances and mechanism of damage. The mere presence of an unmanned platform or an interruption of service is not sufficient to establish responsibility.

NATO’s March 2026 announcement concerning its network of innovation ranges included an underwater testing environment in Italy and a shallow-water autonomous-maritime range in the Netherlands. These facilities reflect differing technological requirements within the maritime environment, where system evaluation must account for water conditions, navigation limitations, underwater sensing and the protection of relevant infrastructure. Their institutional significance lies in providing environments in which equipment can be assessed before broad procurement decisions, rather than allowing technical claims to substitute for demonstrated performance. New NATO Innovation Range Starts Counter-Drone Technology Testing in Latvia — NATO — March 2026.

An additional example comes from NATO’s Dynamic Guard 2026 exercise in the Mediterranean. According to the alliance, ships from Greece, Italy and Türkiye participated in training addressing defence against drones, missiles and aircraft in a contested electronic-warfare environment. The exercise, reported on 1 October 2026, examined how multinational naval forces could maintain effective operations where conventional communications might be compromised. Its significance is not that it establishes an enduring technological solution to every maritime threat, but that electronic resilience and unmanned-system defence are increasingly treated as integral components of fleet operations. NATO Allies Test Drone Defences at Sea — NATO — October 2026.

For Italy, France, the United Kingdom and other European maritime powers, these developments also create industrial opportunities in naval electronics, underwater robotics, autonomous navigation, communications and infrastructure monitoring. However, the strategic value of such programmes depends on their integration with existing naval organisations and their ability to deliver reliable services under demanding operating conditions. Procurement must distinguish between systems designed for controlled inspection activities and those expected to function in contested environments, where endurance, communications limitations and the consequences of equipment loss differ substantially.

Space: the strategic dependence on satellite navigation, communications and observation

Space-enabled services are foundational to modern military operations because they support positioning, navigation, timing, long-distance communications, weather observation and several forms of intelligence collection. Their importance extends beyond dedicated military satellites. Commercial and civilian infrastructure may provide essential services to military organisations while also supporting transport, telecommunications, energy systems and public administration. This interdependence creates both operational advantages and strategic vulnerabilities, since interference affecting shared services can produce consequences outside the immediate military environment.

Global Navigation Satellite Systems are particularly important because positioning and timing information support a wide range of digital functions. Interference with these services can affect aircraft, ships, ground transport and infrastructure systems, although the severity of the consequences depends on the availability of alternative navigation and timing arrangements. The European Space Agency addressed the growing problem of satellite-navigation interference in an August 2026 publication, identifying the importance of detecting jamming and spoofing and improving resilience. ESA reported that more than 10,000 ships worldwide had been affected by malicious interference during the second quarter of 2025, approximately eight times the figure reported for the preceding quarter. These figures concern reported interference affecting maritime navigation services, not the number of confirmed military attacks or deliberate incidents attributable to a particular state. No Signal Left Behind: New Ways to Detect Jamming and Spoofing — European Space Agency — August 2026.

The distinction between jamming and spoofing is operationally important. Jamming can prevent or degrade the reception of legitimate signals, potentially causing receivers to lose reliable positioning or timing information. Spoofing involves the reception of misleading signals that can cause a system to calculate incorrect information. The consequences differ because a receiver that recognises the loss of a reliable signal may be able to report degraded conditions, whereas a receiver accepting misleading information can continue operating on an erroneous basis. Effective resilience therefore requires more than access to additional satellite services. It may involve independent verification, appropriate receiver design, alternative navigation arrangements and procedures for recognising when positioning or timing information cannot be trusted.

The strategic consequences are especially significant for Europe, where maritime trade, aviation, electricity infrastructure and telecommunications rely extensively on satellite-enabled services. Military planners must consider how defence requirements intersect with civilian resilience, particularly in regions where electronic interference may affect several states simultaneously. A system designed exclusively around military requirements may overlook the economic consequences of broader service disruption, while civilian infrastructure protection may require coordination among regulators, transport authorities, telecommunications providers and national security institutions.

Space resilience should consequently be understood as a national infrastructure requirement as well as a military capability. Governments need mechanisms for detecting interference, evaluating its effects, communicating relevant warnings and sustaining essential services where satellite information becomes unreliable. The industrial implications include receiver technology, independent timing systems, secure communications and verification tools, with particular importance for countries possessing substantial aerospace and satellite-navigation industries.

Cyber operations: the integrity of military information systems as an operational requirement

The cyber domain is increasingly inseparable from conventional military operations because armed forces rely on digital systems for intelligence analysis, command communications, equipment maintenance, logistics, procurement and personnel administration. Cybersecurity failures can consequently affect operational effectiveness even when weapons and physical platforms remain intact. A compromised logistics database may create incorrect expectations about equipment availability, while the loss of communications services can delay operational coordination. A system whose data integrity cannot be assured may become difficult to use safely, irrespective of its nominal computing capability.

Cyber threats also differ from physical attacks in important respects. Their effects may be difficult to attribute, their technical pathways can involve civilian infrastructure or commercial suppliers, and their consequences may remain undiscovered for significant periods. A vulnerability affecting one commonly used software component can create exposure across several organisations, while an otherwise secure military system may depend on supporting services outside direct military control. These conditions place substantial importance on software maintenance, supplier assurance, network segmentation, controlled access and the ability to continue essential operations during disruption.

The United Kingdom’s Strategic Defence Review identifies cyber and electromagnetic operations as central to the functioning of the Integrated Force, explicitly connecting military effectiveness with secure digital infrastructure and the ability to operate in contested information environments. This position reflects a broader institutional reality: a modern military’s operational capabilities cannot be separated from the reliability of the technical systems that support them. The requirement is not simply to prevent every cyber incident, which cannot be guaranteed, but to ensure that critical functions remain recoverable and that compromised information can be identified before it produces wider operational consequences. The Strategic Defence Review 2025 — United Kingdom Ministry of Defence — June 2025.

For military artificial intelligence, this creates an additional dependency on the integrity of data pipelines and software supply chains. A model may perform correctly according to its design while producing incorrect outputs because its inputs have been altered or because an upstream data source is compromised. Protecting the model alone is therefore insufficient. Defence organisations require an end-to-end understanding of information provenance, system permissions, software updates and the relationships between critical applications. They must also preserve procedures for operating without particular digital services when necessary, since the ability to recover from disruption is an important component of operational resilience.

Cross-domain operational dependencies and infrastructure exposure

Domain	Principal transformation	Critical technological dependencies	Main operational constraint	Wider national security consequence
Land	Increased use of unmanned reconnaissance, precision attack and robotic logistics	Local sensing, secure communications, navigation, power supply and equipment maintenance	Terrain, mobility, physical supply and connectivity	Greater pressure on transport corridors, logistics and infrastructure protection
Air	More diverse aerial threats and layered defensive requirements	Radar, electro-optical sensors, command systems, interceptors and spectrum management	Target identification, airspace coordination and defensive endurance	Protection of population centres, airports, energy facilities and strategic installations
Maritime surface	Expansion of remotely operated and autonomous maritime functions	Maritime sensors, navigation, secure communications, propulsion and port support	Sea conditions, endurance, legal jurisdiction and fleet integration	Security of shipping, ports and offshore installations
Underwater	Broader use of autonomous inspection, surveillance and specialised naval systems	Acoustic sensing, underwater navigation, energy storage and platform recovery	Limited communications and complex environmental conditions	Subsea infrastructure resilience and maritime security
Space-enabled services	Greater dependence on navigation, timing and remote observation	Satellites, ground segments, receivers, communications links and independent verification	Interference, service availability and vulnerability of shared infrastructure	Economic exposure across transport, telecommunications and energy
Cyber	Expanding dependence of military operations on software and digital information	Secure networks, trusted software, identity management, data provenance and recovery	Compromise of information integrity and availability	Potential disruption of government, industry and civilian infrastructure

The comparison demonstrates that national security exposure increasingly extends beyond the inventories of individual armed services. Ports, communication networks, satellite-navigation infrastructure, industrial software and energy systems can become relevant to military endurance because armed forces rely on them for sustained operations. This does not mean that all civilian infrastructure becomes a lawful military target. It means that defence planning must recognise the practical dependencies connecting military activities with the wider national economy, while preserving the legal protections applicable to civilians and civilian objects.

International humanitarian law and the limits of cross-domain technological integration

The development of autonomous and digitally integrated military systems also raises legal and institutional questions that cannot be resolved through technical performance alone. Military operations remain subject to applicable international humanitarian law, including the requirements governing distinction, proportionality and precautions in attack. These obligations do not cease to apply because information is processed by artificial intelligence or because a weapon operates with significant autonomy. The relevant legal responsibilities depend on the circumstances of use, the design and predictability of the system, and the decisions made by the persons responsible for authorising and conducting operations.

The ICRC’s October 2026 guidance emphasises that increasingly complex autonomous weapons can create difficulties in predicting and limiting their effects, particularly where systems operate over broader geographical areas, against more diverse targets or in changing environments. It calls for legally binding international rules prohibiting certain categories of autonomous weapons and restricting others. These proposals represent the ICRC’s institutional position and should not be confused with an already universally adopted treaty establishing all the proposed prohibitions. Nevertheless, they highlight a material concern for governments: technological innovation can create capabilities faster than existing acquisition, review and operational procedures are able to evaluate their consequences. Frequently Asked Questions: Autonomous Weapon Systems — International Committee of the Red Cross — October 2026.

The problem becomes more complicated in integrated operations where observations originating from one domain inform decisions taken in another. An intelligence system may provide a technically accurate observation without establishing the wider context necessary for a lawful decision. A military organisation must therefore maintain procedures through which relevant information, uncertainty and legal considerations reach the authorised decision-maker. Speed can be operationally valuable, but it does not remove the requirement for appropriate judgment. Indeed, faster information processing can increase the importance of sound authorisation procedures because errors may propagate across connected systems before they are recognised.

For states modernising their armed forces, the practical requirement is to integrate legal review, technical validation and human accountability from the earliest stages of development. Retrofitting these controls after a system has entered operational use can create additional technical and institutional costs. A procurement architecture that establishes clear requirements concerning predictability, supervision, operational restrictions and auditability can support both legal compliance and operational confidence.

The evolution of multidomain warfare to 2031

The direction of technological development through 2031 is likely to involve greater numbers of unmanned systems, more extensive use of artificial intelligence in information processing, increased investment in electronic resilience and broader experimentation with the integration of conventional platforms and autonomous equipment. However, the pace and operational consequences will differ substantially across domains. Land warfare may continue to generate rapid changes because relatively small unmanned systems can be developed, tested and replaced through comparatively short cycles. Maritime and underwater systems may face longer development and evaluation requirements because their operating environments place different demands on endurance, navigation and recovery. Air defence will remain constrained by the need to respond to a heterogeneous set of threats, while space-enabled services and cyber infrastructure will require sustained attention to resilience and the protection of shared civilian-military dependencies.

The principal strategic uncertainty concerns how effectively national institutions will translate technological progress into dependable operational capability. Individual demonstrations may show impressive technical performance without establishing the capacity for sustained military employment. Procurement announcements may identify substantial financial commitments without demonstrating that equipment has been delivered or integrated. Military exercises may validate specific functions under controlled conditions without reproducing every aspect of prolonged operations against an adaptive opponent. These limitations do not diminish the importance of the developments identified, but they require governments to distinguish consistently between technological potential, verified performance and operational readiness.

For NATO and European governments, multidomain integration will also involve the distribution of responsibilities between national armed forces, multinational commands, defence manufacturers and civilian infrastructure authorities. The security of a maritime communications system may depend on commercial operators, while the resilience of military satellite navigation may be affected by equipment standards and the quality of civilian interference reporting. Advanced defence systems may rely on semiconductors, software or precision components whose supply chains extend across several jurisdictions. National sovereignty over military decisions therefore coexists with extensive international technological and industrial interdependence, creating a requirement for coordinated policy rather than isolated equipment acquisition.

Strategic implications for defence planning and national resilience

The first implication is that governments should evaluate multidomain military effectiveness at the level of complete operational functions rather than individual equipment categories. A surveillance system produces limited value if its information cannot be securely distributed, while an advanced response capability may remain underused if the relevant information is unavailable or arrives too late. Procurement should therefore identify the dependencies necessary for a capability to perform its intended mission and establish which institutions are responsible for sustaining them.

The second implication concerns industrial resilience. Multidomain forces require components and services originating from different technology sectors, including aerospace, telecommunications, precision manufacturing, software, energy storage and maritime engineering. Dependence on these sectors creates opportunities for national technological development but also vulnerabilities where critical suppliers are geographically concentrated or difficult to replace. Defence-industrial policy should therefore distinguish strategically essential capabilities from those that can be obtained reliably through diversified international procurement, avoiding both unnecessary duplication and excessive dependence.

The third implication involves the protection of civilian infrastructure. Modern armed forces increasingly rely on transportation networks, digital communications, energy systems and satellite-enabled services that also support national economic activity. A disruption to these systems can have military consequences without being directed exclusively at military installations. National resilience consequently requires cooperation among defence ministries, regulators, infrastructure operators and industrial authorities, with clear arrangements for exchanging relevant information and sustaining essential services.

The fourth implication concerns personnel and institutional competence. Autonomous systems do not eliminate the need for trained military personnel; they change the distribution of skills required. More extensive digital integration can increase demand for systems engineers, electronic-warfare specialists, software assurance personnel, technically qualified maintainers and commanders capable of interpreting incomplete or conflicting information. These requirements affect military education, recruitment, retention and cooperation with civilian industry. A state that acquires sophisticated equipment without sustaining the personnel necessary to operate and evaluate it may fail to realise its intended operational value.

The fifth implication is that force modernisation must preserve flexibility. Technological developments can alter the relative value of existing systems, while adversaries can change their equipment and operating methods in response to successful countermeasures. Defence organisations should therefore avoid acquisition structures that assume future operating conditions will remain identical to those observed during the initial development of a capability. Controlled experimentation, modularity, realistic operational evaluation and documented procedures for technical modification will be important mechanisms for adapting without sacrificing safety, interoperability or accountability.

Pillar I — Consolidated Technical and Strategic Judgments

The five chapters establish a common conclusion while addressing distinct dimensions of the transformation. Modern military effectiveness increasingly depends on a state’s ability to connect technological capability with reliable information, defensible decision-making, industrial sustainability and resilient operations. This does not constitute the disappearance of conventional military power. Advanced aircraft, armoured formations, naval combatants, missile systems and traditional logistics remain necessary for many military purposes. The transformation concerns the conditions under which those assets can be employed effectively and the wider systems necessary to protect and support them.

The following table consolidates the assessment into distinct institutional decision requirements without assigning arbitrary scores or speculative probabilities.

Structural transformation	Established direction of change	Principal strategic exposure	Government priority	Evidence needed to demonstrate success
Information-centric operations	Increased importance of connected sensors, shared data and operational reporting	Unreliable information and excessive centralisation	Resilient digital infrastructure and clear command authority	Demonstrated operational performance under degraded connectivity
Electronic warfare and deception	Greater competition over communications, detection and information integrity	Countermeasure adaptation, interference and classification errors	Multisensor verification and realistic electromagnetic testing	Repeatable outcomes across representative threat conditions
Military artificial intelligence	Expanded use of algorithms in classification, analysis and decision support	Automation bias, poor data quality and unpredictable system behaviour	Independent validation, appropriate human oversight and legal review	Documented reliability within clearly defined operating limits
Industrialised attrition	Increased importance of affordable equipment, replenishment and rapid modification	Production bottlenecks, quality failures and unsustainable expenditure	Lifecycle procurement and secure supply chains	Accepted deliveries, availability, replacement capacity and verified effects
Multidomain integration	Greater dependence between land, air, maritime, space and cyber functions	Cascading disruptions and incompatible systems	Interoperability, decentralised resilience and infrastructure protection	Joint operational testing and sustained mission availability

Final Assessment: The Changing Foundations of Military Power

The transformation of warfare is creating a strategic environment in which states must manage two competing requirements. On one side, military effectiveness increasingly depends on integrating information, computing resources, sensors and operational systems so that decisions can be supported by timely and relevant evidence. On the other, greater integration can generate shared vulnerabilities, particularly where critical communications, data services or components become unavailable. Successful military modernisation must therefore combine integration with resilience, rather than treating connectivity and autonomy as inherently beneficial in every operational circumstance.

The evidence available through 25 October 2026 indicates that this transformation is already influencing military doctrine, equipment acquisition, industrial production and international defence cooperation. The British Strategic Defence Review provides a documented institutional model for digitally integrated force development. Ukraine’s operational reporting and procurement systems demonstrate how large volumes of military activity can become inputs into technological adaptation, while also illustrating the necessity of distinguishing administrative data from independently established combat effectiveness. NATO’s testing arrangements and investment commitments reveal the growing importance of interoperability and affordable protection against unmanned threats. European satellite-navigation initiatives show how the consequences of electronic interference extend into civilian infrastructure and the wider economy. The development of military artificial intelligence, meanwhile, confirms that technical innovation must be accompanied by reliable validation and legal responsibility.

The broader historical significance lies in the changing relationship between military technology and state capacity. A defence establishment can possess advanced equipment without having the industrial resources necessary to replace losses, the institutional flexibility required to update vulnerable systems or the information architecture needed to employ its capabilities effectively. Conversely, rapid technological adaptation cannot compensate indefinitely for inadequate logistics, insufficient personnel or unreliable command arrangements. The decisive strategic requirement is therefore the coordinated development of military capability across procurement, industrial policy, operational doctrine, technical assurance and national infrastructure.

By 2031, the most durable military advantage is likely to belong to states that can preserve effective command and operational continuity while absorbing technological disruption, replacing consumed equipment and integrating new capabilities without compromising the reliability of their decisions. That advantage will not emerge automatically from the acquisition of artificial intelligence, autonomous platforms or advanced electronic systems. It will depend on institutions capable of converting technological possibilities into verified, sustainable and legally accountable military performance.

The analysis of these technological and institutional foundations provides the basis for examining the distinct responses of individual military powers, their industrial structures, alliance obligations and national strategic constraints.

---

PILLAR II — GLOBAL MILITARY POWERS AND NATIONAL STRATEGIC RESPONSES

Chapter 6. Ukraine and Russia: Operational Adaptation, Industrial Mobilisation and the Eastern European Battlefield

Ukraine’s transformation from an externally supplied military force into an increasingly diversified wartime industrial system

The military competition between Ukraine and Russia has produced one of the most consequential reorganisations of defence production, technology adoption and operational learning in modern European history. For Ukraine, the strategic problem is no longer limited to acquiring sufficient quantities of conventional weapons from foreign partners. It involves constructing an industrial system capable of generating equipment continuously, modifying designs in response to changing battlefield requirements and reducing exposure to interruptions in international military assistance. The country’s defence-industrial transformation is significant because it is occurring while the armed forces remain engaged in prolonged, high-intensity operations, creating immediate pressure to reconcile rapid innovation with production quality, financial sustainability and logistical standardisation. The resulting model differs from conventional peacetime procurement, in which military authorities often establish detailed equipment requirements years before the systems enter service. Ukrainian manufacturers operate within a more compressed process where operational feedback influences successive technological configurations, while the state seeks to establish purchasing mechanisms that make demand visible to industry and enable military formations to obtain equipment suited to their requirements.

The scale of industrial change is illustrated by the figures published by Ukraine’s Ministry of Defence in 2026. The ministry reported that specialised defence companies had increased from fewer than ten in 2022 to approximately 1,500 in 2026, with around one-third specialising exclusively in unmanned systems. It also reported drone production increasing from several thousand units in 2022 to approximately 4 million in 2025, while setting an objective exceeding 7 million in 2026. These figures should be interpreted according to their documentary categories: the 2025 quantity is a ministry-reported production result, while the 2026 quantity is an industrial objective rather than independently confirmed completed output. The contrast nevertheless identifies a major change in the composition of Ukraine’s military economy, particularly the growing involvement of smaller technology manufacturers and the integration of commercial electronics, software development and specialised assembly into national defence production. The Ministry of Defence’s separate statement that 95% of the drones procured through its Defence Procurement Agency were domestically manufactured further demonstrates the country’s ambition to capture a substantial proportion of this expenditure within its own industrial base. That percentage applies to a defined procurement channel and cannot automatically be extended to every unmanned system acquired by the Ukrainian armed forces. Combat Experience and Technological Adaptability: Ukraine’s Contribution to Shaping New Defense Standards — Ministry of Defence of Ukraine — 2026; 95% of Drones Procured for the Defence Forces Are Ukrainian-Made — Ministry of Defence of Ukraine — June 2026.

A second and less immediately visible transformation concerns the composition of procurement itself. On 26 May 2026, the Ukrainian Ministry of Defence reported deliveries of approximately 485,000 unmanned aircraft and other equipment worth UAH 31.4 billion through DOT-Chain Defence. The ministry described a marketplace offering nearly 800 equipment items supplied by more than 200 Ukrainian manufacturers. The aggregate delivery figure includes equipment other than UAVs, and therefore cannot be used as an exact drone-delivery total. Nevertheless, it provides evidence that Ukraine is attempting to change the institutional relationship between military users and suppliers. Rather than requiring every technical demand to pass exclusively through traditional central procurement procedures, the mechanism allows eligible military units to select equipment while the Defence Procurement Agency manages contracting, payments and delivery oversight. The ministry reported an average interval of nine days between an order and the receipt of an item already in stock. That figure should not be interpreted as a universal manufacturing lead time, since it concerns available inventory. Its significance is institutional: the government is attempting to shorten the distance between operational requirements and procurement execution while retaining a formal state purchasing structure. Nearly Half a Million UAVs and Other Equipment Delivered to the Military Through DOT-Chain Defence — Ministry of Defence of Ukraine — May 2026.

The central vulnerability of this model is that rapid expansion can generate fragmentation. A national industrial system with hundreds of competing manufacturers may acquire considerable technological flexibility while also producing difficulties involving components, technical documentation, operator training, repair arrangements and long-term supplier solvency. Models that perform satisfactorily in one operational environment may require modification when electronic interference, terrain or adversary equipment changes. The state must therefore avoid confusing the number of authorised designs with industrial depth or delivered combat capability. In October 2026, Ukraine’s Ministry of Defence reported 1,678 newly codified weapons and equipment models since the beginning of the year, of which 1,530, or 91.2%, originated from Ukrainian manufacturers. This administrative result is significant as evidence of rapid domestic technological development; it does not establish that 1,678 distinct capabilities were manufactured at scale, supplied to units or independently validated in sustained combat. Ministry of Defence Has Codified More Than 1,500 Ukrainian-Made Weapon and Equipment Models Since the Start of the Year — Ministry of Defence of Ukraine — October 2026.

Russia’s strategic response: sustained pressure, industrial endurance and the limits of public evidence

Russia approaches this competition from a different economic and strategic position. Its larger national territory, established conventional defence-industrial base, domestic ammunition production and capacity to sustain significant state-directed expenditure provide resources that differ materially from Ukraine’s industrial structure. Russian military adaptation also occurs within a broader political economy in which defence production, sanctions exposure, imported components and competition for skilled labour influence the ability to sustain operations. The country’s strategic objective has been to maintain pressure against Ukrainian military formations and infrastructure while compelling Ukraine and its international supporters to devote substantial resources to protection, repair and replenishment. Massed aerial attacks contribute to this objective because the defender must maintain surveillance, interceptors, personnel and infrastructure-protection arrangements across a large geographical area.

Russian military activity has accelerated the development of alternative Ukrainian defensive technologies and contributed to the reorganisation of allied procurement. Ukraine’s February 2026 statements identified the expansion of Russian cruise-missile, ballistic-missile and attack-drone production and employment as a principal reason for prioritising air defence, national UAV production and long-range ammunition. These are Ukrainian government assessments of the adversary’s capabilities and requirements; they should not be confused with an independently audited inventory of Russian production. The distinction is important because operational observations, intelligence estimates, announced factory capacity and actual annual deliveries are not equivalent measures. A defensible comparison of Russian and Ukrainian industrial endurance would require compatible evidence concerning accepted production, losses, repair rates, component inventories and financial obligations, much of which is not comprehensively available in the public record. Sergiy Boyev at OFDEF Conference: Air Defense, Drones, and Extended-Range Munitions Among Ukraine’s Top Priorities for 2026 — Ministry of Defence of Ukraine — 2026.

Russia’s technological adaptation must also be understood in relation to the broader strategic importance of electronic warfare. Systems dependent on conventional radio-frequency control and satellite navigation face different vulnerabilities from systems using alternative communication architectures. Electronic interference can reduce the utility of some equipment, but it also encourages changes in hardware, software and operating practices. Consequently, an advantage achieved through a successful countermeasure may weaken when the opponent introduces a different technical configuration. The resulting contest places substantial pressure on military research organisations and defence manufacturers because equipment must be modified without undermining reliability or creating logistical complexity that exceeds the benefits achieved.

The wider economic exposure is considerable. A state seeking to maintain high military production while financing prolonged operations must allocate resources among personnel, ammunition, industrial capital, infrastructure, social expenditure and other government commitments. Defence manufacturers may receive strong state demand but encounter constraints involving imported machinery, electronic components, skilled workers or financing. Restrictive measures imposed by foreign governments can affect the availability and cost of certain inputs, although a restriction’s existence does not establish that all prohibited goods have ceased reaching their intended users. Russia’s industrial resilience should therefore be evaluated through observable production, equipment availability and the functioning of supply chains rather than assumed either to be unlimited or on the verge of failure.

Ukraine’s external industrial partnerships and the geographical redistribution of defence production

An important development in 2026 is the movement towards joint production arrangements in which Ukrainian technological expertise is combined with the financial resources and manufacturing environments of partner countries. On 27 April 2026, Ukraine and Norway announced an agreement to establish joint production of Ukrainian-designed mid-range strike drones in Norway, with several thousand systems planned for manufacture and delivery to Ukrainian forces. The Ukrainian Ministry of Defence stated that the project would receive Norwegian financing additional to previously allocated defence assistance. The agreement is significant because it identifies a potentially more durable model than the straightforward export of finished military equipment: technology developed under wartime conditions can become the basis for manufacturing within allied countries, supporting Ukraine while also developing local industrial experience. Nevertheless, the number announced concerns planned production, not confirmed completed deliveries. Ukraine and Norway Launch Joint Production of Mid-Strike Drones — Ministry of Defence of Ukraine — April 2026.

This model presents several policy questions. Governments must determine how intellectual property is allocated, which authorities supervise production, how components are sourced and whether industrial facilities will remain economically viable when immediate wartime demand changes. They must also establish whether joint production programmes serve exclusively current Ukrainian requirements or could create a longer-term supply base for participating countries. The latter possibility is strategically relevant because European militaries are seeking access to equipment validated in demanding operational environments, while Ukrainian manufacturers may require predictable financial resources and secure production locations.

The development of joint production also introduces a new dimension into European defence-industrial sovereignty. Sovereignty cannot be measured solely by whether final assembly occurs within a national jurisdiction. It depends on control over essential technologies, access to critical components, maintenance capability, production rights and the political conditions governing supply. A joint facility may strengthen industrial security even when a design originates abroad, provided the participating governments establish dependable arrangements for access and long-term support. Conversely, nominally domestic production can remain vulnerable if a small number of foreign suppliers control indispensable subsystems.

Ukraine–Russia comparative assessment: political economy and operational endurance

Indicator	Ukraine	Russia	Analytical significance
Industrial development model	Rapid diversification of domestic suppliers and digital procurement channels	Established defence-industrial base under prolonged wartime demand	Different strengths in flexibility, established capacity and replacement
Published drone-production information	Ministry-reported 4 million produced in 2025; target above 7 million in 2026	No directly comparable independently verified 2026 output established here	Claims cannot support a precise bilateral production ratio
Procurement evidence	485,000 UAVs and other equipment delivered through DOT-Chain, reported May 2026	Fragmented publicly accessible procurement and industrial reporting	Administrative transparency affects the reliability of comparison
Domestic technology authorisation	1,530 Ukrainian-made equipment models codified by 25 September 2026	No compatible public series established for the same definition and period	Different reporting categories prevent numerical ranking
Financial exposure	Dependence on domestic revenue and substantial external military assistance	Prolonged allocation of state resources to military production and operations	Both face sustainability constraints, through different mechanisms
External industrial relationships	Joint production and technology partnerships, including Norway	Supply-chain relationships influenced by sanctions, trade controls and external procurement	Geographical distribution affects production resilience
Principal military-industrial risk	Funding continuity, production scaling and component standardisation	Sustaining production and technical adaptation under resource and supply constraints	Operational endurance depends on realised output, not nominal capacity

The Ukrainian numerical observations derive from the Ministry of Defence’s 2026 industrial assessment, DOT-Chain delivery record and October codification update. The table deliberately avoids inventing a Russian production figure to manufacture a numerical comparison.

The consequential judgment is that the Eastern European military balance cannot be assessed solely through territorial changes, announced equipment numbers or individual technological successes. The sustainability of operations depends on the relationship between state finances, industrial output, military personnel, equipment replacement and external assistance. Ukraine has developed important mechanisms for accelerating technological adoption and broadening domestic production, while Russia retains substantial resources and the ability to sustain prolonged military pressure. Neither advantage operates independently of logistics, industrial bottlenecks and the political decisions governing the continuation of the conflict.

Chapter 7. United States: Autonomous Mass, Joint Command Systems and Indo-Pacific Military Competition

American military transformation and the strategic requirement to reconcile technological superiority with operational quantity

The United States is confronting a fundamental tension between a defence model built around highly capable and technologically sophisticated platforms and the growing requirement to sustain operations against opponents able to deploy numerous relatively inexpensive military systems. American military superiority has long depended on advanced aviation, intelligence capabilities, global logistics, sophisticated naval forces, precision weapons and command networks capable of supporting operations at considerable distance from the continental United States. These strengths remain strategically significant, particularly in the Indo-Pacific, where the distances involved, the requirements of maritime operations and the possibility of sustained competition against a major military power create demands that small unmanned platforms cannot independently satisfy. Nevertheless, the proliferation of affordable autonomous systems raises questions about the quantity of deployable military capabilities, the ability to replace equipment losses and the economic sustainability of defensive engagements. The American challenge is therefore not to abandon advanced conventional systems but to construct an industrial and operational balance in which sophisticated platforms can be supplemented by affordable equipment without generating incompatible architectures or excessive maintenance burdens.

The Pentagon’s Replicator initiative provided an early institutional response to this challenge by seeking to accelerate the fielding of large numbers of attritable autonomous systems. Its original public objective was to field multiple thousands of such systems within an accelerated timeframe. This target represented an acquisition and deployment ambition, not proof that the desired quantity had been delivered and made operational by the stated deadline. The important institutional development was the attempt to create a procurement pathway outside the slowest elements of traditional major-platform acquisition, while encouraging technologies that could be produced in sufficient numbers to influence operational planning. This approach is particularly relevant to a potential Indo-Pacific contingency because substantial geographical distances, contested logistical routes and the possibility of losses could place exceptional demands on replenishment.

The American response has subsequently broadened beyond autonomous platforms themselves. In August 2025, the Department of Defense established Joint Interagency Task Force 401 to strengthen the national response to unmanned aerial threats. The institutional logic is significant because counter-drone protection involves military bases, domestic infrastructure, regulatory authorities, intelligence organisations and civilian security responsibilities. A fragmented system in which different agencies procure incompatible detection equipment or maintain unclear authorities could undermine the effectiveness of investments. A joint interagency structure creates the possibility of more coherent requirements, though establishing an organisation does not in itself demonstrate that the underlying technical and legal coordination problems have been resolved.

The Indo-Pacific problem: distance, logistics and the requirements of maritime-industrial endurance

American autonomous-warfare policy must be understood within the geography of the Western Pacific. In a European land conflict, military equipment may move across established road and rail networks, although those networks remain vulnerable to disruption. In the Indo-Pacific, sustained operations may require equipment, fuel, munitions and maintenance support to cross substantial maritime distances, with aircraft and naval vessels dependent on dispersed bases, ports and logistics installations. The introduction of autonomous platforms can increase the number of available sensors and effectors, but it does not remove the need for transport, repair and supply infrastructure. A military force built around expendable systems may consequently exchange one form of scarcity for another if replacement units, batteries, specialist components or deployment equipment cannot arrive at the required locations.

The requirement for an integrated operational architecture is therefore especially demanding. Long-range surveillance systems, maritime patrol aircraft, space-enabled communications, naval forces, electronic-warfare platforms and unmanned systems must operate together across an environment where information links may be contested. In addition, the United States must coordinate with allies whose equipment, communications procedures and national rules governing military operations may differ. The value of American technological investments will depend partly on whether those partnerships produce operationally usable interoperability, rather than merely compatible procurement ambitions.

The American strategic choice also has an industrial-policy dimension. A defence procurement model concentrated exclusively among large contractors may struggle to exploit innovation originating in commercial robotics, software and electronics. Conversely, rapid acquisition from newer technology firms can generate risks involving financial sustainability, supply-chain provenance, cybersecurity and the ability to maintain systems over time. The Department of Defense must therefore develop procurement arrangements in which smaller suppliers can compete without bypassing essential technical and legal assurance.

China as the principal reference point for American force modernisation

The 2025 US Department of Defense report on military and security developments involving China identifies the People’s Liberation Army’s growing interest in military artificial intelligence, unmanned systems and technologically enabled operations. Importantly, the report distinguishes between advertised technological ambitions and current verified capabilities. It notes that several Chinese systems presented as AI-enabled still depended on human operators for target preprogramming, remote operation or substantial mission inputs. This distinction is analytically important for American planning because it cautions against equating a public demonstration or industrial announcement with operationally mature autonomous military capability. Annual Report to Congress: Military and Security Developments Involving the People’s Republic of China 2025 — United States Department of Defense — December 2025.

The central American requirement is to translate investments in autonomy into an operational architecture suitable for contesting a sophisticated adversary rather than merely increasing the quantity of unmanned equipment. This entails maintaining sufficiently reliable information systems, preserving human command authority, protecting logistical access and integrating new equipment with existing aviation, naval and land-force structures. The success of this transition should be measured through acquisition outcomes, demonstrated military exercises and sustained operating capacity, not through programme names or projected procurement totals.

Chapter 8. China: Intelligentised Warfare, Military-Civil Fusion and the Taiwan Strategic Equation

China’s military modernisation and the ambition to integrate technological development with national industrial power

China’s approach to advanced military technology reflects its broader ambition to connect economic development, industrial capacity and national strategic objectives. The People’s Liberation Army has invested in information-enabled operations, unmanned systems, space-related capabilities and emerging military applications of artificial intelligence within an institutional environment shaped by the country’s large domestic manufacturing base and extensive civilian technology industries. This structure potentially offers advantages in the availability of electronics, communications equipment, manufacturing expertise and commercially developed software, but the conversion of these resources into reliable military capability requires additional processes involving certification, information security, operational integration and military training. Large civilian technology markets do not automatically generate mature military systems, particularly when military equipment must operate under conditions involving deliberate interference and physical attack.

The concept often translated as intelligentised warfare is important because it links technological modernisation with the aspiration to employ information and automated analysis more effectively throughout military operations. However, it should not be interpreted as proof that the PLA has already achieved fully autonomous command or reliable machine-controlled targeting across its forces. The US Department of Defense’s December 2025 assessment explicitly notes the distinction between Chinese demonstrations of developmental systems and the operational maturity of their advertised autonomous functions. This includes publicly displayed unmanned aircraft concepts, collaborative aviation systems and technologies intended to improve navigation or coordination. Some capabilities remain developmental, while others involve narrower forms of automation than the terminology used in public presentations might suggest. Annual Report to Congress: Military and Security Developments Involving the People’s Republic of China 2025 — United States Department of Defense — December 2025.

The principal industrial implication concerns the relationship between technological scale and military assurance. China’s extensive manufacturing sector can support substantial output in selected categories, but the performance of advanced systems depends on more than final assembly. Critical components, software, specialised sensors, communications resilience and operational evaluation influence whether technologies can be fielded effectively. The concept of military-civil fusion aims to reduce institutional barriers between civilian innovation and defence requirements, but its effectiveness cannot be assessed simply by counting civilian technology companies or military research initiatives. Reliable evaluation requires evidence of procurement, accepted systems, operational exercises and sustained serviceability.

Taiwan and the operational consequences of a maritime-centred contingency

The Taiwan security equation gives China’s autonomous military development a particularly important geographical dimension. A contingency involving Taiwan would differ substantially from the Ukrainian land war because maritime access, air defence, naval operations, civilian shipping and geographically constrained logistics would have central significance. The availability of unmanned reconnaissance and strike platforms could affect the distribution of surveillance and military effects, but these systems would still operate within a wider environment shaped by conventional naval forces, combat aviation, missile systems, information networks and the ability to sustain operations across water. Neither mass-produced unmanned aircraft nor sophisticated artificial intelligence would eliminate the requirements associated with maritime transportation, force protection and command coordination.

For Beijing, technological developments that improve surveillance and precision capabilities can support different strategic purposes, including deterrence, coercive military demonstrations and the preparation of possible military contingencies. However, intentions cannot be established solely from equipment development. The same class of technology may support multiple operational concepts, and the precise role envisaged by military planners may not be fully available through public documentation. The appropriate assessment therefore separates observed procurement and development from possible employment pathways, avoiding deterministic claims that the acquisition of a particular autonomous system makes military conflict inevitable.

For Taiwan and its international partners, the relevant concern is how Chinese technological development interacts with existing military capabilities and the geography of the surrounding maritime environment. Distributed defence, resilient communications, infrastructure protection and the ability to maintain essential services become particularly important where a more powerful opponent may attempt to apply sustained pressure. The strategic balance depends not on one technological category but on whether each side can preserve operational continuity while influencing the other side’s freedom of action.

China–United States capability comparison: what the public record establishes

Analytical dimension	United States	China	Limitation of comparison
Strategic operating environment	Global military commitments and Indo-Pacific alliance requirements	Regional military priorities alongside broader national strategic ambitions	Different missions generate different capability requirements
Autonomous systems	Replicator and multiple service-specific programmes	Military and commercial development of unmanned and AI-enabled platforms	Programme announcements do not establish deployed quantities
Defence-industrial structure	Major defence contractors and expanding commercial technology participation	Large manufacturing ecosystem and military-civil integration policies	Civilian industrial capacity is not directly equivalent to military output
Command integration	Established joint-force structures and technology modernisation programmes	PLA modernisation and information-enabled operational ambitions	Classified performance and operational readiness remain difficult to compare
Regional logistics	Dependence on long-distance support and allied facilities	Greater geographical proximity to a Taiwan contingency	Geography influences requirements but does not determine outcomes
Main uncertainty	Ability to field affordable capabilities at scale while sustaining high-end systems	Operational maturity, validation and integration of advertised emerging technologies	Publicly available evidence is insufficient for a definitive ranking

The comparison does not support a categorical conclusion that either country possesses comprehensive superiority in autonomous warfare. It instead identifies different strategic advantages and vulnerabilities. The United States has extensive experience in joint operations and sophisticated military systems but must reconcile affordability, quantity and global logistical obligations. China benefits from substantial manufacturing resources and geographical proximity to important regional contingencies but faces its own requirements for operational integration, dependable systems and sustained military readiness. The interaction between these models will be a central determinant of Indo-Pacific security.

Chapter 9. NATO and the European Union: Collective Defence, Interoperability and Industrial Sovereignty

The emergence of two complementary but institutionally distinct European defence architectures

Europe’s defence transformation is increasingly organised through two structures that pursue related security objectives but exercise different powers. NATO provides the collective-defence and military-planning framework within which allied forces establish operational requirements, conduct exercises and prepare for combined military activities. The European Union exercises a different set of competences, including industrial policy, financial instruments, market regulation and certain defence-industrial coordination mechanisms. This distinction is important because the effectiveness of European military modernisation depends on whether investments financed or facilitated through EU institutions correspond to requirements that military authorities can integrate into credible national and allied capabilities. The European Union cannot simply be treated as a single national defence ministry, while NATO’s operational coordination does not automatically create the industrial capacity needed to manufacture equipment at the scale and speed demanded by contemporary threats.

The European Commission’s Security Action for Europe (SAFE) instrument provides up to €150 billion in long-maturity loans intended to support defence investment and encourage joint procurement. According to the Commission, 19 member states had submitted defence investment plans, while the instrument includes a requirement that at least 65% of relevant component costs originate within the EU, Ukraine or eligible European Economic Area and European Free Trade Association countries. The geographic origin requirement is strategically significant because it connects military acquisition with industrial location and supply-chain policy. The distinction between loans and grants is equally important: the SAFE envelope is not an unconditional transfer of €150 billion from the EU budget to defence manufacturers. Participating states retain repayment obligations, and financial allocations must be translated into projects, contracts, deliveries and operationally usable equipment. SAFE — Security Action for Europe — European Commission.

NATO’s July 2026 Ankara summit introduced further commitments that must be understood within this institutional division. NATO reported more than €50 billion in new procurement deals announced during the summit’s defence-industry forum, an additional €27 billion investment in fuel infrastructure, and allied pledges of €70 billion in military equipment, assistance and training for Ukraine in 2026, with an equivalent level of support pledged for 2027. These figures describe different commitments and should not be added together as if they represented a single new annual defence budget. The fuel initiative is particularly relevant because sophisticated weapons and autonomous equipment remain dependent on physical infrastructure, fuel storage and distribution networks. Improving access to operational technology without ensuring that military formations can move, refuel and sustain themselves would produce an unbalanced form of readiness. Secretary General on the Ankara Summit: NATO Delivers — NATO — July 2026.

From national procurement to multinational production

The most difficult question for European governments concerns the relationship between industrial sovereignty and multinational procurement. A defence-industrial policy that places overwhelming emphasis on national production can preserve selected domestic capabilities but may also fragment demand across manufacturers producing similar equipment in quantities too small to achieve economies of scale. Conversely, common procurement may reduce duplication but introduce difficulties concerning national security restrictions, export authorisations, industrial workshare and control over critical intellectual property. The challenge is particularly acute for software-defined equipment, electronic-warfare systems and unmanned platforms whose technical configuration can change more rapidly than traditional multinational procurement programmes.

An effective European industrial model therefore requires more than the declaration of common procurement objectives. Governments must establish shared requirements where operationally appropriate, identify technologies that require national control, agree on access to technical information and create procurement arrangements that preserve competition without undermining the continuity of supply. Common standards are useful only when they can be translated into equipment that military units can operate, maintain and update. A fragmented collection of national systems may fulfil domestic industrial objectives while failing to provide the interoperability needed for multinational defence.

The relationship between NATO and Ukraine is becoming important in this context. NATO reports that its innovation cooperation with Ukraine includes efforts to integrate Ukrainian technological solutions into alliance standards and support their scaling. This creates an opportunity for European governments to obtain access to operational experience while providing Ukrainian manufacturers with a broader industrial environment. Nevertheless, equipment that has demonstrated usefulness in Ukrainian conditions still requires evaluation against the requirements, legal frameworks and operational environments of prospective NATO users. Combat experience is valuable evidence, but it does not replace qualification or establish universal suitability. Innovation and Technology Adoption — NATO.

Comparative European financial and institutional commitments

Programme or institution	Documented scale	Financial or administrative category	Main strategic purpose	Principal implementation issue
EU SAFE	€150bn	Loan envelope	Joint procurement and European industrial development	National repayment, eligibility and project execution
NATO Drone Edge	More than USD 40bn over five years	Allied investment commitment	Counter-drone capabilities and production	Compatible equipment, procurement and operator training
NATO Ankara procurement announcements	More than €50bn	Announced procurement deals	Industrial capacity and military modernisation	Contract execution and deliveries
NATO fuel infrastructure	€27bn	Announced infrastructure investment	Storage, distribution and eastern-flank support	Construction schedules and cross-border coordination
NATO assistance to Ukraine	€70bn pledged for 2026 and at least equivalent support in 2027	Military equipment, assistance and training commitment	Ukrainian defence sustainability	Delivery timing, funding and equipment availability

The figures are documented in the European Commission SAFE instrument, the NATO Drone Edge declaration and the Ankara summit outcome statement. They involve different financial definitions, responsible organisations and time horizons.

The most consequential policy risk is that Europe could increase expenditure substantially without achieving a corresponding improvement in operationally available capability. Defence-industrial sovereignty must therefore be judged through realised manufacturing capacity, diversified critical components, deployable equipment and sustainable maintenance arrangements, rather than through aggregate spending commitments. NATO’s operational requirements and the EU’s financial instruments can reinforce one another, but only when national governments convert the resulting opportunities into coherent acquisition and force-development programmes.

Chapter 10. Italy: Military Modernisation, National Defence Industry, Mediterranean Security and Strategic Opportunities

Italy’s strategic position between European collective defence and Mediterranean operational requirements

Italy’s transformation in autonomous and electronically contested warfare cannot be evaluated solely through the requirements of NATO’s eastern flank. Its geography, maritime economic exposure, defence-industrial structure and military commitments create a distinctive strategic position linking continental European security with the Mediterranean, North Africa, the Adriatic and the wider maritime routes connecting Europe with the Middle East and Indo-Pacific. The country’s defence requirements consequently extend from the protection of national territory and critical installations to naval surveillance, maritime infrastructure security, expeditionary military operations and interoperability with allied forces. The development of unmanned systems, electronic warfare and military artificial intelligence must be assessed against this broader operating environment rather than treated as an isolated technological modernisation programme.

The Italian Armed Forces already possess a foundation of counter-unmanned-aircraft capabilities developed through different procurement and industrial arrangements. The Italian Army identifies Rafael’s Drone Dome, acquired in 2019 and employed in the Kosovo operational theatre between 2020 and 2022; the Anti Drone Detecting and Disabling System (AD3S), developed in 2019 through cooperation involving the Army’s Air Defence Artillery Command and Italian companies IDS, INTECS and CPM; and Leonardo’s ACUS Enhanced, delivered to the Army in 2024 within the Forza NEC framework. These systems represent different elements of a national capability portfolio and demonstrate the involvement of both foreign technology and Italian defence-electronics suppliers. Their existence does not establish complete national coverage or the ability to defeat every category of unmanned threat, but it confirms that Italy’s modernisation is building on previously acquired and developed technologies rather than beginning from an entirely new industrial position. C-UAS: Sistemi di Contrasto agli Aeromobili a Pilotaggio Remoto — Esercito Italiano.

The significance for national industrial policy is considerable. Leonardo provides competencies in defence electronics, sensors, mission systems, communications and systems integration, while the broader Italian industrial base includes naval construction, military vehicles, specialist manufacturing, aerospace technologies, software and advanced materials. Fincantieri is relevant to maritime platforms and their integration, while companies operating in electronic subsystems, mechanical manufacturing and specialised components can contribute to the production and maintenance of increasingly distributed military equipment. However, the existence of industrial capabilities does not automatically establish that they are allocated to a particular defence programme or available at the required scale. A credible policy assessment must distinguish between existing commercial or industrial expertise, qualified defence supply relationships, awarded contracts and production demonstrated through accepted deliveries.

Mediterranean maritime security and the role of autonomous systems

Italy’s central Mediterranean location produces a strategic requirement for sustained maritime awareness across a large and economically important area. Unmanned surface, aerial and underwater systems can potentially contribute to naval reconnaissance, port protection, mine countermeasures, infrastructure inspection and environmental monitoring. Yet each application involves different operational requirements, particularly concerning communications, autonomy, endurance and legal authority. An autonomous underwater vehicle used to inspect infrastructure in controlled conditions cannot be assumed to possess the same operational capability as a system intended for prolonged activity in contested waters. Similarly, small reconnaissance drones employed from coastal installations differ from equipment that must operate from naval vessels in adverse maritime conditions.

The most important opportunity for Italy lies in integrating these technologies with existing naval platforms and defence-electronics expertise. Rather than replacing conventional ships, autonomous systems can support a broader maritime architecture in which crewed platforms, coastal sensors, aviation and unmanned equipment contribute complementary information. The industrial advantages would depend on common technical interfaces, reliable maintenance and appropriate qualification requirements, while the operational benefits would need to be demonstrated through testing and naval exercises.

NATO’s selection of Italy as the location for an underwater innovation range is relevant because it positions the country within a multinational infrastructure intended to accelerate the evaluation of emerging technologies. This is not equivalent to the establishment of an operational autonomous naval fleet, but it can support the development of testing expertise, cooperation with manufacturers and the qualification of systems for allied requirements. For Italian industry, the distinction matters: facilities that provide independent evaluation and technical certification can create industrial value even where they do not manufacture the final platform. New NATO Innovation Range Starts Counter-Drone Technology Testing in Latvia — NATO — March 2026.

Italian industrial priorities and the problem of European technological sovereignty

Italy’s industrial opportunity is not limited to supplying complete drones. Advanced defence systems require propulsion components, power electronics, precision mechanical parts, optical equipment, communications infrastructure, sensors, specialist software and structures suitable for demanding operational environments. These requirements create potential roles for suppliers originating in established civilian sectors, including automotive manufacturing, industrial automation, telecommunications and advanced materials. Nevertheless, conversion from civilian production to qualified military supply is not automatic. It may require new quality-control processes, traceability, security procedures, design modifications and arrangements for handling controlled technologies.

The strategic importance of this industrial conversion lies in the possibility of broadening Italy’s supplier base while maintaining the reliability required for defence procurement. A country with substantial advanced-manufacturing resources may be able to support production increases more effectively if military acquisition authorities identify which industrial capabilities can be converted economically and which require specialised investment. Conversely, programmes that distribute small contracts across numerous suppliers without common standards can increase fragmentation and undermine industrial efficiency.

For Italy, the European SAFE framework is relevant because it provides a financing mechanism that can support collaborative defence investment while encouraging production within eligible European industrial ecosystems. Participation in such projects requires attention to consortium governance, intellectual property, component origin and the continuity of demand. Italian companies can potentially contribute across different stages of production, but the national benefit will depend on the contractual allocation of technical responsibility and the ability to retain meaningful industrial competencies rather than merely supplying low-value components. SAFE — Security Action for Europe — European Commission.

Italy: national defence-industrial opportunity matrix

Industrial or military area	Existing foundation	Potential strategic contribution	Principal implementation constraint
Counter-UAS	Drone Dome, AD3S and ACUS Enhanced	Integrated protection of personnel and installations	Interoperability, coverage and sustained availability
Defence electronics	National sensor, communications and mission-system capabilities	Detection, classification and command integration	Critical components and testing requirements
Naval construction	Established military shipbuilding ecosystem	Integration of autonomous maritime systems with crewed platforms	Maritime qualification, maintenance and communications
Underwater technologies	NATO underwater innovation range in Italy	Evaluation, experimentation and specialist industrial cooperation	Transition from trials to contracted operational capability
Advanced manufacturing	Mechanical, automotive and industrial-automation suppliers	Components, structures and scalable production	Military qualification and commercial viability
European programmes	Participation opportunities under EU defence instruments	Multinational supply chains and larger procurement volumes	Workshare, sovereignty and procurement governance

Italy’s principal strategic choice concerns the level at which national industrial ambitions should be concentrated. Attempting to develop every type of unmanned platform independently could create duplication and reduce the resources available for technologies in which the country already possesses substantial expertise. Conversely, relying excessively on foreign integrated systems may weaken control over critical subsystems and long-term support. A balanced strategy would distinguish areas requiring sovereign technological authority from those where European cooperation or diversified procurement can provide stronger economic and operational outcomes. The effectiveness of this approach would need to be demonstrated through documented contracts, domestic component value, accepted deliveries and sustained operational availability.

Chapter 11. France: Strategic Autonomy, Electronic Warfare, Counter-Drone Defence and Military Innovation

The French model: autonomous strategic decision-making supported by a broad industrial and technological base

France approaches contemporary military transformation through a strategic tradition emphasising national decision-making autonomy, a comparatively comprehensive defence-industrial base and the preservation of capabilities across several operational domains. Its modernisation programmes must therefore reconcile the introduction of inexpensive autonomous equipment with continued investment in sophisticated aviation, naval forces, nuclear deterrence, intelligence, space systems and expeditionary military capabilities. The challenge is not simply technological. Maintaining a broad national military model requires allocating finite industrial and financial resources among capabilities that operate on radically different development and replacement cycles.

France’s revised 2024–2030 Military Programming Law, promulgated in August 2026 following constitutional review, provides a substantial financial expression of this challenge. The Ministry of the Armed Forces reported €36 billion in additional expenditure planned for 2026–2030, supplementing the €413 billion originally programmed under the 2023 law. Of this additional allocation, €10 billion was scheduled for 2026–2027. The government identified ammunition replenishment, air defence, counter-drone systems, remotely operated munitions, space capabilities and electronic warfare among its priorities. The figures describe a revised multiyear programming framework, not an assertion that the entire additional amount had already been spent by October 2026. Actualisation de la LPM: La France intensifie son effort de réarmement — Ministère des Armées et des Anciens combattants — August 2026.

France’s decision to reinforce electronic warfare is especially significant because its Ministry of the Armed Forces explicitly identifies the electromagnetic environment as a renewed structural dimension of modern military operations. A September 2026 publication by the Defence Innovation Agency described the rapid technological adaptation observed in Ukraine, including software reconfiguration over periods of approximately one to two months and hardware changes within periods that could extend to six months. These figures describe an institutional assessment of adaptation cycles observed in a particular conflict, not universal timelines applicable to every military system. They nevertheless demonstrate why France regards electronic-spectrum capabilities as an area requiring accelerated innovation. L’innovation, un enjeu majeur pour la guerre électromagnétique — Ministère des Armées et des Anciens combattants — September 2026.

The French defence budget: specific allocations and operational priorities

France’s published 2026 update identifies additional resources for several capability areas whose relevance extends beyond autonomous platforms. The government announced an additional €8.5 billion for munitions, €1.6 billion for ground-based air defence and counter-drone capabilities, €2 billion for drones and remotely operated munitions, €3.9 billion for space, €1.2 billion for long-range strike and €1.6 billion for operational preparation during the relevant 2026–2030 planning period. These allocations form part of the revised programming structure and must not be interpreted as separate annual appropriations. Actualisation de la loi de programmation militaire: Aller plus vite et plus loin — Ministère des Armées et des Anciens combattants — 2026.

French capability priority	Additional programmed resources, 2026–2030	Strategic purpose	Principal analytical distinction
Munitions	€8.5bn	Replenishment and sustained military readiness	Multiyear additional resources, not completed deliveries
Ground-based air defence and counter-drone systems	€1.6bn	Protection against diverse aerial threats	Programme expenditure does not establish deployed coverage
Drones and remotely operated munitions	€2.0bn	Unmanned military capabilities	Financial programming, not number of units
Space	€3.9bn	Surveillance, resilience and space capabilities	Includes functions beyond drone operations
Long-range strike	€1.2bn	Extended military reach	Different category from unmanned-system expenditure
Operational preparation	€1.6bn	Training and military readiness	Operational expenditure, not equipment acquisition

The figures are reported in the French Ministry of the Armed Forces’ 2026 programming update. Because programme categories and funding periods differ from those reported by other governments, they cannot support direct unit-cost or capability comparisons without further reconciliation.

The French approach creates a more balanced set of requirements than a narrow focus on autonomous platforms would suggest. Ammunition production and operational preparation receive significant additional resources because conventional military capabilities remain necessary during prolonged conflict. Space and electronic warfare receive attention because national operational autonomy increasingly depends on information and communications infrastructure. Counter-drone expenditure is positioned within a broader effort to strengthen air defence, reflecting the requirement to protect military assets against different classes of threat rather than constructing a wholly separate unmanned-threat defence system.

French industrial autonomy and the difficulty of accelerated technological integration

France’s industrial ecosystem includes major defence manufacturers and specialist suppliers involved in aerospace, missiles, naval construction, military electronics, sensors and software. The strategic importance of this breadth lies in the ability to maintain national competence across a substantial proportion of the defence technology chain. However, broad industrial autonomy can also introduce significant fixed costs, particularly where national programmes attempt to preserve capabilities that could otherwise be procured through multinational cooperation.

The revised programming framework therefore raises questions about industrial priorities. The government must determine which technologies justify sustained domestic development, which can be acquired or jointly produced with European partners, and which require diversification of international suppliers. Electronic warfare and military software create particular complexities because technological performance can change faster than conventional programme structures. French industry must retain the capacity to improve fielded equipment while ensuring that modifications remain compatible with existing systems and military qualification requirements.

The country’s October 2026 budget position also matters. The published draft for the 2027 defence budget provided for approximately €63.4 billion under the defence mission, excluding pensions, an increase of approximately €6.5 billion relative to 2026. It included resources for preparation, major equipment programmes, deterrence and personnel. As a proposed budget, these figures describe the government’s position at the October 2026 cut-off rather than final enacted expenditure for 2027. Projet de loi de finances des Armées 2027: LPM année 4 — Ministère des Armées et des Anciens combattants — October 2026.

France’s principal strategic challenge is to maintain the breadth of its military-industrial model while achieving the responsiveness demanded by rapidly changing technologies. Its revised financial commitments provide resources, but their strategic value will depend on the transition from legislation and budget planning to qualified production, training and operational availability.

Chapter 12. Germany: Military Reorganisation, Defence Industrial Expansion and the Eastern Flank

The German response: institutional restructuring rather than incremental equipment modernisation

Germany’s modernisation is particularly significant because it combines the pressures of European collective defence with the reorganisation of military structures designed for a period of different security assumptions. The Bundeswehr must strengthen the readiness of formations assigned to allied defence while expanding capabilities in emerging technologies, electronic warfare and unmanned systems. The challenge is therefore not limited to purchasing equipment. It requires changes to the organisation of units, technical personnel, acquisition processes and the mechanisms through which experimental technologies become part of routine military operations.

The October 2026 announcement of Germany’s first dedicated unmanned-systems regiment illustrates this institutional approach. Defence Minister Boris Pistorius and Army Inspector General Christian Freuding announced the initiative during the Experimentalserie Land activities at Bergen on 1 October 2026. The planned regiment will operate airborne and ground-based unmanned systems and incorporate capabilities relating to reconnaissance, engagement, counter-drone defence and electronic warfare. The Bundeswehr intends the formation to assume initial responsibilities in 2027 with approximately 350 personnel, expanding towards approximately 600 and full operational capability in 2029. The regiment will also include a testing and experimentation function, intended to bring technology evaluation closer to operational users. Das Heer stellt ein Regiment für unbemannte Systeme auf — Bundeswehr — October 2026.

The organisational significance is substantial because Germany is attempting to institutionalise an area of military activity that has frequently depended on dispersed experimentation and specialist teams. A dedicated regiment can potentially provide a structured environment for training, equipment maintenance, technical evaluation and the development of common operational practices. However, the effectiveness of the arrangement will depend on the relationship between the specialised regiment and conventional manoeuvre formations. If unmanned expertise becomes excessively concentrated, combat units could face delays obtaining support or adapting equipment to local requirements. Conversely, dispersing all specialist knowledge among individual units could weaken technical standardisation and the ability to sustain complex electronic systems. Germany’s stated intention to combine a specialist formation with unmanned capability development in existing Army units indicates recognition of this organisational tension.

Germany’s eastern-flank obligations and defence-industrial implications

Germany’s position within NATO gives its military modernisation particular relevance to Central and Eastern Europe. Its forces must be capable of supporting allied formations, sustaining movement across European transport networks and contributing to collective defence operations requiring extensive logistics and interoperability. Unmanned capabilities can strengthen reconnaissance and protection, but they must be integrated with conventional armour, artillery, engineering and support units. The establishment of a drone regiment therefore represents only one component of a broader force-development challenge.

Germany also possesses an extensive industrial base, including automotive manufacturing, precision engineering, electronics, machinery and established defence manufacturers. This creates potential resources for expanded military production, but industrial conversion requires appropriate contracts, qualification and financial commitments. A civilian supplier capable of producing advanced mechanical components cannot automatically manufacture certified military equipment without modifications to production processes and documentation. The government’s challenge is to translate industrial potential into sustained defence output while maintaining competition and controlling programme costs.

The Bundeswehr’s October 2026 announcement placed particular emphasis on data sovereignty, connectivity and rapid innovation cycles, indicating that German defence authorities increasingly regard software and technical adaptation as essential to operational effectiveness. The planned regiment is intended to integrate operational use, testing and technological development within a single formation, an approach that could shorten feedback intervals if sufficient technical and procurement authority is provided. Pistorius bei Experimentalserie Land: Das Heer wird ein Drohnenregiment aufstellen — Bundeswehr — October 2026.

The main uncertainty is whether this organisational innovation will be matched by dependable procurement and adequate industrial support. A specialist unit can develop technical expertise and operational doctrine, but it cannot independently resolve shortages in components, maintenance capacity, electronic-warfare equipment or trained personnel across the wider armed forces. Germany’s strategic success will depend on connecting force restructuring with accepted equipment deliveries and demonstrated operational readiness, while preserving its ability to participate effectively in multinational NATO formations.

Chapter 13. United Kingdom: Integrated Force Transformation, Digital Targeting and Autonomous Warfare

Britain moves from defence reform proposals to a defined investment programme

The United Kingdom’s military transformation has advanced beyond the broad recommendations of its 2025 Strategic Defence Review into a more explicitly funded programme announced during 2026. On 29 June 2026, the British government announced a drone-transformation package exceeding £5 billion over four years, intended to support the development and introduction of unmanned technologies across the armed forces. This announcement materially expands the assessment available from the earlier Strategic Defence Review because it provides a more specific financial framework for implementing parts of the proposed transformation. However, a financial allocation or announced investment programme is not equivalent to equipment delivered, and the operational effectiveness of the initiative will depend on procurement execution, training and integration. UK Drone Transformation to Strengthen Armed Forces Backed by More Than £5 Billion — Ministry of Defence — June 2026.

The British government’s subsequent funding announcement identified £650 million for inexpensive expendable autonomous systems, including drones and unmanned ground vehicles, and almost £2 billion for a Digital Targeting Web intended to integrate military information and enable more responsive decisions. It also specified £790 million over four years for protection of the United Kingdom and overseas bases against air, drone and missile threats, £11 billion for munitions and weapons, and £100 million for a Rapid AI Delivery Taskforce. These allocations are relevant because they demonstrate that Britain is treating autonomous systems as part of a broader military transformation involving software, defensive infrastructure, production and workforce development. The announced funding categories must be interpreted according to their respective programme definitions and should not be mechanically added without confirming overlap and the exact budgetary basis. £15 Billion New Funding Boost to Transform Armed Forces and Keep the UK Safe — United Kingdom Government — June 2026.

The industrial significance of digital targeting and continuous production

The Digital Targeting Web occupies a central position in Britain’s future force model because it seeks to connect sensors, information-processing systems and military response capabilities across different services. Its strategic value would depend on the quality and availability of information, the ability to exchange data securely and the reliability of the authorisation processes governing military action. Advanced digital coordination may improve the responsiveness of a military force, but it also creates dependencies on communications, cybersecurity, interoperability and trained personnel. Consequently, investment in the targeting network must be accompanied by testing under degraded conditions and procedures that preserve operational authority when digital services are unavailable.

The British government’s emphasis on maintaining continuous production capacity for ammunition is similarly significant. The June 2026 funding announcement included plans for at least six new energetics factories by 2030, reflecting recognition that technological sophistication cannot compensate for inadequate stockpiles during prolonged operations. The combination of ammunition production, autonomous equipment and digital systems represents an attempt to address several dimensions of military endurance simultaneously, rather than assuming that one category of technology can independently transform operational effectiveness.

AI experimentation and the transition towards practical military applications

The British Army’s April 2026 trials of AI-assisted drone technology for the detection of landmines and explosive ordnance provide a more specific example of the government’s approach. The Defence Science and Technology Laboratory conducted the work with 33 Engineer Regiment, using unmanned aircraft to collect observations that could be analysed for potential explosive threats. The government reported that the trials also examined the ability to retrain models for new object types and environmental conditions. The result demonstrates a tested application of AI-supported reconnaissance and engineering assistance, but it should not be characterised as evidence of mature autonomous targeting or field-wide deployment. AI-Powered Drones to Detect Explosive Threats and Protect Military Personnel — Ministry of Defence — April 2026.

Britain’s industrial strategy therefore combines investment in advanced software, unmanned platforms, conventional weapons production and defence innovation. The principal implementation challenge is ensuring that programmes funded through different budget categories produce a coherent operational architecture rather than separate technological improvements. A future force containing numerous autonomous systems will not automatically be more effective if communications, maintenance, training or targeting procedures remain fragmented.

United Kingdom: investment and implementation matrix

Investment area	Announced amount	Relevant time horizon	Intended capability	Evidence still required
Drone transformation	More than £5bn	Four years from 2026 announcement	Expanded unmanned military capability	Contracted units, deliveries and readiness
Expendable autonomous systems	£650m	Within announced transformation programme	Affordable unmanned equipment	Accepted production and operational performance
Digital Targeting Web	Almost £2bn	Implementation programme announced in 2026	Integration of information and response capabilities	Interoperability and demonstrated operational use
Homeland and overseas-base protection	£790m	Four years	Air, drone and missile defence improvements	Installed capability, coverage and availability
Munitions and weapons	£11bn	Announced defence-investment programme	Stockpiles and national production	Factory completion and production throughput
Rapid AI Delivery Taskforce	£100m	Programme announced in 2026	Accelerated defence AI adoption	Validated applications and implementation outcomes

The figures derive from the United Kingdom’s June 2026 defence investment announcement. They are programme allocations and commitments, not an audited statement of completed expenditure.

Britain’s most consequential strategic choice is to ensure that its comparatively sophisticated military capabilities remain sustainable during prolonged high-intensity operations. Its approach attempts to combine technological innovation with production capacity and more extensive integration across the armed services. The effectiveness of this programme will be determined not simply by the funds committed, but by whether new capabilities become operational within the intended timetable and remain reliable under demanding military conditions.

Chapter 14. Poland, the Baltic States and Northern Europe: Frontline Defence and Distributed Military Resilience

Poland’s transformation into a major European centre of territorial defence investment

Poland’s military modernisation is shaped by a different strategic requirement from that confronting most Western European states. Its geographic position on NATO’s eastern flank, proximity to Ukraine and Belarus, and responsibility for substantial elements of allied reinforcement infrastructure place territorial defence and rapid military mobilisation at the centre of national planning. The proliferation of unmanned aerial threats has increased the importance of protecting military installations, transport networks and critical infrastructure, while maintaining conventional air defence capable of responding to more sophisticated threats. Poland’s response involves not merely acquiring specialised counter-drone equipment but integrating it within a broader programme of military modernisation and domestic industrial development.

The SAN counter-drone system provides a concrete example. On 30 January 2026, the Polish Ministry of National Defence announced an acquisition agreement involving a consortium comprising Polska Grupa Zbrojeniowa and Kongsberg Defence & Aerospace. The programme includes 18 counter-drone battery modules and is intended to strengthen protection against unmanned aerial threats, particularly along the country’s eastern and northern approaches. The government’s supporting documentation further identifies 52 firing platoons, 18 command platoons and 703 vehicles, with an approximate net contract value of PLN 15 billion. These figures describe the planned architecture and procurement commitment, not equipment already fully deployed and operational. System antydronowy SAN — kluczowe umowy podpisane — Kancelaria Prezesa Rady Ministrów — January 2026; System SAN zwiększy zdolności Wojska Polskiego do zwalczania systemów bezzałogowych — Ministerstwo Obrony Narodowej — January 2026.

The industrial significance of Poland’s approach extends beyond SAN. On 8 June 2026, the Polish Ministry of National Defence reported the conclusion of 62 contracts worth approximately PLN 120 billion, financed through the SAFE framework. The published list included 190 FlyEye unmanned-aircraft sets, more than 400 WARMATE loitering-munition sets, 12 GLADIUS unmanned reconnaissance-and-strike battery modules and additional military communications and electronic-intelligence systems. Importantly, the ministry identified these as contracts, not completed deliveries. The procurement structure demonstrates how Poland is attempting to combine urgent operational requirements with the strengthening of domestic manufacturers, creating a demand environment in which companies can invest in production and associated technical capabilities. Program SAFE — Ministerstwo Obrony Narodowej — June 2026.

Poland’s principal implementation risk concerns integration. Large procurement packages can accelerate modernisation, but the simultaneous introduction of different systems generates substantial requirements for personnel, infrastructure, training, maintenance and common operational procedures. A sophisticated anti-drone architecture must also function alongside conventional air-defence systems and allied air operations, requiring clarity concerning identification, command authority and the allocation of defensive resources. Domestic industrial benefits will depend on the actual value added within Poland and the ability of national manufacturers to sustain equipment over its service life.

Estonia: defence mobilisation within the constraints of a small national economy

Estonia’s strategic circumstances differ from Poland’s in scale but share the requirement for credible territorial defence and allied reinforcement. Its relatively small population and economic base make decisions concerning procurement priorities particularly consequential, since every major capability competes with other defence requirements. In July 2025, the Estonian Ministry of Defence approved a development plan providing for more than €10 billion of defence investment during 2026–2029, including up to €150 million dedicated to drones. The plan emphasised comprehensive unmanned capability across reconnaissance, surveillance, engagement and countermeasures, integrated into units from the tactical level upwards. It also included broader investment in air defence, ammunition and the national Defence League. Estonia to Invest Over €10 Billion in Defence in 2026–2029 — Estonian Ministry of Defence — July 2025.

Estonia’s February 2026 defence announcement identified expenditure of approximately €2.4 billion for 2026, equivalent to 5.43% of GDP according to the ministry’s stated budget basis. The government also reported the introduction of medium-range air-defence capabilities and improvements in drone-related systems. These figures are important because they demonstrate the fiscal intensity of defence modernisation in a small economy, but they do not establish the amount of spending devoted exclusively to unmanned technologies. Estonia’s Defence Capabilities Will Be Strengthened This Year with a Medium-Range Air Defence System — Estonian Ministry of Defence — February 2026.

The central Estonian challenge is to maintain a credible range of defence capabilities without fragmenting limited resources across too many technologies. In this environment, allied interoperability, common procurement and access to external industrial capacity can be as important as domestic manufacturing. Estonia can develop specialist competencies and innovative companies, but its security also depends on the ability to integrate those capabilities into multinational defence arrangements.

Lithuania: introducing Ukrainian acoustic detection technology into national airspace protection

Lithuania provides an important example of a country adopting a technology developed from the requirements of an active conflict. On 2 October 2026, its Ministry of National Defence announced the deployment process for the Ukrainian SkyFortress acoustic drone-detection system, intended to improve the identification of low-flying unmanned aircraft and other aerial threats. According to the ministry, the project includes sensor-data processing, acoustic and radio-frequency signature libraries containing non-classified information, and personnel training. The ministry expressly indicated that testing would determine the system’s ability to identify relevant threats within Lithuania’s operating environment. This qualification matters because performance demonstrated elsewhere cannot automatically establish effectiveness under different geographical, acoustic or electromagnetic conditions. Lithuania Deploys Ukrainian SkyFortress Acoustic Drone Detection System — Lithuanian Ministry of National Defence — October 2026.

The broader policy significance lies in the transfer of Ukrainian technology into a NATO member state’s defence architecture. Rather than developing every component independently, Lithuania is seeking to exploit capabilities developed under direct operational pressure, while maintaining responsibility for national testing and integration. The approach can reduce development time, but successful adoption requires verification, compatible data interfaces and dependable long-term support arrangements.

A joint statement issued by the Estonian, Latvian and Lithuanian defence ministers on 27 March 2026 provides additional context. The ministers reported incidents involving foreign unmanned aircraft crossing Baltic NATO airspace and striking national territory, while emphasising that investigations were continuing. The statement illustrates a recurrent challenge for frontline countries: identifying the origin, status and significance of aerial incidents before making conclusions about responsibility or intent. The protection of airspace therefore requires reliable surveillance and procedures for responding to uncertain information, as well as physical interception capabilities. Joint Statement by the Ministers of Defence of the Baltic Countries on Drone Incidents — Estonian Ministry of Defence — March 2026.

Sweden and Northern European security: linking unmanned systems with space capabilities

Sweden’s defence investment provides a different northern European example because it explicitly connects unmanned systems with space-based surveillance. On 12 January 2026, the Swedish government announced more than SEK 5.3 billion in investments covering drones and space capabilities. The programme included over SEK 4 billion for unmanned systems and approximately SEK 1.3 billion for space capabilities, including reconnaissance and surveillance satellites. The unmanned investments cover categories such as reconnaissance aircraft, loitering munitions, electronic-warfare equipment and maritime systems. More Than SEK 5.3 Billion to Enhance Drone and Space Capabilities — Swedish Government — January 2026.

The combination is significant because Nordic and Baltic security depends on the ability to maintain surveillance across extensive maritime areas, challenging weather conditions and strategically important transport routes. Space assets can support broader situational awareness, while unmanned systems can contribute observations at different levels of military activity. Nevertheless, the value of these investments depends on whether the information can be securely distributed and used by Swedish and allied forces.

Sweden’s September 2026 letter of intent with the Netherlands concerning GlobalEye airborne early warning illustrates the continued role of sophisticated conventional platforms. The agreement concerned cooperation in airborne surveillance and a Dutch intention to acquire one GlobalEye system from Saab. A letter of intent does not constitute evidence that the aircraft has already been delivered. Its importance lies in demonstrating that states seeking more extensive unmanned capabilities are simultaneously investing in advanced sensor platforms and international cooperation. Sweden and the Netherlands Agree on GlobalEye Deal — Swedish Government — September 2026.

Northern and eastern European defence comparison

Country	Documented initiative	Published scale or status	Principal strategic purpose	Main limitation
Poland	SAN counter-drone system	18 battery modules; approximately PLN 15bn net	Territorial defence and counter-UAS protection	Procurement does not equal completed deployment
Poland	SAFE-supported acquisitions	62 contracts, approximately PLN 120bn	Defence-industrial expansion and modernisation	Delivery and integration remain necessary
Estonia	Defence development plan	More than €10bn for 2026–2029	National defence readiness and alliance interoperability	Financial and demographic scale
Estonia	Drone investment	Up to €150m within development plan	Integrated unmanned capabilities	Manufacturing and personnel constraints
Lithuania	SkyFortress acoustic detection	National deployment and testing process announced	Detection of low-flying aerial threats	Performance requires national validation
Sweden	Unmanned-system investments	More than SEK 4bn	Reconnaissance, electronic warfare and maritime capabilities	Acquisition and operational integration
Sweden	Space investment	Approximately SEK 1.3bn	Satellite surveillance and observation	Ground infrastructure and information integration

These figures are supported by the Polish Ministry of National Defence SAFE programme, Polish SAN contracting statement, Estonian defence development plan, Lithuanian SkyFortress announcement and Swedish unmanned and space investment announcement.

The northern and eastern European response demonstrates that national geography remains a decisive factor in force development. Poland prioritises a substantial territorial defence architecture and domestic manufacturing. Estonia must reconcile ambitious military requirements with a smaller national resource base. Lithuania is exploiting external technology through a process of national qualification, while Sweden is combining unmanned systems with advanced surveillance and space capabilities. Their common strategic interest lies in resilient defence, but the programmes reflect different operational requirements and industrial capacities rather than a single uniform regional model.

Chapter 15. Israel, Iran and the Middle East: Integrated Air Defence, Precision Threats and the Regional Technology Contest

Israel’s defence model: technological integration under sustained and diversified aerial threats

The Middle East presents a strategic environment fundamentally different from the land-dominated conflict in Eastern Europe or the maritime competition in the Western Pacific. Israel’s geographical dimensions, the concentration of population and infrastructure, and the diversity of potential aerial threats place exceptional importance on the continuity of air and missile defence. The regional threat environment includes ballistic missiles, cruise missiles, rockets and different classes of unmanned aircraft, each requiring different detection and engagement capabilities. The resulting technological competition concerns not only the development of advanced weapons but the capacity to coordinate defensive systems, sustain ammunition supplies and protect essential infrastructure when several threat categories may need to be addressed within overlapping periods. This distinction is crucial because a state may possess effective equipment against one class of threat while retaining substantial exposure to another. The strategic value of Israel’s layered architecture lies in attempting to allocate different defensive capabilities to threats according to their characteristics, rather than relying on a single interception technology.

Israel’s defence-industrial model combines major companies such as Rafael Advanced Defense Systems, Israel Aerospace Industries and Elbit Systems with specialist technology suppliers and government research institutions. The Directorate of Defense Research and Development within the Ministry of Defense plays an important role in linking technological development with military requirements. This structure creates opportunities for operational feedback to influence system development, but public evidence must distinguish between company claims, successful testing, government acceptance and equipment available for sustained military use. The presence of several advanced manufacturers within one national ecosystem does not automatically establish the production capacity or inventory required for every possible operational scenario.

The development of the Iron Beam high-power laser system represents an important technological milestone. On 28 December 2025, the Israeli Ministry of Defense and Rafael announced delivery of the first operational system to the Israel Defense Forces. The ministry stated that the system had demonstrated interception capabilities during testing against rockets, mortar rounds and unmanned aircraft, and that it would complement Iron Dome, David’s Sling and Arrow within the wider air-defence architecture. This was a documented delivery milestone, not evidence that sufficient Iron Beam systems had been deployed to provide comprehensive national coverage. Israel MOD and Rafael Deliver First Operational High-Power Laser System — Iron Beam to the IDF — Israel Ministry of Defense — December 2025.

The potential industrial and economic significance of directed-energy interception lies in the possibility of reducing dependence on expendable missile interceptors for certain classes of engagement. However, the appropriate cost comparison must include the acquisition and maintenance of the laser system, power generation, cooling, infrastructure, personnel and operating constraints. The cost of electricity alone is not equivalent to the full cost of an engagement. Atmospheric conditions, line of sight, target characteristics and the availability of sufficient defensive systems also influence operational usefulness. Directed energy should therefore be evaluated as an additional layer with particular technical characteristics rather than as a universal replacement for kinetic air-defence weapons.

June 2026: integrating Iron Beam into the wider Israeli defensive architecture

A further development occurred on 30 June 2026, when Israel’s Ministry of Defense and Rafael announced completion of an additional Iron Dome test series. According to the ministry, the tests evaluated upgrades intended to improve performance against advanced threats and high rates of incoming fire, including scenarios involving rockets, cruise missiles and UAVs. The exercise also included joint operational scenarios involving Iron Beam through the Iron Dome battle-management centre. This distinction is important because the integration of a new interceptor technology into an established command structure can be as consequential as the technical performance of the interceptor itself. Detection, identification, engagement authority and coordination among different defensive layers determine whether the equipment can contribute effectively to the protection of population centres and strategic installations. Iron Dome Receives Additional Upgrade: Israel MOD and Rafael Successfully Complete Comprehensive Test Series — Israel Ministry of Defense — June 2026.

The programme also demonstrates why the distinction between testing and operational deployment must remain explicit. A successful integrated exercise establishes that specified functions operated under the conditions examined. It does not establish that every possible threat, atmospheric condition or simultaneous engagement requirement has been validated. National defence planning must therefore consider the geographic distribution of systems, their operating availability, replenishment, maintenance and integration with existing military infrastructure.

Iran’s regional posture and the significance of asymmetric military capabilities

Iran’s regional strategy must be examined through its different military organisations, missile and unmanned-system capabilities, domestic industrial resources and security relationships across the Middle East. Its approach has traditionally placed substantial importance on capabilities intended to offset the conventional technological advantages of its principal regional opponents. Missiles and unmanned aircraft can contribute to this objective by providing instruments for deterrence, military pressure and attacks over different distances. However, the operational performance of these systems cannot be established merely through advertised specifications or official statements concerning production.

The strategic consequences for regional security arise from the interaction between missile and unmanned-system threats, geography and defensive capacity. Countries exposed to potential aerial attacks must maintain surveillance, interception and recovery arrangements across numerous possible targets. Civilian infrastructure, commercial aviation, ports and energy installations can be affected by the security environment even when they are not directly involved in military operations. Such exposure can generate economic costs through changes in insurance, transport, investment and infrastructure-protection requirements.

The regional contest also includes the relationship between state military capabilities and non-state armed groups. These actors may possess equipment originating from different sources and operate under different command arrangements. Attribution of a particular attack, however, requires case-specific evidence; the presence of a familiar weapon type does not establish which government supplied it or authorised its use. Equally, similarities between technical designs cannot substitute for documentary evidence of procurement, transfer or operational control.

Gulf states and the wider regional security economy

For Saudi Arabia, the United Arab Emirates and other Gulf governments, the development of unmanned and counter-unmanned military technology creates an industrial-policy problem as well as a national defence requirement. Energy infrastructure, maritime terminals, airports and major logistics installations can generate significant economic exposure if disrupted, making reliable protection an important element of national economic security. The practical requirement is to construct defensive architectures suitable for the range of threats considered credible, while preserving the capacity for civilian operations and preventing unnecessary dependence on any single foreign supplier.

Regional governments also face choices concerning defence-industrial localisation. Acquiring a foreign integrated system may provide faster access to an established capability, but domestic maintenance, component production and software support can become important during periods of political or logistical disruption. Technology-transfer arrangements can potentially increase national competence, yet their value depends on the actual transfer of technical knowledge, production rights and support authority. Assembly performed domestically under a restrictive licensing agreement should not automatically be characterised as full technological sovereignty.

Middle Eastern strategic comparison

Strategic actor	Principal capability emphasis	Industrial or institutional foundation	Main strategic exposure	Evidence standard required
Israel	Layered interception, missile defence, advanced sensors and directed energy	Domestic defence industry and government R&D	Sustained protection against heterogeneous aerial threats	Deliveries, operational availability and verified interception performance
Iran	Missile and unmanned capabilities within an asymmetric military model	State-directed and domestic military-industrial resources	Supply-chain restrictions, system reliability and vulnerability to countermeasures	Verified production, deployments and operational results
Saudi Arabia	Territorial, infrastructure and energy security	National military procurement and industrial localisation objectives	Protection of geographically distributed critical infrastructure	Contract execution, coverage and sustainment
United Arab Emirates	Air defence, advanced technology and defence-industrial development	Domestic and international industrial partnerships	Dependence on critical components and external technology	Qualified production and demonstrated operational capabilities
Other Gulf states	Protection of sovereign territory and strategic installations	National procurement and multinational defence relationships	Budgetary scale, coverage and interoperability	Documented readiness and integration

The Israeli technological milestones are documented by the December 2025 Iron Beam delivery announcement and June 2026 Iron Dome integration tests. The remaining entries identify strategic requirements and institutional models; they are not presented as verified numerical comparisons of equipment inventories or defence expenditure.

The principal regional judgment is that military technology is increasingly connected to economic infrastructure protection. The ability to sustain air defence during prolonged periods of pressure can influence industrial production, civilian confidence, transport operations and the financial costs associated with regional insecurity. Advanced interception technologies can improve the available defensive options, but their value depends on the resilience of the complete military and civilian support architecture.

Chapter 16. Japan, Taiwan, South Korea and India: Maritime Denial, Asymmetric Defence and Asian Military Modernisation

Japan: constructing an unmanned coastal-defence architecture within a broader military transformation

Japan’s approach to autonomous military technology is shaped by the geography of the Japanese archipelago, the importance of remote islands, maritime transport and the requirement to defend territory against potentially more numerous hostile forces. These conditions make the relationship between conventional naval and air power and relatively affordable unmanned systems particularly important. Japan cannot base its defence solely on small autonomous platforms, since maritime surveillance, long-range response, logistics and the protection of civilian infrastructure require a substantial range of conventional capabilities. Nevertheless, unmanned equipment can potentially supplement those capabilities by expanding distributed surveillance and providing additional options for defending coastal areas.

The Ministry of Defense’s SHIELD — Synchronized, Hybrid, Integrated and Enhanced Littoral Defense initiative is a concrete expression of this strategy. Japan’s FY2026 budget documentation assigns approximately ¥100.1 billion to the initiative, with the objective of establishing an integrated unmanned coastal-defence architecture during FY2027. The programme envisions combinations of unmanned aerial vehicles, unmanned surface vessels and unmanned underwater vehicles, intended to support asymmetric defence against potential invasion. The government explicitly links this approach to the need to protect personnel and increase the number of available military assets without relying exclusively on expensive crewed platforms. FY2026 Budget: Key Points — Japan Ministry of Defense.

Japan’s 2026 Defence White Paper separately identifies approximately ¥277.3 billion for the broader enhancement of unmanned defence capabilities during the fiscal year. This figure has a wider scope than the specific SHIELD allocation, and the two numbers should not be added as independent categories without examining budget overlap. The white paper also acknowledges that some missions, including certain forms of real-time submarine tracking, continue to require crewed platforms. This is important because it establishes a more realistic policy approach than the assumption that unmanned technologies can replace conventional military equipment across every function. 2026 Defence White Paper: Enhancement of Unmanned Defence Capabilities — Japan Ministry of Defense.

Japan’s industrial challenge concerns integration across several maritime technologies. Unmanned aircraft, surface vessels and underwater platforms have different energy, communications and maintenance requirements. A common operational architecture must accommodate these differences without sacrificing reliability. The country’s established precision manufacturing, electronics, shipbuilding and advanced materials sectors can provide important industrial resources, but their conversion into operational military capabilities requires contracts, qualification and training arrangements.

Taiwan: asymmetric defence under fiscal, legislative and industrial constraints

Taiwan faces a different strategic problem because its defence planning must account for the possibility of coercion or military pressure from a substantially larger neighbouring power. Unmanned technologies are relevant to this environment because they may provide affordable surveillance and defensive capabilities, but their strategic value depends on the ability to sustain national command, protect critical infrastructure and preserve access to essential supplies. The importance of geographically dispersed systems also creates requirements for maintenance, secure communications and equipment replacement under conditions of uncertainty.

Domestic production offers potential advantages by reducing some dependencies on external delivery routes, but it cannot eliminate every supply-chain exposure. Semiconductors, specialised sensors, propulsion components, software and energy systems may involve international suppliers even when final assembly takes place locally. Taiwan’s industrial capabilities are substantial in selected technology sectors, yet producing military equipment at scale requires an additional combination of qualification, contracts, personnel and sustained government financing.

The political dimension is particularly important. A proposed special procurement framework associated with unmanned capabilities sought a ceiling of NT$210 billion extending through 2031, but the publicly reported legislative process did not establish approval of the executive’s original proposal by August 2026. This distinction means the proposed amount cannot be treated as appropriated expenditure or confirmed military deliveries. The case illustrates a broader principle: the perceived urgency of a security requirement does not remove legislative, fiscal or administrative constraints on implementation.

Taiwan’s long-term challenge is therefore to establish an industrial and military structure in which asymmetric equipment can be produced, maintained and employed within a sustainable national defence framework. The effectiveness of such investments will depend on verified operational integration, domestic production continuity and the ability to maintain military functions when external communications or supply arrangements are disrupted.

South Korea: combining a sophisticated industrial base with a changing technological environment

South Korea possesses an established defence-industrial ecosystem operating alongside internationally important electronics, semiconductor, automotive and shipbuilding industries. This creates substantial potential for integrating robotics, advanced computing and sensor technologies into military equipment. The country’s strategic circumstances nevertheless differ from Japan’s and Taiwan’s because its national defence is shaped heavily by the requirements of the Korean Peninsula, including conventional military threats, artillery, missiles and the need to sustain a technologically advanced force capable of responding rapidly to contingencies.

Unmanned systems and artificial intelligence can contribute to reconnaissance, infrastructure surveillance, logistics and selected defensive functions, but South Korea’s military modernisation cannot be reduced to their adoption. The continuing importance of conventional deterrence, combined-force operations and air and missile defence creates a requirement for technological integration across established military organisations. A national industrial strategy must reconcile commercial technological innovation with the qualification and security requirements of defence procurement.

South Korea’s industrial strengths may support the development and manufacture of advanced systems, but the extent of operational implementation must be evaluated through individual procurement and testing records. The presence of major electronics or robotics manufacturers is not sufficient evidence of a particular military capability. The essential government question is how domestic technological resources can be converted into dependable equipment while maintaining interoperability with allies and avoiding unnecessary dependence on proprietary technologies that may complicate future integration.

India: indigenous military electronics and the expansion of unmanned-system detection

India is pursuing defence modernisation within a distinctive strategic environment involving extensive land borders, maritime interests in the Indian Ocean and the requirement to manage military capabilities across geographically diverse operating conditions. Its industrial-policy objectives place considerable importance on domestic production, technology development and the expansion of national suppliers. These priorities are particularly relevant to military electronics, radar systems and unmanned technologies, where domestic manufacturing can potentially reduce supply-chain exposure and support long-term maintenance.

A concrete example occurred on 21 October 2026, when India’s Ministry of Defence announced a contract worth approximately ₹770 crore with Bharat Electronics Limited for improved low-level lightweight radars. According to the government, the equipment is intended to detect and track targets including small unmanned aircraft and provides capabilities for prioritising aerial threats. The procurement is significant because the detection and classification of low-altitude objects represent important components of air defence, particularly where small drones may be difficult to manage through systems optimised for larger targets. The government also explicitly connected the contract with domestic manufacturing and the participation of smaller industrial suppliers. MOD Inks ₹770 Crore Contract to Procure Improved Low Level Light Weight Radars for Indian Army — Ministry of Defence, Government of India — October 2026.

The distinction between a radar acquisition and a complete counter-drone capability is important. Radar can provide information about potential threats, but operational protection also requires classification, command arrangements, suitable engagement capabilities and trained personnel. The contract therefore establishes a specific investment in the detection component of India’s defence architecture rather than demonstrating a complete national solution to unmanned aerial threats.

India’s broader industrial challenge involves translating domestic technology development into production that meets the requirements of different military services. Its armed forces operate across demanding environmental conditions, and systems suitable for one theatre may require modification elsewhere. The strategic value of domestic production will depend on technical reliability, access to components, manufacturing scale and long-term maintenance, rather than solely on the nationality of the prime contractor.

Asian strategic response matrix

Country	Documented policy or acquisition	Financial figure or status	Principal geographical requirement	Main industrial question
Japan	SHIELD unmanned coastal-defence initiative	Approximately ¥100.1bn in FY2026	Defence of remote islands and maritime approaches	Integration of air, surface and underwater systems
Japan	Broader unmanned defence capability enhancement	Approximately ¥277.3bn in FY2026	National surveillance and asymmetric defence	Production and integration across military services
Taiwan	Proposed special unmanned-system procurement	NT$210bn proposed ceiling through 2031	Asymmetric defence and national resilience	Legislative approval and dependable supply
South Korea	Development of advanced military technologies within a sophisticated industrial base	No directly comparable programme total established here	Korean Peninsula deterrence and defence	Translating industrial expertise into validated military capability
India	Improved low-level lightweight radar procurement	Approximately ₹770 crore contracted in October 2026	Detection of low-altitude threats	Domestic electronics production and systems integration

The Japanese figures derive from the Ministry of Defense FY2026 budget documentation and 2026 Defence White Paper. India’s contract is documented in the Ministry of Defence’s 21 October 2026 procurement announcement.

The central Asian judgment is that autonomous military technology will evolve according to different geographic and political requirements. Japan’s priority is closely linked to maritime and coastal defence, Taiwan’s to asymmetric resilience and domestic industrial continuity, South Korea’s to the integration of advanced technologies with established deterrence requirements, and India’s to the expansion of indigenous capabilities across diverse land and maritime environments. These different models should not be ranked through aggregate announced investment figures, since their financial definitions and underlying military requirements are not equivalent.

Chapter 17. Türkiye, the Gulf States and Emerging Military-Industrial Powers: Export Competition, Technology Transfer and Strategic Dependency

Türkiye’s defence-industrial development and the internationalisation of unmanned military technologies

Türkiye has become an important actor in the international market for unmanned military technologies through the development of domestic aircraft, associated sensors and military-industrial partnerships. Its strategy differs from countries that primarily acquire unmanned equipment through foreign procurement because it combines national military requirements with an ambition to sustain an internationally competitive defence-export sector. The industrial significance extends beyond individual unmanned aircraft: export success can support production continuity, investment in research and development, supplier participation and the accumulation of operational experience across different customers and environments. However, claims concerning technological performance must remain distinct from manufacturing capacity and verified operational availability, particularly when advanced capabilities are presented in manufacturer announcements or military demonstrations.

In September 2026, Türkiye’s Ministry of National Defence described a portfolio of systems developed by Baykar, including the Bayraktar TB2, AKINCI, TB3 and KIZILELMA, as well as smaller unmanned aircraft and precision-guided weapons. The ministry attributed more than 1.25 million flight hours to the Bayraktar TB2 and emphasised the company’s contribution to the country’s defence exports. These are official Turkish government statements concerning the performance and industrial role of Turkish systems; they should not be treated as independently verified evidence of the full operational capabilities of every platform listed. The ministry’s presentation is nevertheless important because it demonstrates the breadth of Türkiye’s industrial ambitions, encompassing established remotely operated aircraft, ship-compatible systems and developmental unmanned combat aviation. Haftalık Basın Bilgilendirme Toplantısı — Türkiye Cumhuriyeti Millî Savunma Bakanlığı — September 2026.

The international significance of Turkish unmanned systems lies partly in their relationship with countries seeking military capabilities without acquiring the most expensive categories of conventional aviation. Exports can provide access to reconnaissance and other functions suited to national requirements, but the economic and strategic value depends on the terms of procurement and support. Operators require training, spare parts, technical assistance, communications infrastructure and continuing access to approved components. A purchasing country may acquire sophisticated equipment while remaining dependent on the original manufacturer for software updates, repairs or specific operational functions. Defence exports can therefore create durable industrial relationships extending beyond the initial contract.

Military technology transfer and the difference between assembly and sovereign capability

Technology-transfer agreements are frequently presented as mechanisms for strengthening national defence industries, but their practical content can vary substantially. Some agreements provide for local assembly using imported components. Others may involve manufacturing licences, technical documentation, specialist training, maintenance authority or joint development. These arrangements create different degrees of industrial autonomy. A factory assembling imported systems may generate employment and logistical advantages without obtaining control over critical subsystems. Conversely, a joint-development programme can potentially provide broader technological access but may require substantial domestic investment and specialised personnel.

The distinction is particularly important for countries attempting to establish new unmanned-system industries. Final assembly is often easier to develop than advanced electronics, precision sensors, secure communications or reliable military software. A government seeking domestic production must determine which competencies are economically sustainable and strategically important. Attempting to localise every component without sufficient demand may increase costs and reduce equipment reliability, while dependence on a single foreign supplier can create vulnerability during political or logistical disruption.

A credible industrial development strategy therefore requires a phased approach to capability acquisition and supplier development. Governments must establish the minimum technologies over which national control is necessary, identify components that can be obtained through diversified international markets and negotiate contractual arrangements that preserve access to maintenance and technical updates. The industrial value of an agreement should be assessed through verified production, domestic supplier participation, workforce development and control over critical processes, rather than through the number of announced partnerships.

The Gulf states as technology customers and emerging industrial partners

The Gulf states face distinctive defence requirements arising from their economic geography, critical energy infrastructure, international transport routes and exposure to regional security instability. Advanced defensive systems are important for protecting industrial facilities and population centres, but national defence planning also involves the ability to sustain these systems during prolonged periods of tension. This creates an incentive to develop domestic maintenance facilities, qualified technical personnel and local manufacturing capacity where economically and technically feasible.

Saudi Arabia and the United Arab Emirates have pursued defence-industrial localisation through different national institutions and commercial arrangements. The strategic challenge is to turn procurement expenditure into durable capabilities rather than simply increasing the domestic proportion of visible assembly activities. Advanced unmanned and counter-unmanned technologies involve complex supply chains, and reliable domestic production requires more than access to a platform design. Specialist components, software, testing, maintenance and certification arrangements are important determinants of industrial autonomy.

For Gulf governments, participation in joint ventures with established foreign defence companies can provide access to technology and production processes, but contractual design is consequential. Restrictions on re-export, source-code access, technical modification and the use of imported components can affect whether equipment remains serviceable during external disruption. Industrial-policy success should therefore be measured through the authority and capacity to sustain systems over time, not solely through the number of locally assembled units.

Emerging manufacturers and the changing structure of defence competition

The international diffusion of unmanned technologies can reduce some barriers to entry into selected defence markets because certain components and manufacturing processes originate in commercial sectors. Countries with established electronics, machining, software and industrial-automation capabilities may be able to enter particular equipment categories more rapidly than traditional major-platform manufacturing would allow. Nevertheless, entry into military markets remains constrained by export controls, technical qualification, customer confidence, working capital and the ability to provide long-term support.

The resulting international competition is likely to become more differentiated. Established defence exporters may retain advantages in complex integrated systems, while newer producers compete in specialised equipment, components and modular platforms. Some countries may become important suppliers of sensors, communications equipment or propulsion systems without manufacturing complete aircraft or naval platforms. Others may concentrate on maintenance, integration or software services. This distribution of activity complicates conventional definitions of national defence-industrial strength because a state can occupy a strategically important position within a supply chain without appearing prominently in statistics concerning completed military-platform exports.

The risk of concentrated component dependencies remains significant. Multiple manufacturers operating in different countries may rely on the same underlying electronics, precision machinery or software, creating vulnerabilities that are not visible in the nationality of the final product. Governments seeking industrial sovereignty must therefore examine supplier relationships several levels below the primary contractor. The ability to substitute components and sustain production during interruptions may ultimately provide greater security than a nominally domestic final-assembly facility.

International defence-industrial models and their strategic consequences

Industrial model	Illustrative national context	Main economic advantage	Principal strategic risk	Evidence necessary for assessment
Established exporter with domestic system development	Türkiye	Export demand can support continued product development and production	Dependence on foreign components and customer support obligations	Audited exports, accepted deliveries and support capacity
Joint venture and licensed production	Gulf industrial partnerships	Technology access and local industrial participation	Restrictive licences and limited control over critical technology	Contractual rights, domestic value added and technical qualifications
Specialised component manufacturing	Emerging suppliers in electronics and precision engineering	Participation without requiring complete platform production	Exposure to a narrow customer or product category	Qualified suppliers, production output and customer diversification
Sovereign integration of imported subsystems	States developing domestic military-industrial capacity	National control over architecture and final integration	Continuing dependence on indispensable imported components	Technical authority, supply security and sustainment
Multinational co-development	European and allied industrial partnerships	Shared cost, larger potential market and distributed expertise	Workshare disputes, governance and export restrictions	Executed agreements, development milestones and accepted deliveries

The Turkish defence-industrial example is supported by the Ministry of National Defence’s September 2026 statement. The other categories are analytical industrial models and do not imply that every named country has completed a specific production agreement.

The most important long-term consequence is that unmanned military technologies are expanding the number of states and companies capable of participating in selected areas of defence production, without eliminating the technological and financial advantages enjoyed by established military-industrial powers. This creates opportunities for industrial diversification but also increases competition over components, technical standards, export markets and maintenance relationships. The strategic importance of a producer will increasingly depend on its capacity to support equipment throughout its operating life and to adapt technology when operational requirements change.

Pillar II — Comparative Global Assessment of National Strategic Responses

The central strategic distinction: national ambition, industrial implementation and verified military capability

The analysis of the principal military powers demonstrates that autonomous warfare is not producing a uniform pattern of national modernisation. Countries are responding according to their geography, alliance commitments, industrial structure, fiscal capacity and the military threats they consider most consequential. Ukraine has developed unusually rapid feedback between operational requirements and domestic manufacturing under wartime pressure. Russia is sustaining a prolonged military-industrial contest that places considerable demands on Ukrainian defensive resources. The United States must reconcile advanced military technology with quantity and logistical endurance across extensive distances, while China is seeking to integrate emerging technology into broader national military modernisation. NATO and the European Union are pursuing complementary but institutionally distinct programmes intended to strengthen operational interoperability and defence-industrial capacity.

Within Europe, the differences are substantial. Italy’s opportunity lies partly in integrating national defence-electronics and maritime expertise with wider European programmes. France is reinforcing a broad sovereign military model through additional multiyear funding, while Germany is introducing organisational structures intended to connect unmanned operations with testing and technological development. Britain has moved towards a more explicit investment programme covering autonomous systems, digital targeting and munitions production. Poland is constructing a large territorial counter-drone architecture, while Baltic and Nordic governments are investing according to different combinations of geography, fiscal capacity and allied defence obligations.

In the Middle East, the importance of layered air defence and critical infrastructure protection creates different requirements from those associated with European territorial defence. Israel’s development of directed-energy interception illustrates one approach to expanding defensive options, while regional states continue to confront the need for resilient military and civilian infrastructure. Across Asia, Japan is seeking to combine conventional and unmanned capabilities within a maritime-defence architecture, Taiwan faces asymmetric military and domestic political constraints, South Korea must integrate advanced technology with existing deterrence requirements, and India is expanding indigenous military electronics and low-altitude detection.

Türkiye and other developing military-industrial producers add a further dimension by demonstrating the importance of exports, technology transfer and specialised manufacturing within a more competitive international defence market. The overall result is a redistribution of opportunities across national industrial ecosystems, but not a disappearance of the advantages associated with established defence infrastructure, sophisticated conventional forces or reliable access to strategic components.

Final comparative matrix: government priorities and implementation constraints

Country or grouping	Primary strategic requirement	Principal documented or established direction	Main industrial opportunity	Decisive implementation constraint
Ukraine	Sustaining military operations and replacing losses	Domestic industrial expansion and wartime procurement reform	UAV production, software and joint manufacturing	Financing, logistics and sustained production
Russia	Sustaining prolonged military pressure	Continued military-industrial mobilisation and adaptation	Established defence production and technical modification	Resource allocation and critical component access
United States	Global military effectiveness and Indo-Pacific deterrence	Affordable autonomous mass alongside advanced military systems	Robotics, software, aerospace and defence integration	Procurement scale, logistics and interoperability
China	Military modernisation and regional strategic leverage	AI-enabled systems and information-oriented force development	Large manufacturing and civilian technology ecosystem	Operational maturity and integrated readiness
NATO	Collective operational interoperability	Drone Edge and multinational defence coordination	Common requirements and broader allied market	National procurement fragmentation
European Union	Defence-industrial capacity and strategic resilience	SAFE loans and coordinated investment	Cross-border production and supply chains	Contract execution and national industrial interests
Italy	Mediterranean security and allied defence	Counter-UAS and maritime technology integration	Defence electronics, naval systems and advanced manufacturing	Procurement coordination and qualification
France	Strategic autonomy and high-intensity readiness	Revised 2024–2030 military programme	Sovereign defence technologies and industrial scaling	Maintaining broad capability within financial constraints
Germany	Eastern-flank defence and military reorganisation	Dedicated unmanned-systems regiment	Industrial conversion and electronic systems	Fielding, training and sustained readiness
United Kingdom	Integrated force and global defence commitments	Funded drone, AI and digital targeting programmes	Advanced software, unmanned systems and munitions	Delivery, integration and workforce capacity
Poland	Territorial protection and eastern-flank security	SAN and SAFE-financed procurement	National defence manufacturers and international cooperation	Large-programme integration
Baltic states	Territorial defence and allied reinforcement	Air defence, detection and unmanned investment	Specialist technology and multinational cooperation	Limited scale and critical infrastructure exposure
Sweden	Northern European security and surveillance	Unmanned systems and space investment	Sensors, aerospace and maritime technologies	Capability integration and delivery
Israel	Layered protection against diverse aerial threats	Iron Beam delivery and integrated air-defence testing	Directed energy, sensors and defence electronics	Scaling and sustaining protection
Japan	Maritime and remote-island defence	SHIELD and broader unmanned capability investment	Robotics, shipbuilding and electronics	Integration across maritime environments
Taiwan	Asymmetric defence and national resilience	Domestic unmanned procurement ambitions	Electronics and distributed manufacturing	Political approval and supply security
South Korea	Peninsula deterrence and advanced military capability	Integration of domestic industrial technology with defence requirements	Electronics, robotics and shipbuilding	Operational qualification and force integration
India	Domestic military-industrial development and territorial security	Radar procurement and unmanned technology priorities	Military electronics and component production	Scale, reliability and integration
Türkiye	Defence exports and national technological development	Established unmanned-system portfolio and advanced programmes	Aircraft, electronics and international supply relationships	Component dependencies and support obligations
Gulf states	Strategic infrastructure protection and military diversification	Procurement and industrial localisation efforts	Maintenance, integration and selected domestic production	Technology control and long-term sustainment

The individual national assessments establish that procurement activity, industrial production and military readiness are not interchangeable indicators. A government can commit significant financial resources without completing the delivery of a corresponding capability. A manufacturer can announce advanced technology without establishing operational reliability. An army can introduce a specialist formation before completing its equipment and training requirements. These distinctions are essential when comparing national strategies and evaluating how the international military balance may evolve through 2031.

Net Strategic Assessment

The global competition over autonomous and electronically contested warfare is becoming a competition among national systems of military production, technological development, procurement and institutional adaptation. The most technologically advanced states retain important advantages in sophisticated sensors, aerospace capabilities, defence electronics and integrated command structures, but the diffusion of unmanned technologies has increased the relevance of industrial output, technical adaptability and equipment replacement. At the same time, countries with large manufacturing sectors or expanding defence-export industries are acquiring opportunities to enter selected military markets without reproducing every element of the traditional defence-industrial model.

The resulting international security environment is not moving towards a simple division between autonomous and conventional military powers. Instead, governments are developing different combinations of high-performance platforms, distributed unmanned systems, defence electronics, industrial capacity and national command structures. The relative effectiveness of these combinations will depend on specific operational requirements, geographical conditions, interoperability and the capacity to sustain prolonged military activity.

The principal strategic conclusion is that national military advantage will increasingly depend on the ability to connect industrial resources, technological innovation and operational requirements within a reliable system of command and sustained production. Countries that achieve this integration will be better positioned to preserve military effectiveness under pressure. Countries that concentrate on isolated technologies or aggregate procurement announcements without resolving logistics, training, industrial dependencies and operational validation risk creating expensive modernisation programmes that deliver less usable military capability than their budgets suggest.

This assessment establishes the national and alliance foundations for examining global defence-industrial competition, economic consequences, international legal governance, regional escalation scenarios and the strategic balance through 2031.

---

PILLAR III — INDUSTRIAL POWER, STRATEGIC RISKS AND THE INTERNATIONAL SECURITY ORDER TO 2031

Chapter 18. Global Defence Industrial Competition: Manufacturers, Supply Chains, Critical Components and Production Capacity

The emergence of a new international division of military-industrial power

The transformation of military technology is producing a structural reorganisation of the international defence industry whose significance extends substantially beyond the growing production of unmanned aircraft. The decisive industrial competition concerns which countries and companies control the technologies, production processes, specialised materials and engineering capabilities necessary to manufacture sophisticated military systems at economically sustainable rates. The difference is fundamental. Possessing the ability to assemble an unmanned platform does not establish control over its semiconductor components, navigation equipment, electro-optical sensors, communications systems, specialised software or propulsion technologies. Equally, producing advanced military electronics does not guarantee access to the critical minerals, high-purity materials, industrial machinery and skilled personnel necessary to maintain production during a prolonged international crisis. Contemporary military-industrial sovereignty is consequently determined less by the nationality displayed on the final product than by the degree of practical control exercised over the entire production and maintenance chain.

This development is particularly consequential because technological competition and geopolitical fragmentation are occurring simultaneously. Governments are seeking greater security of supply at a time when important elements of advanced manufacturing remain concentrated in a relatively limited number of industrial jurisdictions. Globalisation has enabled defence manufacturers to obtain specialised components efficiently, but the geographical concentration of particular processing technologies and component suppliers creates vulnerabilities that cannot always be resolved through conventional procurement diversification. Two manufacturers located in different countries may appear to provide independent sources of supply while depending on the same upstream producer of magnets, high-purity materials, specialised electronic components or production machinery. A government assessing industrial resilience must therefore examine not only its direct suppliers but also the upstream dependencies that could interrupt several apparently separate procurement programmes simultaneously.

The International Energy Agency’s Global Critical Minerals Outlook 2026 provides important quantitative evidence of this problem. According to the IEA, China accounted for more than 90% of global refining supply in several strategically important material categories, including gallium, graphite, manganese and rare earths. The report also identifies gallium, magnet rare earths, yttrium, graphite, tungsten, tellurium, cobalt and germanium among the minerals exposed to particularly significant supply vulnerabilities. These materials have uses extending across civilian and military industries, including advanced electronics, aerospace systems, power equipment, magnets, specialised alloys and optical technologies. The strategic implication is that the production of relatively inexpensive military systems can remain dependent on industrial inputs whose availability is controlled by concentrated international processing networks. Global Critical Minerals Outlook 2026 — International Energy Agency — 2026.

The concentration of refining is especially important because access to raw mineral deposits does not automatically create access to usable industrial materials. Mining represents only one stage of a production process that may require complex chemical separation, refining, advanced purification, alloy manufacturing and precision component production. Establishing an alternative mine without creating suitable processing capacity can leave the downstream industry dependent on the same geographically concentrated suppliers. The IEA’s 2026 assessment identifies this imbalance directly: outside the dominant supplier, existing and announced rare-earth refining capacity would represent approximately two-thirds of expected mined supply by 2035, while planned magnet manufacturing would represent only about one-third. These figures concern a forecast industrial structure and should not be misinterpreted as current installed capacity or guaranteed future output. Their importance lies in demonstrating that investment in mineral extraction alone may fail to resolve the bottlenecks affecting industrial production. Global Critical Minerals Outlook 2026: Executive Summary — International Energy Agency — 2026.

The semiconductor dependency: advanced processors are not the only strategic components

Semiconductor sovereignty is frequently discussed in relation to the most advanced artificial-intelligence accelerators and leading-edge manufacturing nodes, but defence applications depend on a much broader semiconductor ecosystem. Military communications, radar processing, guidance equipment, power conversion, electronic countermeasures, sensors and unmanned platforms require devices with different performance characteristics, operating temperatures, reliability standards and manufacturing processes. Some applications benefit from cutting-edge computing capability, while others rely on mature semiconductor technologies, specialised radio-frequency devices, compound semiconductors or components designed to withstand demanding physical and electromagnetic environments. The strategic implication is that a country can possess sophisticated artificial-intelligence software while remaining vulnerable to shortages of comparatively less advanced components essential for manufacturing the equipment in which that software is employed.

Advanced military sensors illustrate this industrial complexity. Radar and electronic-warfare equipment depend on combinations of antennas, signal-processing components, high-frequency electronics, power systems and specialised materials. Electro-optical and infrared systems involve optical components, sensor materials, image processing and precision manufacturing. Secure communications require radio-frequency equipment, digital processing and reliable cryptographic implementation. These functions are not interchangeable, and shortages affecting one category cannot necessarily be resolved through additional investment in another. A government seeking to strengthen military electronics production must therefore identify the specific semiconductor families and manufacturing stages that influence its most important capabilities rather than equating national technological security with the possession of a single advanced chip fabrication facility.

The industrial challenge is intensified by differences in qualification requirements. Components suitable for consumer electronics may not necessarily satisfy military expectations concerning temperature tolerance, service life, vibration, electromagnetic compatibility or supply-chain traceability. In some cases, commercially available devices can be integrated effectively after appropriate testing; in others, specialised components remain necessary. The resulting procurement dilemma concerns the balance between commercial innovation, which can offer lower costs and rapid development, and controlled defence supply chains, which can provide greater assurance but may require longer production and certification cycles.

For Europe, this creates a strategic connection between semiconductor policy and defence-industrial planning. Italian, French, German and British technological ecosystems contain different strengths in microelectronics, sensors, precision engineering and systems integration. However, the contribution of those industries to military resilience depends on whether defence customers can obtain qualified components at the required scale and within acceptable delivery times. National or European funding directed towards semiconductor production will not automatically strengthen military capabilities unless the relevant manufacturing processes, qualification standards and component types correspond to identifiable defence requirements.

Critical minerals, refining capacity and the cost of industrial diversification

The financial dimension of supply-chain diversification is often underestimated. Alternative sources of production can increase strategic resilience, but they may involve higher capital expenditure, additional energy requirements, more expensive processing equipment and a limited pool of specialised engineers. The IEA reports that refining projects outside the dominant supplier can face capital costs approximately 20% to more than 150% higher, depending on the technology and location, while average operating costs may be approximately 50% higher. These differences complicate investment decisions because private companies must compete with established suppliers whose production costs and technical experience may be difficult to reproduce. Without predictable demand or appropriate public-policy support, strategically valuable alternative projects may remain commercially unattractive. Global Critical Minerals Outlook 2026 — International Energy Agency — 2026.

The report also estimates that approximately USD 60 billion of investment over the following decade could contribute to diversification of magnet rare-earth supply chains. This is not an estimate of total defence-sector investment, nor does it imply that the amount alone would guarantee complete independence. It describes an indicative investment requirement associated with a particular industrial segment. Its significance is comparative: the capital required to reduce concentration in certain upstream markets may be relatively modest compared with annual global military expenditure, but the projects can require years of development, specialist equipment and assured demand before producing qualified material.

The implications for governments are considerable. Industrial resilience can require the state to accept higher procurement costs in exchange for reduced exposure to supply interruption. Yet indiscriminate subsidies risk supporting uneconomic duplication or facilities that cannot obtain sufficient demand after the initial political commitment. The relevant policy objective is not necessarily to manufacture every strategic material domestically. It is to establish a sufficiently diversified and dependable network of qualified suppliers, supported by inventories, contractual guarantees, technical substitution where feasible and mechanisms for responding to severe disruptions.

Critical material dependencies: the industrial-security matrix

Material or industrial category	Important downstream applications	Documented concentration or market condition	Principal vulnerability	Government response requiring evaluation
Gallium	Compound semiconductors and high-frequency electronics	China accounts for more than 90% of refining supply within the IEA’s reported category	Concentrated refining and specialised purification	Qualified alternative refining and inventory policy
Rare-earth elements	Permanent magnets, motors and specialised military components	Highly concentrated refining; limited diversified magnet manufacturing	Separation, processing and magnet-production bottlenecks	Integrated mining, separation and manufacturing
Germanium	Specialised optics, infrared and communications applications	High supply-risk classification and significant international price divergence	Limited specialised refining and substitute options	Supplier diversification and qualification
Tungsten	High-performance alloys and specialised industrial applications	IEA reports substantial price increases through early 2026	Concentrated supply and demand volatility	Long-term sourcing and materials management
Graphite	Batteries and other industrial applications	China accounts for more than 90% of refining supply in IEA data	Processing concentration and equipment availability	Battery-material processing diversification
Yttrium	Selected advanced materials and specialised industrial uses	Identified among materials with substantial supply vulnerability	Limited alternative processing	Strategic supplier development
High-purity semiconductor materials	Electronic devices, sensors and power systems	Specialised production processes with limited qualified suppliers	Qualification and manufacturing bottlenecks	Technology-specific industrial investment
Precision manufacturing equipment	Components and advanced materials processing	Concentrated specialist expertise in selected technologies	Long replacement lead times and proprietary processes	Supplier development and maintenance access

Source: Global Critical Minerals Outlook 2026 — International Energy Agency, including its published assessment of processing concentration, price developments and diversification costs. The table identifies critical industrial relationships, not an assertion that every material is essential to every unmanned platform.

Defence manufacturing capacity: why production announcements cannot establish military endurance

A second structural problem concerns the measurement of manufacturing capacity. Official announcements frequently combine planned factory expansion, contracted production, maximum potential output and equipment delivered during a specified period. These categories are not equivalent. A manufacturer may possess sufficient floor space and assembly equipment to produce a large quantity of systems while remaining unable to obtain the required electronics or trained labour. A government may announce a substantial procurement programme before contracting the necessary components. A factory may complete production but experience delays during testing or acceptance, while equipment accepted by a procurement authority may subsequently remain unavailable because training or support infrastructure is incomplete.

For strategic assessment, it is therefore necessary to distinguish at least five industrial states: nominal manufacturing capacity, funded production capacity, realised output, accepted deliveries and equipment available for operational employment. A sixth category, sustained replenishment, is necessary when evaluating prolonged conflict. The ability to produce a specified quantity during one favourable quarter does not establish the ability to maintain that rate for several years while replacing worn machinery, retaining specialised personnel and responding to component shortages.

This distinction is particularly relevant to the international market for relatively inexpensive autonomous platforms. Production facilities can sometimes be expanded more rapidly than factories manufacturing advanced aircraft or major naval vessels, but qualification and supply constraints remain important. An industrial policy that rewards manufacturers primarily for announcing capacity risks producing an exaggerated picture of national readiness. A more reliable system would require periodic publication of appropriately aggregated production, acceptance and delivery information, while protecting details whose disclosure would create legitimate security risks.

European defence-industrial instruments and the transition from financing to manufacturing

The European Union is developing instruments that address different stages of this industrial problem. The European Defence Industry Programme (EDIP), formally adopted by the Council on 8 December 2025, provides €1.5 billion in grants for 2025–2027, including €300 million for a dedicated Ukraine Support Instrument. The programme is designed to strengthen industrial readiness, encourage common procurement, improve supply security and provide legal mechanisms supporting longer-term cooperation. The €300 million Ukraine allocation forms part of the overall €1.5 billion envelope and should not be added to it as a separate additional amount. European Defence Industry Programme — Council of the European Union — 2025.

A further development occurred on 12 October 2026, when the Council adopted the AGILE programme, worth €115 million, designed to accelerate the transition of innovative defence technologies from prototypes towards operational capabilities. The instrument is expected to become operational in early 2027 and focuses particularly on smaller companies, start-ups and scale-ups. Its importance lies in addressing a recurring gap between technical development and government procurement: manufacturers may demonstrate working technology without possessing the financial resources, qualification infrastructure or customer access needed to manufacture it at usable scale. EU Funding for Defence — Council of the European Union — October 2026.

These instruments address different industrial requirements and must not be treated as interchangeable financial resources. EDIP provides targeted grants and industrial-cooperation mechanisms. AGILE addresses the commercialisation and qualification gap facing innovative companies. SAFE, discussed in the preceding pillar, provides a substantially larger loan framework to participating states. The strategic question concerns whether these mechanisms can be coordinated so that research and development, initial qualification, production expansion and government purchasing form a continuous process rather than separate administrative activities.

The principal industrial outcome to 2031

The countries most capable of adapting to prolonged technological competition will not necessarily be those possessing the largest number of defence manufacturers. A more consequential measure will be the ability to sustain production of qualified equipment despite disruptions in international supply, technical changes and fluctuations in demand. Industrial depth requires access to specialised materials, reliable upstream suppliers, appropriate manufacturing equipment, technical personnel and a government purchasing system capable of converting operational requirements into enforceable contracts.

The resulting competition will increasingly involve industrial ecosystems rather than individual companies. Manufacturers of finished military platforms will remain important, but strategically significant positions may also be occupied by firms supplying specialised sensors, electronic components, software, precision manufacturing machinery and critical materials. National policy should therefore examine the concentration of industrial power throughout the supply chain, including sectors that are not traditionally classified as defence manufacturing.

The central judgment is that technological sovereignty should be defined through demonstrated control over critical capabilities and dependable access to essential inputs, not through the geographical location of final assembly alone. The most successful industrial strategies will combine domestic competence in strategically essential technologies with qualified international diversification, avoiding both excessive dependence and economically unsustainable duplication.

Chapter 19. Economic Consequences: Military Budgets, Procurement Reform, Infrastructure Protection and Technology Markets

Global military expenditure in 2025: the most recent complete comparative baseline

The growth of defence expenditure is becoming an increasingly significant component of international fiscal policy, but the global picture is more differentiated than aggregate statements about worldwide rearmament suggest. The latest complete annual series available at the October 2026 cut-off is the Stockholm International Peace Research Institute’s assessment of military expenditure in 2025, published in April 2026. SIPRI estimates that worldwide military spending reached USD 2.887 trillion, representing an increase of 2.9% in real terms compared with 2024. This was the eleventh consecutive year of growth and brought military expenditure to approximately 2.5% of global GDP, up from 2.4% in 2024. Over the decade from 2016 to 2025, global military expenditure increased by 41% in real terms. These figures establish the substantial scale of the contemporary security economy, while also demonstrating that annual growth slowed significantly compared with the 9.7% increase recorded in 2024. Trends in World Military Expenditure, 2025 — Stockholm International Peace Research Institute — April 2026.

The distribution of expenditure is particularly important. The United States remained the world’s largest military spender with USD 954 billion in 2025, followed by China at an estimated USD 336 billion, Russia at an estimated USD 190 billion, Germany at USD 114 billion and India at USD 92.1 billion. Together, these five countries accounted for approximately 58% of the global total. The figures describe military spending according to SIPRI’s methodology and should not be confused with official national defence budgets, which can differ in scope, accounting period and institutional coverage. In particular, SIPRI reported a 7.5% decrease in US military spending during 2025, largely influenced by the reduction of additional overseas military assistance expenditure relative to the preceding year. This does not establish a corresponding contraction in every American defence acquisition programme or a decline in the operational capabilities of the US armed forces. Trends in World Military Expenditure, 2025 — SIPRI — April 2026.

European expenditure followed a different trajectory. SIPRI estimated military spending across Europe at USD 864 billion, a real increase of 14% over 2024, while Asia and Oceania reached USD 681 billion, an increase of 8.1%. The contrast is strategically important because it indicates that the international defence economy is responding to several regional security developments simultaneously, rather than following one uniform global budgetary cycle. European governments are allocating greater resources in response to the Russia–Ukraine war and concerns about long-term defence readiness, while Asian states are modernising in relation to different regional threats and strategic competition. The industrial consequences include stronger demand for manufacturing capacity, specialist personnel, advanced electronics and military infrastructure, although the extent to which expenditure translates into domestic production varies substantially among countries.

The global defence expenditure hierarchy

Country or grouping	2025 expenditure, USD billion	Real change, 2024–2025	Important methodological qualification
World	2,887	+2.9%	SIPRI global total
United States	954	−7.5%	Includes relevant military assistance under SIPRI methodology
China	336	+7.4%	SIPRI estimate
Russia	190	+5.9%	SIPRI estimate
Germany	114	+24%	Significant expansion in military spending
India	92.1	+8.9%	SIPRI military expenditure
United Kingdom	89.0	−2.0%	Not identical to annual UK defence-budget presentation
Ukraine	84.1	+20%	SIPRI estimate; exceptionally high wartime burden
Saudi Arabia	83.2	+1.4%	SIPRI estimate
France	68.0	+1.5%	Not directly interchangeable with French multiyear programme totals
Japan	62.2	+9.7%	Military spending, not an unmanned-systems allocation
Israel	48.3	−4.9%	High military burden despite annual decline
Italy	48.1	+20%	SIPRI definition differs from some NATO and national reporting
South Korea	47.8	+2.6%	Includes wider military functions
Poland	46.8	+23%	Substantial eastern-flank modernisation
Spain	40.2	+50%	Strong annual increase from the preceding baseline

Source: Trends in World Military Expenditure, 2025 — Stockholm International Peace Research Institute — April 2026. Values are in current US dollars for 2025; annual percentage changes are calculated in real terms. Estimates are identified where applicable. Country totals are not measures of autonomous-warfare expenditure.

The table reveals several strategically significant developments. Germany’s increase of 24% places it among the most rapidly expanding large defence economies, while Poland’s 23% increase reflects substantial expenditure associated with its frontline security requirements. Italy’s estimated 20% increase demonstrates significant growth, although its underlying budgetary definitions require care when comparing it with national government figures or NATO expenditure commitments. China’s estimated 7.4% increase occurs against a much larger established industrial and military expenditure base than that of most regional competitors. Russia’s estimated expenditure continues to reflect the financial demands of prolonged operations, while Ukraine’s military spending is exceptional relative to the size of its economy.

The fiscal burden of prolonged warfare: stocks, flows and budgetary sustainability

The consequences of military expenditure differ sharply according to the size of the national economy, its fiscal position and the sources of financing available. Ukraine provides an extreme example. SIPRI estimated that Ukrainian military expenditure in 2025 represented approximately 40% of GDP and 63% of government expenditure, reflecting the exceptional resource allocation associated with sustained warfare. Russia’s estimated military spending represented approximately 7.5% of GDP, while Israel’s military burden was approximately 7.8% and Poland’s approximately 4.5%. These ratios are not measures of military efficiency; they indicate the proportion of economic resources allocated to military expenditure under SIPRI’s definitions. Trends in World Military Expenditure, 2025 — SIPRI — April 2026.

The fiscal consequences also depend on how military commitments are financed. Expenditure funded through current taxation has different implications for government borrowing than expenditure financed through additional debt. Multiyear contracts can create future obligations even when the initial budgetary disbursement is limited. Financial assistance from allies can support current spending while introducing uncertainty concerning future political decisions and delivery schedules. Loans made available through European instruments can improve short-term financing conditions but do not eliminate the obligation to repay principal and interest according to the applicable terms.

A substantial increase in defence expenditure can also influence economic activity through demand for manufacturing, research, construction and technical employment. However, the relationship is not automatically positive at the level of the entire economy. If skilled engineers, industrial equipment or critical materials are already scarce, additional military demand can raise costs and displace other investment. Defence procurement that relies heavily on imports may produce a different domestic economic effect from expenditure directed towards qualified national suppliers. The fiscal evaluation should therefore distinguish between gross expenditure, domestic industrial value added, imported components, employment effects and future liabilities.

NATO’s 2035 investment commitment and its consequences before 2031

The NATO commitment adopted at The Hague in June 2025 establishes a particularly important long-term fiscal framework. Allies agreed to move towards annual defence and defence-related expenditure equivalent to 5% of GDP by 2035, comprising at least 3.5% for core defence requirements and up to 1.5% for defence- and security-related investment, including certain infrastructure, resilience and industrial measures. This is a commitment with a target date beyond the report’s 2031 analytical horizon. It should not be represented as a requirement that every ally will have achieved the full 5% by 2031, nor should the 1.5% category be treated as interchangeable with conventional military procurement. Defence Investment and NATO’s 5% Commitment — NATO — June 2026.

The distinction has major consequences for national fiscal planning. Countries beginning from different military expenditure levels will face different requirements for annual increases, industrial investment and budgetary adjustment. A country with substantial existing military infrastructure may allocate additional resources to modernisation and equipment replacement, while another may need to finance basic readiness, personnel, ammunition and essential facilities before introducing significant quantities of advanced autonomous systems. The headline percentage of GDP does not therefore specify the composition of national investment or its expected contribution to operational capability.

Another important issue is the interpretation of expenditure classifications. SIPRI notes that national and NATO figures can diverge because their definitions and accounting methods differ. Such discrepancies matter when governments or analysts attempt to compare military burdens, estimate industrial demand or evaluate the credibility of allied commitments. An infrastructure project classified as defence-related under one reporting framework may not be included in another. Public financial scrutiny requires clear definitions to prevent the growth of nominal expenditure targets from obscuring the actual resources available for military equipment, personnel and operations.

Defence procurement reform and the economic significance of production timing

A major fiscal challenge lies in the time separating budget authorisation from operational capability. Governments can increase appropriations significantly without producing an immediate corresponding increase in usable equipment. Complex defence programmes require specification, contracting, component procurement, manufacturing, testing, acceptance, installation and personnel training. Each stage can introduce delays and additional costs. The impact is particularly important for infrastructure and production facilities, where the establishment of domestic capacity may require several years before output becomes available.

Procurement reform must therefore address the relationship between industrial planning and operational urgency. Shortening acquisition procedures can be valuable where technologies are sufficiently mature and technical risks are manageable, but excessive acceleration can lead to failures, incompatible systems or unnecessary expenditure on products that cannot be supported over their intended service life. A balanced process should distinguish between established technologies requiring rapid scaling and experimental technologies requiring further validation.

The European Defence Agency’s first Annual Defence Readiness Report, presented to defence ministers in September 2026, reinforces this issue by identifying continuing capability gaps despite higher investment. The report’s publication is significant because it establishes a recurring institutional mechanism for examining whether European defence expenditure is translating into the capabilities required for readiness objectives. The statement that spending has risen while important gaps remain illustrates the central limitation of evaluating security through financial commitments alone. Ministers Welcome First Annual Defence Readiness Report — European Defence Agency — September 2026.

Critical infrastructure protection and the expanding economic perimeter of defence

The economic consequences of autonomous and electronic warfare extend beyond military procurement because critical infrastructure increasingly requires protection against physical attacks, electronic interference and cyber disruption. Ports, airports, electricity transmission networks, telecommunications facilities, industrial complexes and transport corridors can experience economic losses even when they remain physically intact, particularly if security alerts require temporary suspension of operations or if communications services become unreliable.

For government budgeting, this creates an allocation problem between military and civilian authorities. Some protective capabilities belong within armed forces or national security organisations, while others require investment by infrastructure operators or sector regulators. The same equipment may have legitimate applications in several institutional environments, but the legal authorities governing detection, electronic interference and use of force can differ substantially. A procurement system that ignores these distinctions can create expensive duplication or equipment that cannot be lawfully employed where it is needed.

The economic value of protection should consequently be assessed through avoided disruption and improved recovery capacity, rather than only through the number of threats intercepted. A system that provides earlier warning, improves operational continuity or reduces the time required to restore essential services may deliver substantial economic benefits even without producing a measurable number of military engagements. Conversely, highly sophisticated equipment may provide little value if its installation and operating costs exceed the benefits achievable through less expensive organisational or infrastructure measures.

Fiscal and procurement indicators for government decision-making

Indicator	Required evidence	Decision relevance	Common analytical error
Military spending as share of GDP	Comparable national expenditure and GDP definitions	Fiscal burden and alliance commitments	Equating expenditure with military effectiveness
Procurement commitments	Signed contracts, obligations and delivery conditions	Future industrial demand	Reporting contract ceilings as disbursed spending
Equipment deliveries	Accepted equipment by reporting period	Physical acquisition progress	Confusing ordered units with delivered units
Operational availability	Serviceable systems, personnel and support arrangements	Actual readiness	Treating inventory as usable military capacity
Domestic industrial value added	Qualified domestic production and imported components	National economic and strategic benefits	Treating final assembly as complete sovereignty
Production lead times	Contracted schedules and actual acceptance dates	Ability to respond to urgent requirements	Using factory nameplate capacity as realised output
Infrastructure resilience	Recovery times and continuity of essential services	Civilian and military economic security	Measuring protection only through interceptions
Financing sustainability	Interest costs, debt obligations and multiyear liabilities	Long-term fiscal risk	Treating loans as grants or commitments as current expenditure
Technological obsolescence	Update costs, replacement cycles and qualification requirements	Lifecycle budgeting	Assuming initial equipment specifications remain adequate

The strategic implication is that defence ministries and finance ministries will increasingly need to evaluate national military modernisation as a combined industrial, fiscal and infrastructure programme. The affordability of a military capability cannot be established by the initial procurement price, and the success of an industrial policy cannot be measured solely through the total value of announced contracts. Durable readiness requires predictable financing, controlled procurement, sufficient domestic or allied supply capacity and institutions capable of determining whether expenditure has produced the intended operational effect.

Chapter 20. Military Artificial Intelligence Governance, International Humanitarian Law and Command Responsibility

The legal problem is not the existence of artificial intelligence but the conduct of military operations employing it

The international debate concerning military artificial intelligence has entered a period in which the central issue is no longer whether automated technologies will become important to warfare, but whether existing legal obligations and emerging governance arrangements can adequately regulate systems whose behaviour may be increasingly difficult to predict, supervise or explain. The distinction between artificial intelligence used to support military administration, systems employed for intelligence analysis and weapons capable of selecting and engaging targets without further human intervention is fundamental. These technologies create different risks, and describing all of them as autonomous weapons obscures the legal requirements applicable to their development and use. The presence of machine learning within a military platform does not, by itself, determine its legal classification or establish that decisions concerning the use of force have been delegated to software.

The international humanitarian law framework governing military operations applies irrespective of the sophistication of the equipment employed. The requirements concerning distinction, proportionality and precautions in attack remain relevant where information is produced by automated systems and where weapons incorporate autonomous functions. Artificial intelligence does not create an exemption from these obligations. At the same time, the application of existing legal rules to new technologies requires careful examination of the circumstances in which a system operates, the information available to commanders and the predictability of the weapon’s effects. A system may function correctly according to its technical design while still being unsuitable for employment in a particular environment if responsible personnel cannot adequately assess its foreseeable consequences.

The International Committee of the Red Cross has argued that autonomous weapons systems raise distinctive legal and humanitarian concerns where their design permits critical targeting functions to operate without further human intervention after activation. In its October 2026 guidance, the ICRC distinguishes these systems from remotely controlled weapons and technologies using artificial intelligence for other purposes. It also calls for a legally binding international instrument that would prohibit certain autonomous systems, including weapons whose effects are unpredictable and autonomous systems designed to target people directly, while imposing restrictions on other categories. This is an institutional policy position rather than an assertion that all the proposed prohibitions have already entered into force as universally binding treaty law. Frequently Asked Questions: Autonomous Weapon Systems — International Committee of the Red Cross — October 2026.

Article 36 weapons reviews and the obligation to assess legality before deployment

Article 36 of Additional Protocol I to the Geneva Conventions establishes an important legal requirement for states bound by that provision. When studying, developing, acquiring or adopting a new weapon, means or method of warfare, the state must determine whether its employment would be prohibited in some or all circumstances by Additional Protocol I or another applicable rule of international law. This obligation is not limited to weapons containing artificial intelligence; it applies more broadly to new military technologies and methods within the scope of the provision. For states that are not parties to Additional Protocol I, the precise treaty obligation differs, although they remain bound by other applicable treaty and customary international humanitarian law. Article 36 — New Weapons — Additional Protocol I to the Geneva Conventions — International Committee of the Red Cross Treaty Database.

The legal significance of Article 36 becomes especially important when autonomous systems depend on software capable of modification after the initial weapons review. Traditional equipment reviews often examine a comparatively stable configuration of hardware and intended use. AI-enabled systems may introduce additional complexity because their behaviour can depend on software versions, training data, operating parameters and interactions with external information systems. A review conducted for one configuration does not necessarily establish that every subsequent modification remains lawful under all possible operational conditions. Governments must therefore determine when changes are sufficiently material to require renewed examination and how to preserve documentation connecting a deployed software version with the conditions evaluated during qualification.

The ICRC’s guidance on legal reviews emphasises the need for rigorous and multidisciplinary examination, including legal, military and technical expertise. This is particularly important because a lawyer cannot independently establish the technical predictability of a complex system, while an engineer cannot determine the legality of a weapon solely by demonstrating compliance with software requirements. Effective review therefore requires institutional cooperation between operational authorities, technical specialists, legal advisers and procurement organisations. A Guide to the Legal Review of New Weapons, Means and Methods of Warfare — International Committee of the Red Cross — 2020.

Human judgment, autonomy and the allocation of command responsibility

One of the most contested aspects of military artificial intelligence concerns what constitutes an appropriate level of human involvement in decisions affecting the use of force. The question cannot be resolved merely by establishing whether a human operator presses a button. A person may formally authorise a system without understanding the circumstances in which it will select targets, the limitations of its sensors or the implications of its operating parameters. Conversely, a system that automates certain technical functions may remain subject to meaningful human direction when its intended tasks, geographical boundaries, operational conditions and available safeguards are adequately defined.

The United States Department of Defense’s Directive 3000.09 provides a significant national governance example. Updated in January 2023, the directive requires autonomous and semi-autonomous weapon systems to be designed so commanders and operators can exercise appropriate levels of human judgment over the use of force. It also establishes requirements concerning realistic testing, system reliability, operational suitability and the minimisation of unintended engagements. Certain autonomous weapon systems are subject to senior-level review before formal development and again before fielding, depending on the system and applicable exceptions. This is a United States departmental policy rather than an international treaty, but it demonstrates how a major military power has established an internal framework addressing the relationship between autonomy, command authority and technical assurance. DoD Directive 3000.09: Autonomy in Weapon Systems — United States Department of Defense — January 2023.

The most important legal consequence is that responsibility cannot be transferred to an algorithm as if software were a legal actor equivalent to a commander or a state. The deployment and employment of military systems remain connected to decisions made by responsible persons and institutions. However, the precise allocation of individual criminal responsibility, state responsibility or command responsibility depends on the facts of a particular case and the applicable legal rules. It would therefore be incorrect to assume that every unintended machine-generated engagement automatically establishes the criminal responsibility of a particular commander, just as it would be incorrect to assume that the use of an autonomous system creates an accountability gap in which no human or state obligations apply.

Commanders must understand the intended function and limitations of military equipment before authorising its employment. Procurement authorities must ensure that relevant technical assurance has been completed. Developers and manufacturers may have contractual, regulatory or other legal obligations depending on the jurisdiction and circumstances. Military legal advisers must evaluate whether the system and its intended methods of employment comply with applicable law. These responsibilities intersect but should not be collapsed into one undifferentiated concept of accountability.

International diplomacy and the difference between political consensus and binding obligations

The international governance process has advanced through discussions within the United Nations and the framework of the Convention on Certain Conventional Weapons, but political agreement on the importance of the issue is not equivalent to agreement on the exact provisions of a future treaty. States differ concerning definitions, acceptable levels of autonomy, verification mechanisms, restrictions on particular targeting functions and the relationship between existing international humanitarian law and possible new obligations.

The United Nations General Assembly adopted Resolution A/RES/80/57 on lethal autonomous weapons systems in December 2025 by 164 votes in favour, six against and seven abstentions. The vote demonstrates substantial international engagement with the subject, although a General Assembly resolution of this character does not itself establish a comprehensive legally binding prohibition on autonomous weapons. The existence of broad political support for continued consideration must be distinguished from agreement on the precise legal rules that states would accept, implement and enforce. Lethal Autonomous Weapons Systems — United Nations General Assembly Resolution A/RES/80/57 — December 2025.

A legally effective international arrangement would need to clarify the definitions of covered technologies and establish requirements capable of practical application. Overly broad definitions could inadvertently encompass ordinary automated systems whose functions do not create the same humanitarian concerns. Definitions that are too narrow could leave important technologies outside the framework. Restrictions on the geographical or temporal scope of autonomous operations may be easier to formulate than rules governing the internal technical complexity of proprietary machine-learning models, but implementation would still require national review procedures and appropriate evidence of compliance.

Verification presents another challenge. Some relevant features of an autonomous system may be observable through demonstrations or technical documentation, while others depend on software, datasets or operational parameters that governments or manufacturers regard as sensitive. An international governance framework must therefore balance transparency, technical assurance and legitimate security concerns. The difficulty does not make regulation impossible, but it limits the credibility of proposals that assume external observers can easily verify every aspect of a complex military algorithm.

Operational governance: the controls governments need before approving AI-enabled capabilities

For defence ministries, the practical governance requirement extends across the lifecycle of a system. Initial legal review is important, but it cannot replace operational testing, controlled software maintenance, documentation of the approved configuration or procedures for responding to identified failures. Systems connected to external data environments may be affected by changes in sensor inputs or communications conditions even when their internal software remains unchanged. Equipment that is suitable for one operational environment may become unreliable in another. Governments therefore need a process for defining approved conditions of use and identifying circumstances in which a capability should be restricted, modified or withdrawn.

The following matrix distinguishes existing legal obligations and national-policy measures from proposed international rules.

Governance requirement	Legal or policy foundation	Responsible authority	Principal evidence required	Strategic consequence
Weapons legality review	Article 36 of Additional Protocol I for bound states; other applicable law	National government and designated review authorities	Weapon design, intended use and foreseeable effects	Determines whether a new weapon can lawfully be adopted or used
Distinction	Applicable international humanitarian law	Military decision-makers and responsible institutions	Target information and operational context	Protection of civilians and civilian objects
Proportionality	Applicable international humanitarian law	Relevant attack decision-makers	Anticipated military advantage and expected incidental civilian harm	Limits attacks expected to cause excessive incidental harm
Precautions in attack	Applicable international humanitarian law	Military authorities responsible for planning and conducting attacks	Feasible verification and risk-reduction measures	Reduces avoidable civilian harm
Appropriate human judgment	US DoD Directive 3000.09 within its jurisdiction	US military development and command authorities	System design, training and operational procedures	National governance of autonomous weapons
Technical validation	National acquisition and safety requirements	Procurement, testing and military authorities	Reliability under representative conditions	Prevents deployment based solely on demonstrations
Software configuration control	National technical-assurance framework	Defence ministry, operator and contracted suppliers	Version documentation and change records	Preserves the relationship between approved and deployed systems
Additional international restrictions	ICRC proposals and ongoing diplomatic discussions	States negotiating potential instruments	Agreed definitions, treaty text and implementation mechanisms	Prospective international governance
Accountability and investigation	Applicable domestic and international law	Competent military and judicial authorities	Records, decisions and relevant circumstances	Supports assessment of responsibility after incidents

The relevant legal sources are Additional Protocol I, Article 36, the ICRC’s legal-review guidance, US DoD Directive 3000.09 and the ICRC’s October 2026 autonomous-weapons guidance.

Governance as a component of strategic reliability

The military value of effective governance extends beyond the avoidance of legal violations. Weapons that cannot be evaluated reliably or whose software configurations cannot be traced may create operational uncertainty for the armed forces employing them. Commanders may become reluctant to rely on equipment whose limitations are unclear, while allied forces may be unwilling to integrate data or capabilities that do not satisfy agreed technical and operational requirements. Conversely, well-documented systems supported by realistic validation and clear authorisation procedures can strengthen military confidence and make multinational cooperation more practical.

This produces an important connection between the governance of military artificial intelligence and defence-industrial competitiveness. Companies capable of providing credible technical documentation, independent testing results, appropriate configuration management and support throughout a system’s service life may acquire advantages in markets where government purchasers impose increasingly demanding assurance requirements. Such requirements can increase development costs, but they may also reduce the probability of expensive operational failures and support the longer-term reliability of public procurement.

The central legal assessment is therefore that military artificial intelligence does not create an entirely separate category of warfare exempt from established legal obligations. It introduces technologies whose characteristics require more sophisticated evaluation of predictability, control, human judgment and responsibility. The most credible national governance frameworks will integrate legal review, technical assurance and operational oversight without confusing voluntary principles, domestic policy requirements and binding international law.

Chapter 21. Future War Scenarios: NATO–Russia, Taiwan, the Middle East and Multidomain Escalation

Scenario analysis as a test of national resilience rather than a prediction of inevitable conflict

The development of autonomous military capabilities is altering the range of instruments available to governments during international crises, but technological change should not be interpreted as evidence that specific future wars are inevitable. Scenario analysis is useful when it identifies the mechanisms through which a crisis could intensify, the limitations of existing deterrence arrangements and the institutional decisions capable of influencing outcomes. It becomes misleading when speculative events are assigned precise dates or numerical probabilities without a defensible forecasting method. The scenarios examined here therefore concern possible pathways through 2031, grounded in documented military requirements and existing geopolitical tensions rather than purported knowledge of confidential plans or political decisions that have not been made.

The principal strategic development is that states increasingly possess capabilities capable of generating military pressure without immediately employing the most destructive conventional weapons available to them. Unmanned systems, electronic interference, cyber operations and military exercises can affect surveillance, infrastructure protection, force movements and public perceptions. Their political significance depends on context. An electronic interruption may arise from accidental interference, technical malfunction or deliberate hostile activity. An unmanned aircraft approaching sensitive airspace may represent reconnaissance, coercive signalling, an operational mistake or an attack. The danger lies partly in the possibility that governments must interpret ambiguous events under time pressure while different actors possess incomplete or conflicting information.

This creates a requirement for escalation management that operates alongside technological development. Governments must maintain the ability to attribute incidents with appropriate confidence, communicate with allies and adversaries, preserve independent intelligence assessments and avoid treating preliminary technical observations as conclusive evidence of hostile intent. The relevant strategic objective is not to eliminate every uncertainty, which is impossible, but to ensure that military and political institutions remain capable of making deliberate decisions despite incomplete information.

NATO–Russia: the eastern-flank crisis and the danger of ambiguous incidents

A potential NATO–Russia crisis would involve a security environment in which military forces, civilian infrastructure and alliance political commitments are closely connected. The eastern flank contains important transport networks, ports, energy infrastructure and national military installations, while the Baltic region includes geographical constraints that could intensify the consequences of military incidents. The increasing availability of unmanned aircraft and electronic-warfare capabilities creates additional possibilities for ambiguous events, especially where detection systems record objects or interference without immediately establishing their origin or intended purpose.

A plausible escalation pathway would begin with a series of incidents affecting the airspace or infrastructure of an allied state. National authorities would need to determine whether the events were accidental, criminal, the result of technical malfunction or attributable to a foreign military actor. The distinction could become politically consequential if public pressure demanded an immediate response before the relevant evidence had been consolidated. Governments would face competing requirements to demonstrate resolve, protect the population, maintain alliance credibility and avoid actions based on an incorrect interpretation of the incidents.

The institutional importance of such a scenario is reinforced by the Baltic defence ministers’ March 2026 joint statement concerning unmanned aircraft incidents affecting Baltic NATO airspace. The ministers emphasised that investigations were continuing, illustrating why responsible attribution must remain separate from the initial detection of an aerial object. The relevant strategic issue is not whether every incident represents an imminent armed conflict, but whether national and alliance procedures can manage repeated uncertainty without allowing misinterpretation to become an independent source of escalation. Joint Statement by the Ministers of Defence of the Baltic Countries on Drone Incidents — Estonian Ministry of Defence — March 2026.

A more serious pathway would involve a sustained confrontation in which electronic interference, cyber incidents and conventional military movements occurred simultaneously. Such combinations could complicate decision-making because governments would need to distinguish deliberate coordination from unrelated events. The presence of multiple disruptions would not necessarily establish a single centrally directed hostile operation. Reliable assessment would require compatible technical observations, intelligence corroboration and appropriate political consultation.

For NATO, the primary institutional requirement would be maintaining alliance cohesion while allowing national authorities to respond to events within their legal competences. Different states may possess different information, levels of exposure and political perceptions of risk. The speed with which information is exchanged and interpreted could become as consequential as the availability of defensive equipment. A centralised assessment process may improve coherence, but it must retain the capacity to examine evidence critically rather than prematurely forcing uncertain observations into one shared explanation.

Taiwan: coercion, maritime pressure and the vulnerability of commercial activity

A Taiwan contingency presents a different escalation geometry because the island’s security is closely connected to maritime and air access, international trade and the surrounding regional balance of forces. A military confrontation could involve conventional naval and air capabilities, missile systems, unmanned platforms and electronic operations, but the strategic consequences would not be limited to the physical military balance. Shipping, aviation, financial markets, semiconductor production and regional supply chains could all be affected by changes in perceived security or practical access.

One possible pathway involves an extended period of military pressure or coercive demonstrations intended to influence political decisions without immediately initiating a full-scale invasion. Such activity could include heightened military presence, changes in operating patterns and increased pressure on regional surveillance and maritime-security arrangements. The operational distinction between exercises, coercive signalling and preparation for military action can be difficult to assess through public observation alone. Governments must therefore avoid interpreting every increase in military activity as conclusive evidence of an imminent invasion, while also recognising that repeated demonstrations can affect regional security and commercial confidence.

A second pathway involves maritime restrictions or a crisis over access to sea and air routes. The economic consequences could arise before large-scale conventional combat if shipping operators, insurers or commercial aviation providers changed their behaviour in response to perceived danger. The resulting disruption would not necessarily be distributed evenly among countries. Economies dependent on regional trade, intermediate goods and specialised manufacturing would face different exposures, while governments might need to distinguish temporary commercial adjustment from sustained interruption of critical supply chains.

A third pathway concerns the possibility that technical systems used to maintain regional awareness become unreliable. Electronic interference, cyber incidents or incomplete surveillance information could complicate the assessment of maritime and aerial activity, particularly where multiple military and civilian actors operate within a concentrated geographical environment. The resulting problem would not be solved solely by acquiring additional unmanned equipment. It would require resilient communications, independent verification and political procedures for responding to uncertain information.

The United States Department of Defense’s 2025 report on China’s military development identifies the importance of PLA modernisation across operational domains, including capabilities relevant to possible Taiwan contingencies. The report is an official US assessment of Chinese military development rather than an authoritative statement of Beijing’s future political decisions. Its value for scenario analysis lies in identifying capabilities and planning considerations, not in establishing that a specific future operation has been ordered. Military and Security Developments Involving the People’s Republic of China 2025 — United States Department of Defense — December 2025.

The principal decision requirement for regional governments would be to distinguish deterrence from escalation. Military preparedness can reduce vulnerability, but responses to ambiguous events must preserve the capacity for political communication and independent assessment. The most consequential economic exposure could arise through the interruption of commercial confidence and essential supply chains, making civilian infrastructure resilience an integral component of regional security.

The Middle East: the interaction between air defence, regional escalation and economic infrastructure

A future Middle Eastern crisis would occur within an environment containing sophisticated state military capabilities, multiple regional security relationships and extensive strategic infrastructure. The proliferation of missiles and unmanned systems can increase the number of possible aerial threats, while layered air defence can provide additional options for protection. Yet technological developments do not eliminate the political and operational uncertainty associated with regional confrontation. Governments may face decisions concerning interception, attribution, retaliation and protection of infrastructure while receiving incomplete information about the origin or purpose of particular incidents.

One escalation pathway involves a sustained period of aerial attacks or threats directed against military installations and strategically important infrastructure. The defensive consequences would depend on the mix of threat types, the available interceptors, the distribution of protected assets and the ability of national systems to maintain operations. A state may successfully defeat a substantial proportion of attacks while still experiencing significant economic costs through repeated disruption, defensive expenditure or damage to particular facilities. Conversely, a technically impressive offensive capability does not necessarily translate into a predictable political outcome, particularly where the defender possesses substantial reserves, international support or alternative infrastructure.

A second pathway involves attacks or incidents affecting maritime commerce and energy infrastructure. Disruption of ports, transport routes or energy installations can influence international markets beyond the state immediately affected, especially when operators respond to perceived risks by changing routes, postponing shipments or increasing insurance requirements. The effects depend on the duration of disruption, available alternative routes, storage capacity and broader market conditions. It would therefore be inappropriate to assign a universal oil-price increase or trade-loss estimate to a hypothetical regional incident without specifying the affected assets and using compatible economic data.

A third pathway concerns the multiplication of actors. State militaries, non-state armed organisations and commercial infrastructure operators can become involved in a crisis without sharing a common command structure. This complicates attribution, communication and the management of escalation. The origin of equipment or its similarity to known military systems cannot independently establish who authorised a particular action. The political consequences of premature attribution can be considerable, especially where retaliatory decisions are made before independent evidence has been consolidated.

Israel’s development of integrated air defence and directed-energy interception demonstrates one response to this environment, but it does not remove the possibility of operational or economic exposure. The December 2025 delivery of the first operational Iron Beam system and the June 2026 integrated defensive tests establish important technological milestones without proving nationwide protective coverage or eliminating the requirements for conventional interceptors and supporting infrastructure. Israel MOD and Rafael Deliver First Operational Iron Beam System — Israel Ministry of Defense — December 2025; Iron Dome Upgrade and Integrated Test Series — Israel Ministry of Defense — June 2026.

The strategic challenge for regional governments is therefore to maintain defensive effectiveness while preserving the political capacity to distinguish limited incidents from broader hostile campaigns. The possession of additional defensive options can strengthen resilience, but the prevention of uncontrolled escalation remains dependent on institutional judgment, reliable information and credible communication.

Cross-regional crises: technological supply chains and economic contagion

The preceding scenarios are geographically distinct, but they can interact through industrial and financial systems. A major regional crisis could disrupt access to materials, components or manufacturing services used by defence industries elsewhere. Governments responding to simultaneous crises may compete for the same categories of equipment, specialist components or industrial machinery, potentially increasing procurement costs and extending production lead times. Financial markets may react to greater geopolitical uncertainty before physical supply is interrupted, while transport operators and insurers can adjust commercial arrangements in response to perceived risks.

The IEA’s 2026 critical-minerals assessment demonstrates why these indirect effects deserve attention. Concentration in refining and specialised manufacturing creates the possibility that disruption to one industrial location or trade relationship could influence several downstream sectors. The report’s identification of limited alternative processing equipment and high diversification costs indicates that some supply-chain problems cannot be resolved quickly through ordinary purchasing decisions. Global Critical Minerals Outlook 2026 — International Energy Agency — 2026.

This produces an important distinction between military escalation and economic transmission. A conflict need not spread geographically through armed operations to generate international consequences. Commercial dependencies, financial exposure and procurement competition can transmit effects across regions that remain outside the direct military confrontation. For European governments, the resulting risk would involve the simultaneous requirement to strengthen national defence, support allies and preserve essential industrial inputs under more demanding economic conditions.

Strategic scenario matrix, 2026–2031

Scenario	Principal escalation mechanism	Observable warning indicators	Main economic exposure	Possible de-escalation requirement
NATO–Russia eastern-flank crisis	Repeated ambiguous incidents combined with military pressure	Verified changes in military posture, persistent interference and escalating official measures	Transport, infrastructure protection and defence mobilisation	Credible attribution, allied consultation and communication
Taiwan coercion crisis	Extended military pressure affecting maritime and aerial access	Sustained changes in access conditions, force posture and official restrictions	Shipping, manufacturing, finance and regional trade	Maintenance of communication and credible political off-ramps
Taiwan major military confrontation	Escalation from coercion to sustained conventional operations	Confirmed hostile military action and broad mobilisation	Severe regional trade and technology supply disruption	Termination or limitation of hostilities and international diplomacy
Middle Eastern aerial escalation	Repeated attacks, defensive engagements and retaliation	Verified attack patterns, military declarations and infrastructure effects	Energy, aviation, ports and insurance	Attribution, crisis communication and restraint
Cross-regional industrial shock	Concurrent disruption of specialised suppliers and procurement markets	Export restrictions, component shortages and rising delivery delays	Defence manufacturing and critical civilian industries	Supply coordination and alternative sourcing
Multidomain information crisis	Loss of confidence in operational data during a confrontation	Correlated outages, contradictory observations and confirmed system compromises	Communications, transport and military command reliability	Independent verification and restoration of essential services

These scenarios are not assigned numerical probabilities because the publicly available evidence does not establish suitable base rates and a reproducible forecasting model for the defined outcomes. Their purpose is to distinguish the different mechanisms through which technology, military decisions and economic exposure could interact.

The limits of deterrence through technological superiority

The most important finding is that technological superiority does not automatically produce escalation control. A government may possess advanced sensors and autonomous systems yet lack sufficient information to interpret an ambiguous incident. A state may maintain powerful conventional forces while encountering economic disruption that limits its political options. An alliance may possess extensive combined military resources while experiencing delays in consultation or differences in national threat assessments. Deterrence consequently depends not only on the existence of military capability but on the credibility of commitments, the clarity of political objectives, the resilience of national institutions and the capacity to communicate intentions under pressure.

Autonomous and electronically contested warfare can make some military activities faster, more distributed and potentially less expensive, but these characteristics may also increase the frequency of incidents requiring political interpretation. The strategic response should therefore strengthen the reliability of crisis decision-making rather than assume that faster military technology necessarily generates more stable deterrence.

Chapter 22. The Strategic Balance to 2031: Indicators, National Choices and Implications for Global Security

The international balance of military power will increasingly depend on industrial resilience and institutional adaptation

The strategic balance emerging from the technological and industrial developments examined throughout this assessment is more complex than a conventional comparison of military expenditure, equipment inventories or the performance characteristics of individual weapons. The relationship between military power and national economic resources remains fundamental, but the efficiency with which those resources are transformed into operational capability is acquiring greater importance. States must not only finance equipment acquisition but also establish the manufacturing, technical and organisational structures necessary to employ capabilities effectively over sustained periods. The relevant distinction is between possessing military resources and maintaining a dependable system capable of converting those resources into operational outcomes under adverse conditions.

The next five years will therefore be shaped by three interconnected processes. The first is the expansion and diversification of military production, particularly in categories where equipment must be replaced or modified relatively frequently. The second is the institutional reorganisation of armed forces and procurement authorities to support technologies that evolve more rapidly than conventional acquisition programmes. The third is the growing dependence of national security on industrial and information infrastructures extending beyond traditional military institutions. These processes can reinforce one another, but their interaction is not automatically beneficial. Investment in new production capacity can increase industrial output without resolving shortages in specialised components. Faster procurement can introduce useful technology while also increasing the risk of inadequate testing. Digital integration can strengthen military coordination while creating shared vulnerabilities where essential networks become unavailable.

The central strategic question is consequently whether governments can improve military adaptability without undermining the reliability, accountability and economic sustainability of their defence establishments. States that succeed will possess an advantage extending beyond any particular technological generation. They will be able to identify changing military requirements, adjust production, evaluate equipment and preserve operational continuity without depending exclusively on stable international markets or uninterrupted access to digital infrastructure.

Europe’s 2030 readiness objective and the consequences of the 2026 implementation period

The European Union’s Defence Readiness Roadmap 2030, published in October 2025, provides an important institutional framework for evaluating European progress before the end of the decade. The roadmap identifies four flagship initiatives: Eastern Flank Watch, the European Drone Defence Initiative, the European Air Shield and the European Space Shield. These initiatives address different dimensions of European security, from territorial surveillance and unmanned-threat defence to integrated air protection and space resilience. Their strategic significance lies in the attempt to organise capability development around collective requirements rather than relying entirely on separate national procurement decisions. Preserving Peace: Defence Readiness Roadmap 2030 — European Commission and High Representative — October 2025.

The roadmap does not establish that all four initiatives have already generated fully operational military capabilities. It defines a programme of work whose results must be evaluated through milestones, projects, funding arrangements and deployment outcomes. The distinction matters because the creation of a European flagship initiative may increase political coordination without immediately providing a new defensive capability. For governments, the relevant performance indicators should include the adoption of common technical requirements, the conclusion of contracts, the availability of qualified manufacturers, the delivery of equipment and the ability of national forces to employ it within combined operations.

The EU’s first Annual Defence Readiness Report, presented in September 2026, provides a complementary monitoring mechanism. The report recognises progress in defence investment while identifying continuing capability gaps. This establishes an important baseline for the period to 2030: higher expenditure has begun to alter the European security economy, but governments still face the task of converting financial resources into usable capability. Ministers Welcome First Annual Defence Readiness Report — European Defence Agency — September 2026.

A differentiated strategic outlook for the principal military powers

For the United States, the principal challenge through 2031 will be maintaining sophisticated military capabilities while expanding industrial and logistical capacity suitable for prolonged competition in geographically demanding environments. The United States retains extensive technological and military resources, but the effectiveness of its modernisation will depend on procurement execution, integration across services and the ability to sustain operations without assuming uninterrupted access to global supply chains.

For China, industrial scale and continued military modernisation provide important foundations, but the operational effectiveness of emerging technologies must be distinguished from public demonstrations and declared development objectives. China’s strategic trajectory will depend on the integration of advanced systems into reliable military formations, the capacity to maintain economic and industrial development, and political decisions concerning regional security. The existence of technological capability does not predetermine how national leaders will choose to employ it.

Russia’s position will remain heavily influenced by the economic and industrial consequences of prolonged conflict. Its ability to allocate resources to military production is significant, but sustained expenditure also generates opportunity costs and dependence on critical inputs. Ukraine’s strategic endurance will continue to depend on a combination of domestic industrial production, military personnel, financial capacity and international assistance. The relative effectiveness of these two systems cannot be established through equipment announcements alone.

Europe faces a different problem because its economic and industrial resources are distributed across numerous states with separate procurement systems and political authorities. The continent’s aggregate economic scale provides substantial potential, but its ability to generate military capability depends on reducing unnecessary fragmentation while preserving appropriate national control over critical functions. Success would require the expansion of interoperable production, credible readiness and dependable infrastructure. Failure could leave Europe with higher military expenditure but persistent shortages in selected capabilities.

India, Japan, South Korea and Taiwan face different regional requirements, but all must reconcile military modernisation with industrial supply chains and strategic uncertainty. Their choices will influence the distribution of technological and military capabilities across Asia, particularly where maritime trade and advanced manufacturing are exposed to regional tension. The Middle East will remain shaped by the interaction between military technology, national infrastructure protection and wider geopolitical competition, with particular importance attached to the ability to sustain layered defensive systems.

The industrial-technological balance: measurable determinants of national strategic advantage

A government-level assessment of strategic power requires indicators that can be observed repeatedly and compared without creating false precision. The following framework identifies the most consequential dimensions for the period 2027–2031.

Strategic capability	Principal indicator	Required evidence	What would strengthen the assessment	What would weaken it
Military industrial capacity	Realised production and accepted deliveries	Audited or competent official production reporting	Sustained output with reliable quality	Repeated production delays or component shortages
Supply-chain resilience	Availability of qualified alternative suppliers	Supplier records, inventories and qualification results	Diversified critical inputs	Concentration in irreplaceable components
Procurement efficiency	Interval from requirement to usable capability	Contract milestones, acceptance and training records	Shorter cycles without declining reliability	Rapid purchasing followed by integration failures
Operational readiness	Serviceable equipment and trained personnel	Military readiness reporting and exercises	Repeated verified operational availability	Persistent gaps between inventory and usable capacity
Information-system resilience	Continuity under realistic disruption	Technical evaluation and military exercises	Sustained functioning in degraded conditions	Single-point failures and unreliable data
AI governance	Validated performance and documented authority	Legal reviews, test records and approved operating limits	Clear responsibilities and reproducible evaluation	Uncontrolled modification and opaque decisions
Coalition interoperability	Successful multinational integration	Exercise results and common technical standards	Compatible systems and procedures	National fragmentation and information restrictions
Defence fiscal sustainability	Multiyear expenditure and financing obligations	Budgets, debt data and contractual liabilities	Predictable financing without severe crowding-out	Unfunded commitments and rising lifecycle costs
Civilian infrastructure resilience	Service continuity and recovery capacity	Operator data and competent authority assessments	Reduced disruption and faster recovery	Recurrent failures affecting essential services
Crisis management	Reliability of attribution and consultation	Official incident investigations and institutional procedures	Evidence-based decisions and effective communication	Premature attribution and inconsistent allied responses

The framework deliberately avoids producing a composite national ranking. Aggregating these indicators would require choices concerning weights, definitions and the treatment of missing information. Unless those choices are justified through a reproducible model, a single numerical score could obscure more than it explains. A defensible assessment should instead examine whether improvements occur across related dimensions and whether the resulting capabilities can be demonstrated in operationally relevant conditions.

Strategic pathways to 2031: industrial convergence, fragmentation and accelerated competition

Three broad strategic pathways could shape the international military-industrial environment over the coming five years. They are not mutually exclusive and may occur differently among regions.

The first pathway involves greater industrial and technological coordination among allied states. Under this development, governments would use shared requirements, multinational purchasing and qualified supply chains to reduce unnecessary duplication. Advanced technologies could move more efficiently between research, testing and procurement, while common standards would support multinational military operations. This outcome would be more plausible where national governments are willing to reconcile industrial interests and establish dependable rules governing technical access, workshare and procurement. The European Union’s EDIP, SAFE and AGILE instruments provide mechanisms that could contribute to such a trajectory, while NATO’s operational and technical standards can support interoperability. The existence of these instruments establishes a policy framework, however, rather than guaranteeing implementation.

The second pathway involves continued fragmentation despite increasing expenditure. Governments could expand national programmes without achieving sufficient production scale or common technical standards. Industrial duplication might preserve politically important domestic facilities while increasing costs and complicating maintenance. Defence ministries could acquire rapidly changing technologies through separate national contracts, only to discover that equipment cannot be integrated effectively during multinational operations. This pathway would be indicated by persistent procurement delays, incompatible systems, limited cross-border supplier participation and widening differences between financial commitments and operational readiness.

The third pathway involves accelerated technological competition accompanied by greater supply-chain and governance pressures. Under this development, the pace of innovation would remain high, but states would experience increasing requirements for specialised components, software assurance, testing and operational adaptation. Governments might respond through additional industrial subsidies, strategic inventories, export restrictions and more active involvement in critical technology markets. This could strengthen selected national capabilities while also increasing costs and international economic fragmentation. The IEA’s 2026 findings concerning critical-mineral concentration and the cost of refining diversification provide evidence of the industrial constraints relevant to this pathway. Global Critical Minerals Outlook 2026 — International Energy Agency — 2026.

The most plausible overall structure is not a uniform movement towards one pathway but a combination in which some alliances improve coordination while competition intensifies around strategically important technologies and materials. Countries with mature industrial ecosystems may be better positioned to absorb technological changes, but their advantage will still depend on policy choices and the quality of implementation.

Government decision options: industrial policy, military modernisation and resilience

The principal choices available to governments concern the allocation of resources among production, technology development, operational readiness and infrastructure protection. No single course of action can address every requirement, and each introduces financial, administrative or strategic trade-offs.

Policy option	Competent authority	Expected contribution	Main implementation burden	Principal risk
Diversification of critical military suppliers	Defence and industrial ministries, procurement agencies	Reduces exposure to concentrated inputs	Qualification, financing and supplier development	Higher costs and duplication
Joint procurement and common standards	National governments and eligible multinational institutions	Larger markets and improved interoperability	Requirements harmonisation and workshare negotiation	Delays caused by incompatible national priorities
Accelerated acquisition of mature technologies	Defence procurement authorities	Shortens access to usable equipment	Faster but rigorous testing and contracting	Inadequate qualification or support
Investment in strategic production capacity	Governments and private manufacturers	Expands replenishment and long-term supply	Capital investment and dependable demand	Underutilised capacity if demand changes
Independent technical and AI assurance	Defence ministries and designated review bodies	Improves reliability and accountability	Specialist personnel and evaluation infrastructure	Administrative burdens if poorly designed
Protection of essential civilian infrastructure	National regulators, operators and security authorities	Reduces economic disruption and supports military resilience	Cross-sector financing and coordination	Duplicated responsibilities and legal uncertainty
Military personnel and technical workforce development	Defence and education authorities	Supports sustained use and maintenance of technology	Recruitment, training and retention	Skilled-labour shortages
Strategic stockpiles of critical inputs	Competent national authorities	Provides temporary protection against supply interruption	Purchasing, storage and inventory management	Obsolescence and financial carrying costs

The appropriate combination will vary by national circumstances. A country facing immediate territorial threats may prioritise operational readiness and equipment replacement. A country with a large industrial base but limited military integration may concentrate on procurement reform and qualification. A smaller state may obtain greater security through multinational cooperation and diversified suppliers than through attempting to manufacture every capability domestically. A government highly dependent on imported critical materials may need to address upstream industrial vulnerabilities even when its conventional defence manufacturing is comparatively advanced.

What would materially change the assessment before 2031

The principal judgment would become stronger if governments demonstrated that rising military expenditure was producing sustained improvements in operational readiness, diversified industrial supply and dependable technological integration. Evidence of increased accepted equipment deliveries, shorter procurement cycles without deteriorating quality, effective multinational exercises and credible legal governance would indicate that defence modernisation was progressing beyond announcements and isolated demonstrations.

The assessment would weaken if industrial expansion remained concentrated in nominal capacity, if shortages of specialised materials prevented production or if military organisations repeatedly introduced technologies without sufficient testing and support. Significant divergences between planned and realised expenditure, persistent technical incompatibility and evidence of systemic errors in AI-supported military decision-making would indicate that institutional adaptation was falling behind technological development.

A major geopolitical confrontation could also alter the trajectory by redirecting industrial resources and accelerating procurement decisions. However, the consequences would depend on the character, duration and geographic scope of the event. It would be inappropriate to assume that conflict necessarily accelerates technological progress in a manner beneficial to every participant. Prolonged warfare can generate operational innovation while imposing severe costs on personnel, infrastructure, government finances and civilian economic activity.

Final Global Strategic Assessment — The International Security Order to 2031

The international security order is entering a period in which technological development, military production and national economic resilience are becoming more closely connected. The proliferation of autonomous platforms and advanced information systems is expanding the range of military capabilities available to states, but it is not eliminating the fundamental requirements of conventional force, industrial capacity, logistics and political decision-making. The most important consequence is a change in how those capabilities must be organised and sustained. Military advantage increasingly depends on whether governments can maintain reliable information, qualified manufacturing, secure access to essential components and sufficient institutional flexibility to respond when technologies or operating conditions change.

The industrial evidence available through October 2026 demonstrates the significance of this transformation. Critical materials used in advanced manufacturing remain concentrated within particular international processing networks, while alternative refining and component-production facilities can require substantial investment and specialised technical expertise. European governments have responded through new financing and industrial instruments, but the gap between investment commitments and operational readiness remains a material policy concern. Global military expenditure reached USD 2.887 trillion in 2025, yet the distribution of that spending and its translation into usable capability vary widely among states.

Military artificial intelligence adds a further dimension. Algorithms may improve information processing and support more effective military decisions, but their usefulness depends on data reliability, operational validation and clear human responsibilities. Existing international humanitarian law continues to apply, while international discussions concerning additional regulation reflect the difficulty of governing technologies whose performance can change with software, data and operational conditions. Effective governance should therefore be treated as part of military capability development rather than an external constraint introduced only after equipment has entered service.

The geopolitical implications differ across regions. The European security environment is shaped by the requirement to sustain collective defence and maintain industrial capacity under the pressure of prolonged conflict. The Indo-Pacific is influenced by maritime geography, supply-chain interdependence and strategic competition among major powers. The Middle East combines demands for layered defence with the vulnerability of concentrated infrastructure and the political complexity of regional escalation. In each environment, autonomous and electronic technologies may alter military options without removing the need for accurate intelligence, credible political judgment and dependable conventional capabilities.

The resulting international military balance cannot be reduced to a race for the greatest number of drones or the largest artificial-intelligence budget. A country with substantial manufacturing capacity may still lack reliable access to critical components. A technologically advanced military may encounter unsustainable replacement requirements. An alliance with considerable aggregate resources may remain constrained by incompatible national procurement systems. Conversely, states that combine industrial competence, trained personnel, resilient infrastructure and coordinated political authority can obtain strategic advantages that are not apparent in conventional equipment inventories.

By 2031, the decisive distinction among military powers is likely to concern their capacity to sustain and adapt effective military systems under technological, industrial and geopolitical pressure. National governments will need to treat defence production, critical-material security, digital infrastructure, military training and legal assurance as interconnected components of strategic policy. The quality of their decisions will determine whether rising expenditure produces meaningful security or merely expands the financial scale of increasingly complex procurement programmes.

The central conclusion is therefore that military superiority in the coming decade will not depend on autonomous technology alone. It will depend on the ability of states to convert economic resources, industrial capabilities and technological innovation into reliable, sustainable and accountable military power, while preserving sufficient political and institutional control to prevent technological competition from becoming a source of uncontrolled strategic instability.

---

Copyright of debuglies.com – Even partial reproduction of the contents is not permitted without prior authorization – Reproduction reserved