Chapter 1 — Key Judgments

The evidence supports a high-confidence conclusion that service continuity must be evaluated across functional dependencies rather than inferred from individual infrastructure redundancy. Established European electricity-restoration requirements demonstrate that precise backup-duration and control-transfer obligations can be implemented within sectoral regulation, while the Iberian electricity failure and TARGET Services disruption demonstrate that interconnected technical, organisational and operational dependencies can defeat assumptions about stability or recovery. The extension of comparable performance requirements across all designated essential functions is technically justified but remains dependent on sector-specific legal authority, proportionality assessments and independently validated operating thresholds.

A material revision of this assessment would require evidence that existing national and European arrangements already provide consistently measured cross-sector restoration performance, including independently verified recovery under simultaneous infrastructure failures. Such evidence would reduce the need for new horizontal obligations and shift priority towards enforcing and harmonising existing requirements.

The principal unresolved official record concerns independently comparable cross-sector recovery tests, observed restoration performance under concurrent disruptions and the complete contractual availability of critical private repair and supply-chain resources. These records should inform the continuity baseline before governments establish new numerical thresholds.

Chapter 2 — Sovereign Industrial Capabilities and Strategic Supply-Chain Independence

Strategic Judgment: European Autonomy Depends on Control of Non-Substitutable Capabilities, Not Complete Industrial Self-Sufficiency

The industrial dimension of European systemic resilience requires a more selective definition of sovereignty than the general objective of producing a larger proportion of strategic technologies within European territory. Industrial autonomy becomes operationally meaningful when national authorities and critical-infrastructure operators can obtain, maintain, repair, replace or securely reconfigure the specific components and services necessary to preserve essential functions during a prolonged external disruption. The strategic problem is therefore not the foreign origin of every imported technology, but the combination of concentrated supply, restricted technical knowledge, long qualification cycles, limited replacement inventories, external control over software or maintenance, and insufficient access to the physical resources needed for restoration. These dependencies become nationally significant when a supplier’s interruption, a legal restriction on technical assistance or a failure of transport and communications would prevent operators from recovering an essential service within its approved continuity envelope.

A sovereign capability assessment should consequently distinguish between manufacturing ownership, technical control, guaranteed availability, operational independence and the capacity to substitute an unavailable product or service. European ownership of a technology provider does not guarantee resilience if its production facilities depend on a single foreign material or component. Domestic manufacturing does not guarantee autonomy where equipment requires externally controlled software licences, proprietary cryptographic keys, remote authorisation or unavailable specialist maintenance. Similarly, multi-supplier procurement does not constitute effective diversification if alternative vendors depend on the same upstream semiconductor foundry, industrial firmware platform, submarine repair vessel or component qualification process. Sovereignty should therefore be evaluated against complete operational dependency chains, including the industrial and institutional resources necessary to restore critical systems after equipment failure or loss of normal supplier access.

The distinction is particularly important because strategic autonomy imposes an opportunity cost. Attempting to reproduce every stage of global semiconductor, telecommunications, cloud-computing and industrial manufacturing supply chains within individual European states would require substantial capital, specialised personnel, sustained demand and technological capabilities that cannot be assumed to emerge within a five-to-ten-year period. An indiscriminate programme of domestic substitution could divert resources from more immediate continuity gains, such as maintaining qualified replacement inventories, securing access to repair facilities, diversifying transportation routes, obtaining operational control over critical software and constructing interoperable testing environments. The most defensible industrial strategy is therefore a selective one that identifies genuinely non-substitutable dependencies, prioritises them according to the essential services they support and uses public procurement and industrial finance to make their availability contractually and operationally credible.

The European Chips Act provides an existing institutional mechanism for investment in semiconductor capacity, research and industrial resilience. The Commission describes more than €43 billion in expected public investment and more than €100 billion in policy-driven public and private investment through 2030, including a programme of pilot lines and manufacturing-related measures. It records the selection of four pilot lines with combined European and Member State funding of approximately €3.3 billion and the approval of a €2 billion Italian State-aid measure supporting STMicroelectronics’ semiconductor manufacturing investment. These figures represent different funding categories and programme stages; they must not be aggregated as if they were independent completed expenditures. Nor does an increase in European semiconductor investment automatically establish secure replacement capacity for industrial control equipment unless the relevant devices, processes, packaging, qualifications and delivery commitments are specifically included. Chips Act — European Commission — Programme Record. Shaping Europe’s digital future

The Industrial Sovereignty Classification: What Must Be Controlled, What Must Be Produced and What Can Remain International

The first operational requirement is to classify critical technologies according to the consequences of unavailable supply rather than their political visibility. A technology should be considered a candidate for assured sovereign control when its sudden unavailability could prevent the operation or restoration of an essential function, when acceptable substitutes cannot be qualified within the required period and when reliance on an external supplier creates a dependency that cannot be mitigated through inventory, contractual access or diversified procurement. Full domestic manufacturing should remain a narrower category, reserved for products whose availability cannot credibly be guaranteed through European cooperation, allied supply, protected inventories or alternative technical architectures.

At European level, the distinction between territorial control and legal control also matters. A factory located within the European Union may provide substantial supply security but remain subject to foreign ownership, intellectual-property restrictions, externally controlled technical support or upstream manufacturing dependencies. Conversely, a non-European supplier may provide acceptable resilience where contractual obligations, multiple qualified alternatives, protected inventories and technical interoperability allow European operators to maintain independent operational control. Such distinctions are already reflected in the European Commission’s Cloud Sovereignty Framework, which evaluates sovereignty across legal, technological, operational, supply-chain and other dimensions instead of treating geographic hosting as sufficient proof of independence. Sovereign Cloud Framework Explained — European Commission — June 2026. European Commission

Strategic capability	Principal dependency	Recommended sovereignty requirement	Industrial instrument	Demonstrable outcome
Critical OT firmware and recovery credentials	External control of secure updates, authentication or recovery tools	Assured domestic or European operational control	Source escrow, protected signing infrastructure and licensed recovery rights	Recovery without unavailable external authorisation
Industrial-control semiconductors	Concentrated fabrication, packaging or device qualification	Qualified European or assured allied supply, depending on criticality	Long-term offtake, qualification programmes and strategic inventory	Verified compatible replacements within approved lead time
Grid protection and automation equipment	Specialist engineering, firmware and certified hardware	Assured European maintenance and replacement capability	Framework procurement, shared testing and spare inventories	Demonstrated restoration and interoperability
High-voltage transformers and specialised switchgear	Production capacity, bespoke designs and long replacement cycles	Distributed European manufacturing and repair access	Production reservations, shared standards and repair agreements	Contractually verified delivery and repair capacity
Submarine cable repair equipment	Vessel availability, specialised equipment and crews	Assured European emergency access and maritime coordination	Shared modular equipment, vessel agreements and trained crews	Witnessed mobilisation and repair exercises
Subsea power-cable joints and spare sections	Custom specifications and limited interchangeability	Protected European inventory and qualified manufacturing	Common component specifications and coordinated stockpiles	Replacement compatibility demonstrated before deployment
Sovereign cloud and critical identity	Provider control, jurisdiction, software dependence and cryptographic custody	European control of critical functions, with risk-based supplier diversity	Sovereignty-qualified procurement and interoperability requirements	Independent authentication, migration and recovery
Pipeline and energy control systems	Proprietary controllers, maintenance interfaces and specialist spares	Assured operational control and maintainable European alternatives	Joint qualification, maintenance capability and targeted production	Safe recovery without unavailable proprietary support
Strategic industrial raw materials	Concentrated refining, processing and upstream extraction	Diversified European and international supply with selective domestic processing	Strategic projects, recycling, substitution and supply agreements	Verified supply continuity under disruption
Advanced predictive systems	Data rights, model validation and software dependencies	Independent model execution and decision authority	Open interfaces, model escrow and certified evaluation facilities	Reproducible model outputs and independently tested performance

This classification permits a practical division of industrial responsibility. The European Union can coordinate standards, investment instruments and shared projects, while Member States retain responsibility for particular nationally sensitive capabilities and operators maintain the technical knowledge necessary to execute restoration procedures. Industrial partnerships with the United Kingdom and other allied suppliers may remain valuable where access arrangements are legally enforceable and operationally credible. The decisive criterion is whether the loss of a supplier, jurisdiction or commercial service would create an unacceptable interruption, not whether every component originates from the same political or geographic area.

Secure Industrial Electronics: The Semiconductor Problem Beneath Critical Infrastructure

Industrial-control equipment differs from consumer electronics in several characteristics relevant to continuity planning. Devices may be required to function for extended operating periods, support specialised input/output interfaces, maintain deterministic communication behaviour, tolerate electrical or environmental stress and remain compatible with equipment installed many years earlier. In safety-critical or operationally sensitive applications, even a technically similar replacement device may require engineering assessment, firmware adaptation, electromagnetic compatibility testing, functional verification and revised certification before deployment. A replacement component that is commercially available but cannot be safely installed within the required restoration period is not an operational substitute.

The strategic bottleneck may therefore reside in a narrow class of industrial microcontrollers, secure elements, communication interfaces, power-management devices, analogue components, programmable logic, isolation devices or packaging and testing processes rather than in the most technologically advanced semiconductor fabrication nodes. A national industrial-capability assessment should identify the precise components present in essential infrastructure, their manufacturing provenance, production lifecycle, available qualified substitutes, remaining inventory and projected replacement time. Such an assessment must extend beyond equipment manufacturers to include contract assemblers, distributors, firmware providers, specialist laboratories and authorised maintenance organisations.

The appropriate industrial response should combine three functions that are frequently treated as separate policies: semiconductor supply assurance, component qualification and the preservation of operational engineering knowledge. Long-term supply agreements alone may provide insufficient security if a specific microcontroller becomes unavailable and no alternative design has been validated. Conversely, maintaining multiple technically qualified component alternatives can reduce exposure even without complete domestic control of the fabrication process. Shared European laboratories should therefore support comparative testing of alternative components, secure firmware deployment, hardware compatibility, environmental endurance and safety-related performance, with results made available to competent authorities and approved operators under appropriate confidentiality arrangements.

The European Chips Act’s pilot-line programme offers a possible foundation for such activities, but the relevant measure of success should be the number of critical industrial device families for which European operators possess a qualified replacement pathway, together with the time required to activate that pathway. The number of semiconductor fabrication facilities, announced investment values or research programmes is not a sufficient proxy for this capability. Chips Act — European Commission — Programme Record. Shaping Europe’s digital future

A technically credible procurement specification for critical semiconductor components should include documented provenance, traceability across manufacturing and assembly stages, secure-update compatibility, life-cycle support commitments, vulnerability disclosure procedures, minimum inventory coverage, an agreed process for last-time purchases and defined responsibilities for requalification if the component or its firmware changes. For products whose continued operation depends on proprietary software or cryptographic material, public authorities should require escrow or equivalent protected recovery arrangements that can be activated under legally specified circumstances. These measures must be coordinated with intellectual-property, export-control and cybersecurity requirements rather than assumed to create unrestricted access to proprietary technology.

Industrial Operational Technology: Restoration Requires More Than Cybersecurity Compliance

Operational technology encompasses the control, monitoring and safety systems used in industrial facilities and essential infrastructure, including programmable logic controllers, distributed control systems, supervisory control and data acquisition platforms, protection relays, remote terminal units, industrial communications equipment and the engineering workstations used to configure them. The principal resilience problem is not simply the possibility of malicious intrusion. An operator may also lose the ability to restore equipment because a configuration backup is incomplete, a proprietary engineering workstation is unavailable, a replacement controller is incompatible, a firmware version cannot be obtained, or critical process knowledge is concentrated in a small number of external specialists.

Consequently, operational continuity requires a structured relationship between cybersecurity, configuration management, industrial maintenance and functional safety. Every designated essential process should possess a validated inventory of its controllers, application versions, firmware, configuration files, network interfaces, safety dependencies and recovery tools. Backups must be tested against actual restoration procedures, and alternative operating modes must be assessed to ensure that degraded operations do not bypass independent protection systems or create unacceptable physical consequences. The objective is to establish recoverability without allowing emergency arrangements to undermine the safety case of the installation.

Directive (EU) 2022/2555, commonly known as NIS2, provides a relevant legal foundation. Article 21 requires appropriate and proportionate cybersecurity risk-management measures, including incident handling, business continuity, backup management, disaster recovery, crisis management, supply-chain security, secure acquisition and maintenance, vulnerability management and effectiveness assessment. These obligations support the proposed integration of operational recovery and supplier assurance, although their application depends on the entity’s legal classification and the national implementation framework. Directive (EU) 2022/2555 on Measures for a High Common Level of Cybersecurity Across the Union — European Parliament and Council — December 2022. EUR-Lex

A European OT resilience programme should prioritise qualified recovery environments for essential industrial systems rather than pursue immediate replacement of all installed control equipment. Such environments should include secure offline copies of required configurations, approved engineering tools, documented compatibility information, replacement hardware and personnel capable of executing restoration procedures without depending entirely on external remote access. Shared laboratories could test legacy-system interoperability and secure migration to newer equipment, while procurement rules should require explicit exit arrangements for proprietary platforms where technically and legally feasible. These measures would address both cyber incidents and ordinary equipment obsolescence, creating continuity benefits independent of the origin of the initial disruption.

Submarine Repair Capacity: An Industrial and Maritime Bottleneck

Submarine communications and electricity cables represent a particularly clear intersection between technological autonomy, industrial production, maritime logistics and national security. Their vulnerability cannot be assessed solely through cable length, route count or nominal data capacity, because the ability to restore service after physical damage depends on vessel availability, cable type, water depth, maritime conditions, repair equipment, qualified crews, spare sections, landing infrastructure and applicable maritime authorisations. Multiple incidents occurring close together may create competition for the same specialised resources, while the repair requirements of an electricity interconnector may differ substantially from those of a telecommunications cable.

The European Commission’s Action Plan on Cable Security identifies the limitations of available repair vessels and specialised equipment during systemic or simultaneous attacks and proposes measures involving contracted repair services, modular equipment, spare-material stockpiles and greater coordination between cable owners, manufacturers and public authorities. It further recognises the importance of standardising components and repair requirements where technically feasible, particularly for specialised submarine electricity infrastructure. These observations are significant because they identify a concrete industrial bottleneck with a direct relationship to restoration time, rather than an abstract ambition to increase European technological sovereignty. EU Action Plan on Cable Security — European Commission and High Representative — February 2025. EUR-Lex

On 5 February 2026, the European Commission amended the Connecting Europe Facility Digital Work Programme to allocate €347 million to strategic submarine-cable projects, including a €20 million call supporting adaptable repair modules that can be positioned at ports or shipyards. The same initiative introduced the Cable Security Toolbox and identified Cable Projects of European Interest. The financial figures constitute announced programme allocations and calls, not proof of completed repair facilities, operational vessels or guaranteed recovery performance. Commission Increases Submarine Cable Security with €347 Million Investment and New Toolbox — European Commission — February 2026. Shaping Europe’s digital future

The industrial requirement is to translate these programmes into a distributed European restoration capability with defined asset availability, qualified equipment, tested mobilisation procedures and enforceable access rights. Governments should avoid evaluating such programmes solely by the number of assets procured. A repair vessel that remains commercially committed to another operation, a modular repair system without trained personnel or a stockpile containing incompatible components may provide little effective crisis capacity. The essential measures are the number of independently deployable repair teams, the time required to mobilise them, the compatibility of available equipment with the affected infrastructure, the geographic distribution of spare components and the legal arrangements allowing operations to begin under disrupted or contested conditions.

A shared European structure should consequently maintain geographically separated stores, technically qualified replacement components, contractual access to vessels and alternative mobilisation options across maritime regions. The Baltic, North Sea, Atlantic and Mediterranean environments possess different operational characteristics, so a single centralised inventory would not necessarily represent the most efficient arrangement. Industrial procurement should support common equipment interfaces where possible while retaining cable-specific repair requirements and avoiding standardisation that compromises electrical, mechanical or optical performance.

The European Commission’s February 2026 Cable Security Toolbox, together with its associated risk-assessment work, provides a basis for aligning investment decisions with actual infrastructure vulnerabilities and cross-border restoration requirements. Submarine Cable Security Toolbox and Cable Projects of European Interest — European Commission — February 2026. Shaping Europe’s digital future

Sovereign Digital Infrastructure: Independence Must Be Demonstrated at the Control Plane

Digital sovereignty becomes relevant to national continuity when an external provider possesses unilateral technical or legal control over a function whose interruption would prevent essential state or economic operations. Such control may involve identity management, encryption keys, authentication services, domain or naming infrastructure, operational access to cloud environments, software deployment systems, application licensing or the administrative mechanisms required to restore services. Geographic data residency is important for certain legal and security requirements, but it is not synonymous with technical autonomy when essential workloads remain dependent on externally controlled software, support personnel or cryptographic services.

The European Commission’s Cloud Sovereignty Framework offers a more differentiated approach. The framework, explained in June 2026 following the Commission’s sovereign-cloud procurement exercise, evaluates provider sovereignty through assurance levels and 48 criteria grouped into eight categories, including strategic, legal, operational, supply-chain, technological, data and artificial-intelligence, security and environmental considerations. In April 2026, the Commission awarded sovereign-cloud procurement contracts enabling EU institutions and bodies to procure services under a framework with a value of up to €180 million over six years, divided among four providers to reduce reliance on a single supplier. The award demonstrates that sovereignty requirements can be incorporated into procurement evaluation, although it does not establish that all European government workloads or critical-infrastructure services meet the same criteria. Sovereign Cloud Framework Explained — European Commission — June 2026; Commission Advances Cloud Sovereignty Through Strategic Procurement — European Commission — April 2026. European Commission+1

The operational implication is that sovereign digital infrastructure should be assessed through independently executable recovery procedures. Designated critical operators should demonstrate that trusted identities can be verified, cryptographic materials remain available, priority workloads can be recovered and essential information can be accessed under specified conditions of connectivity loss, provider disruption or contractual termination. Where these capabilities depend on software portability, procurement agreements should require documented export formats, tested migration procedures, independently retained configurations and access to the technical information necessary for restoration.

A fully centralised sovereign platform would not necessarily be more resilient than diversified infrastructure. Concentrating authentication, management and recovery mechanisms within one jurisdiction or provider may create common-mode dependencies that are difficult to detect during normal operation. A stronger architecture combines controlled trust infrastructure, protected administrative access, geographically separated recovery resources, independent backup mechanisms and interoperable services, with the precise degree of territorial or legal control determined by the sensitivity of the function and the consequences of its unavailability.

Strategic Manufacturing, Critical Materials and the Limits of Nominal Capacity

The industrial autonomy problem extends beyond semiconductors and digital infrastructure to high-voltage equipment, specialist electrical components, industrial machinery, repair materials and strategically significant raw-material processing. Many critical installations use equipment with demanding technical specifications and qualification requirements. Large transformers, protection devices, high-voltage cable accessories and certain industrial process components cannot necessarily be replaced using commercially available alternatives without engineering modification, compatibility testing or revised certification. Consequently, nominal manufacturing output provides an incomplete measure of resilience where available production capacity is committed to existing customers, replacement designs are not interchangeable or specialist components possess long production and delivery cycles.

A European strategic manufacturing assessment should therefore begin with restoration-critical equipment rather than the total output of an industrial sector. The competent authorities should determine which components would prevent the recovery of an essential electricity, telecommunications, energy-transport or industrial function if they became unavailable, and then establish the location, productive capacity, qualification status and accessibility of available suppliers. Replacement times should be measured from the moment an emergency requirement is authorised until the component has been manufactured or retrieved, transported, installed, tested and accepted for service. This approach prevents the mistaken treatment of factory capacity as immediately available restoration capacity.

The Critical Raw Materials Act provides an existing European industrial-policy mechanism for addressing selected upstream dependencies. According to the Commission’s official strategic-project register, the first designations took place during 2025, and a second list of European Union strategic projects was approved on 9 October 2026. The Commission reports 106 strategic projects designated overall, including projects inside and outside the European Union. These projects address extraction, processing, recycling and supply diversification, although their designation does not establish that planned production volumes have already been achieved. Selected Strategic Projects under the Critical Raw Materials Act — European Commission — October 2026. Mercato Interno e PMI

The security value of these projects depends on their relevance to specific industrial bottlenecks. Additional European extraction capacity does not necessarily improve continuity where the principal dependency concerns refining, specialised materials processing, component manufacturing or certification. Likewise, an increase in recycling capacity may reduce upstream supply exposure without resolving shortages of finished industrial equipment. The relevant policy objective is to establish complete and technically compatible supply pathways from essential materials to finished replacement components, including the industrial processes and specialised labour required at intermediate stages.

For high-priority equipment, strategic stockpiling should complement manufacturing investment, but the design of inventories must be informed by technical compatibility and realistic replacement requirements. A large stockpile of components that cannot be installed in existing infrastructure offers limited restoration value, while relatively small inventories of highly specialised and qualified parts may prevent disproportionately significant disruptions. Inventory management should therefore combine equipment criticality, expected component availability, failure exposure, storage requirements, manufacturing lead time and geographically distributed access. Contracts should assign responsibility for preservation, inspection, periodic replacement, obsolescence management and release of stocks during national emergencies.

Public-Private Industrial Instruments: Converting Investment into Assured Capacity

Traditional investment subsidies can support production capacity, but they do not automatically guarantee priority access for essential infrastructure operators during simultaneous national or international emergencies. Industrial suppliers may possess sufficient production facilities yet be unable to fulfil urgent public requirements because capacity is already contractually committed, specialised personnel are unavailable, upstream deliveries are interrupted or emergency allocation rights have not been defined. A resilience-oriented industrial policy must therefore move beyond financing the establishment of production assets and address the availability of outputs under precisely specified emergency conditions.

Long-term offtake agreements provide one mechanism for securing sustained industrial demand and encouraging investment in selected production capabilities. Under such arrangements, designated public authorities, utilities or strategic operators can contract for minimum purchase volumes or defined production capacity over a multi-year horizon. Where feasible, the agreements should distinguish between ordinary commercial purchases and an independently auditable reservation of emergency capacity. Payment structures can remunerate maintained availability without requiring unnecessary inventories of finished products, although they must preserve incentives to develop technically qualified equipment and avoid excessive public expenditure on capacity that cannot be effectively deployed.

Joint public-private production lines offer a second mechanism where domestic or European manufacturing capabilities are economically difficult to sustain through fragmented demand. Operators requiring similar classes of industrial controllers, secure electronics, specialist power equipment or cable-repair components could aggregate demand through coordinated procurement arrangements, subject to competition law and applicable procurement rules. Public contributions could finance shared equipment, qualification infrastructure or specialist workforce preparation, while private manufacturers retain responsibility for production quality, technological development and commercial operations. The decisive contractual requirement would be a defined obligation to provide specified output or emergency production capacity under qualifying circumstances.

Shared testing and certification facilities are especially important where the absence of compatible alternatives, rather than the absence of manufacturing capacity alone, creates non-substitutable dependence. Such facilities could evaluate industrial-control equipment, secure firmware, communications interfaces, grid protection systems and replacement components against common technical requirements. The programme should preserve appropriate manufacturer intellectual property while enabling qualified operators to establish whether alternative products meet the operational and safety requirements of designated installations. Independent technical validation would also reduce repeated testing costs where several operators use comparable equipment.

Industrial-policy instrument	Appropriate application	Contractual performance measure	Principal limitation	Verification approach
Long-term offtake agreement	Strategic electronic components and industrial equipment	Guaranteed supply quantity and qualified delivery interval	Fiscal commitment and demand forecasting	Audited deliveries and capacity reviews
Reserved production capacity	Scarce restoration-critical components	Production availability under defined emergency activation	Competing obligations and upstream dependencies	Capacity reservation audits and production trials
Joint public-private production line	Equipment with fragmented demand and high fixed costs	Qualified production output and maintenance support	State-aid, competition and commercial viability	Production qualification and contractual inspection
Shared testing laboratory	OT equipment, communications and replacement components	Number of qualified alternatives and validated recovery procedures	Specialist skills and equipment requirements	Independent accreditation and test records
Strategic component stockpile	Items with unacceptable replacement lead times	Usable inventory and release-to-installation time	Obsolescence, storage and compatibility	Physical inventories and deployment exercises
Repair-service framework contract	Submarine infrastructure and specialist industrial repairs	Mobilisation and completion obligations	Simultaneous demand and asset unavailability	Operational mobilisation tests
Sovereignty-qualified digital procurement	Essential cloud, identity and data-processing functions	Independent recovery and verified portability	Provider lock-in and technical complexity	Migration, failover and trust-recovery tests
Coordinated supplier diversification	Concentrated industrial supply chains	Independently qualified alternatives	Common upstream dependencies	Supply-chain mapping and substitution exercises

The legal design of these instruments is important. Public contracts should define qualifying emergency conditions, activation authorities, priority access rights, acceptable performance exceptions, technical acceptance standards and mechanisms for resolving conflicting claims on scarce capacity. Financial penalties may be appropriate for failures to maintain contractually specified resources, but they should be linked to obligations within the supplier’s reasonable control and should not automatically penalise providers for disruptions arising from lawful public intervention or objectively unavoidable circumstances. Incentives for verified availability, transparent inventory management and repeated performance improvement are likely to produce more durable results than undifferentiated penalties imposed after major incidents.

A further safeguard is the distinction between industrial expenditure and assured continuity capacity. A publicly supported facility should not count as an established resilience capability until the relevant product or service has been qualified, appropriate personnel and materials are available, the contractual priority conditions are operational and the designated infrastructure operator has demonstrated that the output can be incorporated into a functioning restoration process. This distinction should be embedded in project milestones, disbursement conditions and independent technical evaluation.

Comparative National Industrial Positions: Italy, France, Germany and the United Kingdom

Italy — Mediterranean Infrastructure, Industrial Electronics and Restoration-Critical Manufacturing

Italy’s industrial contribution to European systemic resilience should be assessed through the combination of its manufacturing capabilities, energy infrastructure, maritime geography, electricity networks and strategically important Mediterranean logistics corridors. Its most relevant potential contribution is not the reproduction of every critical technology within national territory, but the development of qualified industrial capacity addressing selected European restoration bottlenecks. These include industrial-control electronics, semiconductor devices and packaging, power equipment, automation components, specialised metal fabrication, cable-related infrastructure and the engineering services required for repair and maintenance.

The European Commission’s approval in 2024 of a €2 billion Italian State-aid measure supporting STMicroelectronics’ semiconductor manufacturing investment demonstrates an existing institutional basis for semiconductor-related industrial development. Its contribution to systemic continuity, however, should be evaluated according to actual device capabilities, production qualification, supply commitments and compatibility with critical industrial applications rather than the nominal value of public support. Chips Act — European Commission — Programme Record. Shaping Europe’s digital future

Italian policy should prioritise cooperation between electricity operators, semiconductor manufacturers, industrial automation suppliers, research institutions and qualified component-testing organisations. The resulting programme could identify a limited range of infrastructure-critical equipment for which alternative components should be qualified and domestic or European replacement resources secured. Its industrial advantage would arise from coupling technological development with the operational requirements of actual infrastructure operators, thereby avoiding investment programmes disconnected from the equipment installed across essential networks.

In the maritime domain, Italy’s position within the Mediterranean creates a strong rationale for participation in European submarine repair arrangements, including geographically distributed spare-component inventories, specialist workforce preparation and coordinated access to repair resources. This does not require every repair asset to be nationally owned, but it does require that emergency availability be demonstrated and that regional arrangements remain compatible with wider European cable-security programmes.

France — Sovereign Industrial Control and Cross-Border Interoperability

France’s contribution to European resilience should be evaluated through its industrial, electricity, digital and strategic-security capabilities, together with its participation in interconnected European infrastructure. The national industrial-policy challenge is to preserve the advantages of domestic technical control while ensuring that selected capabilities can support wider European restoration requirements without compromising nationally sensitive systems or operational authority. This is particularly relevant for advanced industrial equipment, secure digital services, electricity-system components and specialist engineering capacity.

The principal European opportunity is the qualification of interoperable technologies and the development of reciprocal industrial-access arrangements. French manufacturing and digital capabilities can increase collective resilience where products meet independently evaluated technical requirements and can be deployed across borders without excessive dependence on proprietary interfaces or unavailable specialist support. Conversely, national procurement practices that limit technical interoperability may preserve domestic supplier relationships while reducing the availability of alternatives during a major multinational disruption.

The European Commission’s 2026 sovereign-cloud procurement, including a French-linked provider consortium among the awarded arrangements, illustrates how procurement can accommodate different providers within a common sovereignty assessment framework. The relevant continuity test remains whether independently controlled operational services can be restored under disruption, not the nationality of a provider considered in isolation. Commission Advances Cloud Sovereignty Through Strategic Procurement — European Commission — April 2026. European Commission

Germany — Industrial Qualification, Equipment Supply and the Transition from Compliance to Verified Capacity

Germany’s industrial position makes the qualification, standardisation and long-term availability of manufacturing and automation capabilities particularly relevant to European infrastructure restoration. The strategic challenge is the relationship between extensive industrial specialisation and the concentration of particular equipment, engineering and software dependencies within complex supply chains. A diversified manufacturing sector does not necessarily eliminate non-substitutable dependencies where a specific certified component or proprietary industrial platform remains indispensable to essential operations.

The introduction of Germany’s cross-sector critical-infrastructure framework through the KRITIS-Dachgesetz, which entered into force on 17 March 2026, creates an institutional setting in which physical resilience obligations and industrial continuity planning can be considered together. The practical test is whether future implementation requirements establish measurable operator capabilities, reveal supplier concentrations and support independently demonstrated restoration rather than relying primarily on formal organisational compliance. KRITIS-Dachgesetz: Frequently Asked Questions — German Federal Office of Civil Protection and Disaster Assistance — 2026.

A German contribution to European strategic capacity should focus on shared qualification facilities, interoperable industrial-control equipment, reserved production capacity for restoration-critical components and the development of technical specifications that make replacement and repair more predictable. Such measures could reduce dependencies across multiple Member States without requiring duplication of entire production chains.

United Kingdom — Allied Industrial Capacity and Contractually Assured European Cooperation

The United Kingdom’s relationship with European industrial resilience must be approached through its distinct legal position outside the European Union, combined with its continuing significance to European telecommunications, maritime infrastructure, financial services and specialist technological capabilities. The relevant question is how British resources can be incorporated into European restoration arrangements under legally credible and operationally tested agreements, rather than whether they fall within the same legislative framework as EU Member States.

The United Kingdom may contribute to shared repair services, specialist engineering, component production, financial-infrastructure continuity and industrial research where contracts and public agreements provide the necessary technical access, emergency activation rights and information-sharing safeguards. However, arrangements involving strategically sensitive technologies, export-controlled equipment or nationally restricted infrastructure information require specific legal and security treatment. Geographic proximity and political alignment cannot replace documented operational authority or guaranteed contractual availability.

European industrial autonomy should therefore be compatible with diversified allied supply where the relevant capability is genuinely substitutable or where reciprocal access has been independently verified. The strongest arrangement is neither unrestricted dependence nor automatic exclusion of non-EU partners, but differentiated cooperation based on technical criticality, recoverability, legal access and the consequences of interrupted supply.

The Industrial Investment Test: Continuity Delivered per Unit of Capital

The evaluation of strategic industrial programmes should place continuity performance above expenditure volume. Capital investment is necessary for new production facilities, equipment inventories and specialist testing infrastructure, but the relationship between spending and systemic resilience is not linear. An expensive manufacturing project may produce limited national continuity benefits if the affected infrastructure has credible alternative suppliers, while a relatively modest investment in a qualified spare component, an independently powered communications facility or a contractual repair arrangement may prevent the loss of several interconnected essential functions.

For each proposed investment, authorities should define the specific essential service supported, the failure mechanism addressed, the existing restoration constraint, the expected change in operating or recovery capability and the evidence needed to demonstrate that improvement. Where the benefit cannot be quantified credibly before implementation, approval may be conditional on staged engineering tests and milestones rather than unsupported forecasts of economic loss avoided.

Investment criterion	Required evidence	Decision relevance
Essential-function criticality	Function designation and dependency mapping	Establishes public-interest priority
Substitutability	Number and qualification status of alternatives	Distinguishes genuine bottlenecks
Restoration constraint	Measured or engineered replacement and recovery interval	Identifies the operational problem
Industrial readiness	Qualified output, personnel, equipment and materials	Separates capacity from announced intent
Contractual availability	Priority rights, activation procedures and enforceable delivery conditions	Establishes actual access
Lifecycle sustainability	Maintenance, upgrade, requalification and obsolescence costs	Prevents temporary or unusable capability
Cross-border utility	Interoperability and reciprocal-access arrangements	Measures European rather than exclusively national benefit
Independent verification	Technical tests, inspections and operator acceptance	Confirms deliverable resilience
Alternative investment comparison	Procurement, inventory, repair and substitution options	Avoids unnecessary industrial duplication
Residual concentration risk	Shared upstream suppliers and correlated failure conditions	Detects dependence transferred rather than eliminated

The most important financial distinction is between investments that increase nominal domestic industrial output and investments that reduce the time required to sustain or restore an essential function under restricted external supply. The latter should be the primary criterion for resilience-oriented public expenditure. This does not exclude broader industrial-development objectives, but it requires them to be evaluated separately rather than automatically credited as national-security benefits.

Industrial Implementation Architecture: From Dependency Identification to Verified Sovereign Capacity

A credible five-to-ten-year programme should proceed through successive industrial capability gates rather than relying on a single long-term investment target. The first gate establishes which components, technologies and specialist services are essential to a designated national function and whether any qualified substitute exists. The second identifies the technical, legal and commercial obstacles preventing assured access. The third determines whether the most proportionate response is protected inventory, contractual availability, industrial diversification, European manufacturing, technology-transfer arrangements or complete sovereign control. The fourth requires technical qualification and independent operational testing. The final gate establishes whether the resulting capability is economically sustainable, contractually available and maintainable throughout the relevant equipment lifecycle.

This structure should also account for the possibility that sovereign production introduces new concentrations. A European manufacturing facility may depend on electricity supply, imported equipment, specialist process chemicals, external maintenance or a single qualified engineering team. A common testing facility may become a bottleneck if its certification capacity is insufficient to support several simultaneous industrial projects. A shared submarine repair fleet may reduce procurement duplication while remaining unavailable during concurrent incidents. Industrial autonomy must therefore be assessed recursively: the resources needed to maintain an essential capability must themselves possess acceptable continuity arrangements.

The programme should distinguish industrial capability from operational readiness at every stage. Technology research, investment approval, factory construction, equipment qualification, commercial production and verified emergency availability are separate milestones with different evidentiary requirements. National industrial authorities should not report a restoration capability as operational solely because a facility has been announced or financed, and regulators should not recognise supplier diversification unless replacement equipment has passed the necessary compatibility and safety requirements.

Implementation horizon	Industrial deliverable	Required decision	Acceptance evidence
2027	Critical-component dependency register	Identify restoration-critical supply bottlenecks	Operator-validated equipment and supplier records
2027–2028	Qualification and substitution programme	Select components requiring alternatives	Completed technical testing and approved replacement procedures
2028–2029	Protected repair and manufacturing capacity	Contract emergency production and repair access	Demonstrated production reservations and mobilisation tests
2029–2030	Shared European industrial facilities	Decide the allocation of qualification and manufacturing functions	Operating facilities with qualified industrial outputs
2030–2031	Cross-border industrial continuity agreements	Establish reciprocal access and emergency allocation arrangements	Tested activation and delivery procedures
2031–2032	Assured sovereign capacity in selected strategic sectors	Confirm sustained technical and financial viability	Independently evaluated production, substitution and restoration performance

These dates are proposed implementation horizons, not forecasts of completed projects or existing government commitments. Their purpose is to establish decision gates through which public authorities can distinguish investment progress from the delivery of usable continuity capabilities.

The industrial programme should be subject to a common assurance principle: no capability is counted as sovereign restoration capacity until its legal availability, technical compatibility, operational readiness and sustained accessibility have been demonstrated. This requirement would prevent industrial-policy reporting from overstating the contribution of announced investment, nominal production or untested supplier arrangements.

Chapter 2 — Key Judgments

The principal industrial conclusion is that European strategic autonomy should be organised around non-substitutable restoration capabilities rather than the indiscriminate domestic production of critical technologies. The existing European Chips Act, Cable Security Action Plan, Critical Raw Materials Act and sovereign-cloud procurement framework provide institutional and financial entry points, but their contribution to systemic resilience depends on the technical requirements, contractual obligations and independently verified outputs associated with individual projects. This conclusion is assessed with high confidence because the documented regulatory and industrial programmes establish both the existence of targeted interventions and the need to distinguish programme commitments from operational results.

The strongest immediate industrial priorities are the qualification of alternative operational-technology components, preservation of critical engineering and software recovery capabilities, assured access to submarine repair resources, protection of restoration-critical equipment inventories and procurement arrangements that make emergency supply capacity demonstrably available. The relative priority of complete domestic manufacturing depends on whether the same continuity objective can be achieved through less capital-intensive alternatives, including European cooperation, allied supply, protected inventories and standardised replacement procedures.

The assessment would materially change if independent operational evidence established that particular supply dependencies can be mitigated through readily available substitutes without additional European production, or conversely that nominally diversified supplier arrangements share critical upstream bottlenecks that cannot be overcome within the approved restoration period. Both outcomes would require corresponding changes in industrial investment priorities.

The principal unresolved evidence concerns actual replacement lead times for designated infrastructure components, spare-part interoperability, the emergency availability of contracted production and maritime repair resources, and the extent to which proprietary software and external technical support constrain independent restoration. These are appropriate subjects for confidential operator-level assessment and independent technical review rather than speculative public estimates.

Final Pillar I Determination

The preservation of European essential functions depends on two complementary capabilities: a quantified understanding of how infrastructure failures propagate, and assured industrial access to the resources necessary to prevent, contain and reverse those failures. Neither capability is sufficient in isolation. An accurate interdependency model cannot restore a damaged system without available equipment, personnel and lawful operational authority; equally, an extensive industrial base cannot guarantee continuity when recovery priorities, technical dependencies and activation procedures remain inadequately defined.

The defensible strategic objective through 2032 is therefore the establishment of a European continuity system in which critical service requirements are measurable, restoration dependencies are documented, non-substitutable technologies are identified and essential industrial resources are available under verified technical and contractual conditions. National authorities must retain the operational competences necessary to protect safety and public order, while European coordination should concentrate on those dependencies whose scale, technical specialisation or cross-border character makes purely national provision inefficient or insufficient.

The success of this approach will not be established by the accumulation of industrial programmes, strategic declarations or additional infrastructure inventories. It will be established when designated operators can demonstrate that essential services remain functional under specified degraded conditions, that restoration dependencies can be satisfied without unacceptable external delays and that the required industrial capabilities can be activated within independently verified continuity limits.

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PILLAR II — INTEGRATED OPERATIONAL CONTINUITY AND ENFORCEABLE GOVERNANCE

Chapter 3 — Intelligence-to-Continuity: Integrated Monitoring, Predictive Analytics and Decision Authority

Strategic Judgment: Intelligence Has Operational Value Only When It Can Change a Continuity Decision

The central requirement for an integrated European intelligence-to-continuity architecture is to establish a reliable connection between the detection of emerging infrastructure disturbances, the interpretation of their cross-sector consequences and the lawful activation of measures capable of preserving essential functions. The existence of extensive cybersecurity monitoring, intelligence reporting, industrial telemetry and crisis-management institutions does not automatically provide this capability, because information generated within one sector may be inaccessible, technically incompatible or operationally irrelevant to the authorities responsible for another sector. A national electricity operator may observe deteriorating network conditions without possessing sufficient information about telecommunications backup endurance; a financial-market infrastructure may understand its own technical recovery position without knowing whether the communications, electricity and identity services required for settlement will remain available; and government crisis authorities may receive accurate incident notifications without the asset-level dependency information necessary to determine which intervention would prevent the greatest additional loss of essential services.

The proposed architecture must therefore be designed around operational decisions rather than information accumulation. Every dataset incorporated into the national continuity system should support a defined analytical function, every critical warning should identify the service outcome potentially affected, and every recommended intervention should be connected to an authorised decision-maker, a technically qualified operating procedure and a measurable continuity objective. This requires a structural separation between strategic intelligence, operational monitoring, predictive assessment, supervisory coordination and direct infrastructure control. Combining these functions in one indiscriminate national platform would risk creating an excessively centralised repository of sensitive information while leaving unresolved the legal and technical responsibilities governing actual intervention.

The European Union already possesses several elements of the necessary institutional architecture. Article 16 of Directive (EU) 2022/2555 establishes the European Cyber Crises Liaison Organisation Network, EU-CyCLONe, to support coordinated operational management of large-scale cybersecurity incidents. ENISA identifies its functions as developing shared situational awareness, assessing the consequences of major incidents, supporting operational cooperation and facilitating decision-making at the political level. The CSIRTs Network serves a complementary technical-cooperation function. These arrangements provide a foundation for coordinated cyber-crisis management, but their legal remit should not be interpreted as establishing a single European command authority over electricity dispatch, financial settlement, transportation or industrial production. EU-CyCLONe — European Union Agency for Cybersecurity; Directive (EU) 2022/2555 — European Parliament and Council — December 2022. ENISA+1

The strategic opportunity is to extend interoperable operational awareness across relevant infrastructure sectors without transferring unrestricted control of those systems to a central intelligence authority. The resulting model should be federated: critical operators retain direct control of their installations; sector-specific authorities maintain supervisory competence; national crisis-management institutions coordinate priorities where established legal powers permit; and European mechanisms support cross-border warning, consequence assessment and requests for assistance. The technical architecture should permit an operator to communicate the current availability of an essential service, the expected exhaustion of a critical reserve or the restoration resources it requires without necessarily disclosing complete industrial configurations, commercially sensitive customer records or detailed security information unrelated to the continuity decision.

The Five-Layer Intelligence-to-Continuity Architecture

The proposed architecture consists of five functionally separated layers: trusted operational acquisition, secure semantic interoperability, dependency and predictive analysis, accountable continuity decision-making, and verified restoration feedback. These layers should be interoperable without being administratively identical. Their separation is essential because an accurate analytical warning does not itself establish legal authority to act, and lawful authority does not eliminate the engineering limitations of infrastructure under abnormal conditions.

Operational Acquisition and Trusted Sensor Fusion

The acquisition layer should combine selected information from electricity transmission and distribution systems, telecommunications operators, submarine connectivity providers, energy transport infrastructure, logistics operators, financial-market infrastructures and designated industrial installations. In operational-technology environments, relevant observations may include electrical frequency and voltage, protection-system status, available generating resources, communications-channel availability, equipment alarms, industrial process states and confirmed restoration capabilities. Digital infrastructure can contribute service availability, network-path status, authentication-system health, computing and storage capacity, and records of security events relevant to service continuity. Logistics providers can supply the availability of essential corridors, fuel inventories, access restrictions and the operating status of facilities necessary for critical deliveries, while financial infrastructures can provide appropriately aggregated information on settlement availability, contingency processing and dependencies affecting critical transaction functions.

These information flows must be filtered according to operational purpose. The continuity system does not require unrestricted access to every industrial sensor, banking record or telecommunications customer dataset. It requires sufficient information to identify whether a designated essential function remains within its approved operating envelope and whether the loss of one supporting resource would make that function unavailable. A suitable data model should therefore distinguish raw observations, validated operating states, predicted consequences and authorised decisions. It should also preserve the provenance, timestamp, measurement unit, quality status, uncertainty and reporting authority associated with each observation, allowing analysts to distinguish a confirmed equipment failure from an unverified alert or model-generated hypothesis.

For interoperability, IEC 61850 provides relevant information models and communications arrangements for electricity utility automation, while IEC 62351 addresses security aspects of power-system information exchange. IEC 62443 provides a framework for industrial automation and control-system security, including concepts such as zones and conduits, system security requirements and lifecycle management. These standards should be applied within their actual technical scope, supplemented by sector-specific telecommunications, financial and industrial requirements rather than treated as interchangeable protocols. The official standards catalogues are maintained by the International Electrotechnical Commission — IEC 61850 Series, IEC 62351 Series and IEC 62443 Series.

A fundamental engineering constraint is that information exchange must not create a new control-system attack surface. Direct connections from national analytical platforms into safety-critical process-control environments should not be the default architecture. Instead, operators should employ purpose-specific gateways, controlled data replication, separation of security zones, authenticated message transport and monitored interfaces designed to prevent analytical systems from issuing unauthorised process commands. In selected high-criticality environments, unidirectional data-transfer arrangements or equivalent restrictive controls may be appropriate where operational monitoring does not require command transmission. Such arrangements should be assessed individually because highly restrictive information paths can also complicate incident acknowledgement, diagnostics and restoration coordination.

Secure Semantic Interoperability

The interoperability layer should convert operator-specific observations into a common description of service status and dependency requirements. This is not primarily a data-formatting exercise. Different sectors use terminology that may appear similar while representing materially different operating conditions: a telecommunications service may be technically available but unable to sustain priority traffic; an electricity installation may be energised but not capable of supporting its normal load; a financial platform may be accessible while settlement remains suspended; and an industrial plant may possess power and communications yet be unable to restart safely without specialised maintenance or material supply.

A common information model should therefore represent essential functions through a limited number of operational attributes: designated service identity, geographic service area, current sustainable output, approved minimum output, expected endurance under current conditions, critical dependencies, available substitutes, restoration resources, estimated restoration interval, uncertainty, reporting authority and decision status. Additional technical details should remain within authorised sector systems, with national coordination platforms receiving only the information necessary for cross-sector assessment and lawful decision-making.

The minimum common operating picture should distinguish between the observation that an asset is operational, the conclusion that its dependent essential function can continue, and the assessment that restoration is achievable within the required period. These distinctions are necessary to avoid false confidence arising from nominal equipment availability, particularly where backup systems operate for limited periods or where restoration depends on external resources whose availability has not been confirmed.

Dependency Analysis and Predictive Modelling

The analytical layer should employ a portfolio of methods rather than rely on a single predictive model. Graph-based dependency analysis can identify critical connections and the possible consequences of losing upstream resources. Network-flow optimisation can estimate how much electricity, communications capacity or logistical throughput can be maintained under constrained conditions. Discrete-event simulation can represent restoration sequences, repair mobilisation and the exhaustion of limited resources. Dynamic electricity-system models remain necessary where physical stability and protection behaviour cannot be represented adequately by a generic dependency graph. Bayesian or probabilistic approaches may support uncertainty assessment when reliable historical data and defensible conditional relationships are available, but they should not generate numerical failure probabilities from subjective assumptions presented as established evidence.

A practical model should answer a narrower set of operational questions: which essential functions are already below their approved operating limits; which additional functions depend on resources likely to become unavailable; which intervention would preserve the greatest essential throughput; what resources and legal authorisations are required; and how sensitive the proposed intervention is to uncertainty in the input data. The objective is decision support under constrained information, not the automatic prediction of every cascading consequence.

The principal limitation concerns validation. Historical infrastructure disruptions provide valuable evidence, but major multi-sector crises are sufficiently heterogeneous that a model calibrated against one incident may perform poorly under another configuration. Furthermore, restoration outcomes are influenced by human decisions, access restrictions, inventory availability, weather, technical compatibility and institutional coordination, many of which may not be fully represented in operational datasets. For this reason, predictive models should be subjected to hindcasting, controlled operational exercises, comparison with simpler baseline methods, structured uncertainty analysis and independent review before their recommendations are used to support critical decisions.

A model should never be considered operationally validated merely because its visualisation appears comprehensive or its simulated cascade is internally consistent. Validation must demonstrate that the model identifies consequential dependencies with sufficient accuracy and lead time to support a decision, and that the operational intervention suggested by the model can be executed without violating safety, legal or technical constraints.

Decision Authority and Pre-Authorised Intervention

The decision layer must distinguish between actions that operators may execute under existing approved procedures, measures requiring sector-regulator authorisation and interventions that require national emergency powers or intergovernmental coordination. This distinction is especially important because an intervention that increases continuity in one sector may impose costs or operational consequences on another. Reprioritising electricity supply, allocating scarce fuel, reserving telecommunications capacity, suspending particular financial operations or directing specialised industrial production can affect property rights, contractual obligations, public safety and market integrity.

A pre-authorised continuity protocol should identify the initiating event, responsible technical authority, permitted operating measures, escalation threshold, required evidence, communication procedure and conditions for termination or reversal. Routine technical switching or approved restoration actions should remain under the control of the qualified operator. Extraordinary decisions affecting multiple sectors should require the competent public authority and an appropriate record of the legal basis, expected consequences and competing operational priorities. Decisions with substantial safety implications, coercive consequences or material effects on essential financial infrastructure should retain mandatory human approval.

This division of authority is not an argument against automation. Automated alerting, anomaly correlation, capacity forecasting and the preparation of alternative recovery plans can reduce decision time, while predefined technical protection systems may need to act automatically within their certified engineering constraints. The limitation concerns the delegation of novel cross-sector decisions to systems whose models, objectives or operating conditions may be uncertain.

Restoration Feedback and Model Correction

The final layer should compare authorised interventions with actual operating results. Every activation should record the intervention selected, the evidence available at the time, the approving authority, expected service effect, resources committed, implementation time, observed output, collateral effects and remaining recovery requirements. These records provide the basis for verifying the continuity metrics established by the competent authority and for evaluating whether predictive models improved or impaired operational decisions.

The feedback process should not be limited to confirming that an incident has been closed. An operator may restore its nominal technical service while dependent users remain unable to function because authentication systems, financial arrangements, transport access or industrial processes have not recovered. Accordingly, national and European reporting should distinguish technical restoration, verified end-to-end service restoration and the completion of outstanding dependencies. This distinction also provides a foundation for independent exercise evaluation and contractual accountability.

Minimum Common Operating Picture: Required Data and Decision Outputs

Information domain	Minimum shared field	Source authority	Quality requirement	Decision supported	Disclosure boundary
Essential-function status	Current throughput and approved minimum	Designated operator	Timestamped, unit-defined and validated	Prioritisation of essential services	Aggregated where detailed data are sensitive
Electricity dependence	Available power and backup endurance	Energy operator or dependent facility	Verified measurement and declared load assumptions	Protected supply and restoration	No unnecessary disclosure of detailed grid controls
Communications dependence	Critical route availability and emergency-channel capacity	Telecom operator	Route-independent availability confirmation	Emergency communications allocation	Sensitive topology restricted
Digital-service dependence	Critical workload availability and recovery readiness	Digital infrastructure operator	Tested integrity and recovery status	Service failover and restoration	No disclosure of unnecessary personal data
Logistics dependence	Usable inventories and replenishment interval	Logistics or industrial operator	Quantity, consumption rate and inventory timestamp	Fuel and component allocation	Commercial data shared proportionately
Financial dependence	Critical settlement availability and contingency status	Financial infrastructure operator	Authoritative status and reconciliation state	Financial continuity coordination	Transaction-level confidentiality preserved
Restoration resources	Repair crew, equipment and material availability	Asset owner or contracted provider	Confirmed readiness, not nominal inventory	Repair sequencing and mutual assistance	Contractually protected operational details
Predictive assessment	Affected functions, uncertainty and intervention alternatives	Approved analytical authority	Model-version and evidence provenance	Decision preparation	Restricted to relevant decision-makers
Authorisation record	Legal basis, decision owner, time and action	Competent authority	Authenticated and immutable audit trail	Lawful crisis activation	Role-based access and retention
Recovery verification	Restored function, tested output and remaining limitations	Operator and independent evaluator	End-to-end confirmation	Closure of emergency measures	Supervisory access proportionate to mandate

The recommended common operating picture is deliberately narrower than an all-sector data lake. A central platform that continuously accumulates detailed infrastructure configurations and financial or personal information would increase cyber exposure, create substantial governance burdens and potentially concentrate sensitive national information without producing corresponding improvements in operational decisions. A federated architecture can achieve the relevant continuity objectives through controlled exchange of verified functional states, dependency requirements and authorised restoration requests.

Artificial Intelligence, Model Assurance and Mandatory Human Judgment

Artificial intelligence can contribute to systemic continuity through anomaly detection, correlation of heterogeneous observations, forecasting of inventory exhaustion, identification of potential dependency failures and generation of alternative restoration sequences. These applications differ substantially in their operational risk. An analytical system that ranks suspected incidents for human review creates a different risk from a system that issues commands to industrial equipment or determines which public services lose access to scarce resources. Consequently, model governance should be based on the consequences of an erroneous output and the degree of autonomy assigned to the system rather than on the general label of artificial intelligence.

The EU Artificial Intelligence Act provides a relevant legal reference, particularly for AI systems intended to be used as safety components in the management and operation of critical infrastructure where the applicable classification conditions are met. However, not every analytic model used by a ministry or infrastructure operator is automatically a high-risk system solely because it concerns national resilience. Classification requires examination of the intended purpose and the operative legal provisions, including the applicable implementation and transitional arrangements. Regulation (EU) 2024/1689 Laying Down Harmonised Rules on Artificial Intelligence — European Parliament and Council — July 2024. EUR-Lex

An operational model assurance process should specify its intended decision, prohibited uses, source data, training or calibration period, relevant failure mechanisms, known limitations and escalation requirements. Validation should measure whether the system identifies relevant dependencies, how frequently it produces consequential false alarms, whether it misses actual deteriorations and how much actionable warning time it provides. Evaluation must include missing data, erroneous sensor readings, correlated system failures, deliberately manipulated telemetry and conditions outside the model’s training or calibration domain. Model changes should be version-controlled, independently reviewed and reversible, particularly where output influences restoration priorities.

Human judgment should remain mandatory at the points where an analytical output could initiate an unsafe industrial action, override a protected essential service, direct exceptional public resource allocation, affect financial-market operation or require exercise of emergency powers. The decision-maker must receive the proposed action, supporting observations, major assumptions, uncertainty and feasible alternatives. A numerical confidence score without a defensible calibration method is not an adequate substitute for this information.

Legal Boundaries for Cross-Sector Information Sharing

Cross-sector monitoring necessarily involves information that may be commercially confidential, security-sensitive or personal. A lawful continuity system must identify the purpose and legal basis for each category of collection and exchange, the competent recipient, the permitted operational use and the retention period. For personal data, the General Data Protection Regulation requires principles including purpose limitation, data minimisation, integrity and confidentiality, and accountability under Article 5; Article 6 requires a lawful basis for processing. A public-interest objective does not create unlimited authority to collect or repurpose information without a valid legal foundation and appropriate safeguards. Regulation (EU) 2016/679 — European Parliament and Council — April 2016. EUR-Lex

Competition law imposes a separate constraint. Infrastructure operators may need to exchange information about available repair capacity, emergency supplies or temporary service limitations, yet such exchanges must not become vehicles for coordinating prices, commercial allocation or market behaviour unrelated to legitimate continuity purposes. The appropriate arrangement is a legally defined emergency-information mechanism that limits information to what is operationally necessary, records participation and decisions, employs independent coordination where appropriate and preserves competent competition authorities’ oversight. Neither critical-infrastructure status nor emergency planning should be interpreted as an automatic exemption from EU competition rules.

The national continuity architecture should also preserve the distinction between voluntary cooperation, statutory reporting obligations and public emergency directions. Existing legislation supports particular forms of incident reporting, sectoral supervision and crisis cooperation, but a general authority to reallocate private resources across national borders must be established through an appropriate legal instrument rather than inferred from cybersecurity coordination provisions.

Chapter 3 — Key Judgments

The proposed intelligence-to-continuity architecture is technically feasible through a federated combination of existing monitoring, secure information exchange, dependency analysis, model assurance and accountable operational control. Its principal value would arise from enabling competent authorities to understand when separate sectoral disturbances threaten a common essential function and from making the consequences of alternative interventions sufficiently explicit to support lawful decisions. The existence of EU-CyCLONe, sector-specific operational systems and established cybersecurity legislation provides a practical foundation, but it does not eliminate the need for intersectoral agreements, data-quality controls, validated predictive models and legally established decision rights.

Confidence is high in the need for protected operational interfaces, accountable human authorisation and end-to-end recovery verification. Confidence is medium in the ability of federated dependency modelling to improve restoration sequencing across several sectors, because effectiveness depends on the quality of operator data and the availability of tested alternatives. Confidence remains low in any claim that advanced AI models can reliably forecast complex European-wide cascades under unprecedented simultaneous failures without substantial operational validation.

The assessment would change if independent, repeatable exercises demonstrated that predictive models consistently improve restoration outcomes across materially different disruptions, or if authoritative operational evidence showed that existing information-sharing mechanisms already achieve comparable results without additional institutional architecture. The required evidence is a measured comparison of decisions, intervention times and essential-service outcomes, not the demonstration of a monitoring platform alone.

Chapter 4 — Public-Private Governance, Regulatory Enforcement and Financial Accountability

Strategic Judgment: Continuity Obligations Must Follow Functional Control, Financial Responsibility and Legal Authority

The principal governance challenge in European systemic resilience is the distribution of operational control among institutions that possess different legal mandates, financial incentives and technical responsibilities. National governments remain responsible for the protection of public order and the exercise of emergency powers; sector regulators supervise compliance within legally defined jurisdictions; critical-infrastructure operators retain responsibility for the safe and effective operation of their assets; technology suppliers determine the availability and maintainability of specialised components; and European institutions coordinate selected cross-border functions without exercising unrestricted command over national infrastructure. A governance model that fails to distinguish these responsibilities can produce two equally damaging outcomes: accountability gaps in which no institution possesses both the information and authority necessary to prevent escalation, and overlapping interventions in which several authorities issue incompatible instructions to the same operator.

The institutional objective should not be the creation of a new European supervisory body with general authority over every essential infrastructure sector. A more proportionate approach is to establish binding interfaces between existing competent authorities, require clearly documented responsibility for each essential-function dependency and make continuity performance independently verifiable. This model preserves the technical and legal advantages of sector-specific supervision while addressing the systemic weaknesses created when a critical function depends on infrastructure outside the supervising regulator’s jurisdiction.

Directive (EU) 2022/2557 provides a legal foundation for identifying critical entities, assessing cross-border and cross-sector dependencies, implementing proportionate resilience measures and facilitating cooperation between Member States. Article 11 addresses consultations concerning connected infrastructure and entities providing essential services across borders, while Articles 12 and 13 establish requirements for critical-entity risk assessments and resilience measures. These provisions are significant because they already recognise that a designated entity’s obligations cannot be evaluated solely within the boundaries of its own facilities. They do not, however, automatically create a horizontal European authority capable of directing all involved operators during a multi-sector crisis. Directive (EU) 2022/2557 on the Resilience of Critical Entities — European Parliament and Council — December 2022. EUR-Lex

The operational governance model must therefore specify who owns each continuity obligation, who verifies fulfilment, who may order exceptional action, who pays for maintained emergency capacity and who bears responsibility when a contracted resource is unavailable. These questions should be settled before an incident through legislation, regulated service obligations, procurement contracts and mutual-assistance arrangements rather than negotiated under emergency conditions.

Responsibility Allocation Across Prevention, Detection, Response and Restoration

The proposed responsibility structure should distinguish four operational phases and two assurance functions. Prevention includes engineering controls, dependency mapping, supply-chain qualification, approved contingency procedures and maintenance of emergency resources. Detection includes monitoring, validation of operational state and timely notification of relevant authorities and dependent services. Response includes containment, emergency service prioritisation, activation of contingency arrangements and coordination of scarce resources. Restoration includes physical repair, controlled system restart, reconciliation of digital and financial records, verification of essential-function output and safe withdrawal of temporary measures. Independent assurance covers the evaluation of readiness and actual performance, while enforcement concerns the lawful correction of deficiencies and application of applicable supervisory or contractual remedies.

A critical feature of this structure is the requirement for one accountable operational owner for each essential function, even where many entities contribute necessary inputs. Joint responsibility should not be used as a substitute for identifying who must make the decision when resources, information or operational priorities conflict. Participating organisations can retain separate technical authority while accepting contractually defined obligations to provide specific inputs or recovery services.

Responsibility	National ministry or crisis authority	Sector regulator	Essential-function operator	Technology or repair provider	Independent evaluator
Designation of nationally essential functions	Accountable under national law	Consulted	Supplies evidence	Consulted where necessary	No designation authority
Approval of sector-specific continuity metrics	Coordinates national priorities	Accountable within mandate	Proposes and implements	Supplies feasibility evidence	Evaluates testability
Dependency identification	Coordinates cross-sector integration	Supervises covered entities	Accountable for own dependency register	Discloses contracted dependencies	Verifies completeness within audit scope
Operational monitoring	Receives proportionate crisis information	Supervisory access	Accountable for detection	Monitors contracted services	Assesses monitoring controls
Incident notification	Coordinates national escalation where authorised	Receives statutory notices	Makes required notifications	Notifies contractual counterparty	Reviews compliance after incident
Immediate technical containment	Exercises only applicable legal powers	Supervisory role	Accountable for safe execution	Executes authorised support	No live-command role
Cross-sector restoration priorities	Accountable where statutory power exists	Advises within competence	Implements lawful and safe instructions	Provides resources	Reviews decisions retrospectively
Repair and replacement	May activate public support mechanisms	Monitors regulated compliance	Accountable for asset restoration	Responsible for contracted delivery	Tests accepted performance
Emergency resource financing	Funds justified public-interest capability	Approves cost recovery where empowered	Bears allocated operating costs	Receives contracted compensation	Audits eligibility and performance
Corrective-action closure	Oversees systemic deficiencies	Enforces applicable obligations	Implements remediation	Corrects supplier failures	Verifies evidence independently

This is a proposed functional responsibility matrix, not a claim that every Member State currently assigns powers in this manner. The allocation of public authority must be reconciled with the applicable national legal framework, constitutional protections, sectoral licences and emergency arrangements. In particular, independent evaluators may assess readiness and recommend corrective action but should not possess direct operational authority merely because they conduct audits.

Enforceable Continuity Duties and the Existing Regulatory Framework

European legislation offers several mechanisms for converting resilience expectations into obligations, but these mechanisms differ in scope and cannot be merged without regard to legal competence. NIS2 establishes cybersecurity risk-management duties, significant-incident reporting requirements and supervisory arrangements for covered entities. Article 21 addresses technical, operational and organisational cybersecurity measures, while Article 23 establishes notification requirements. Subject to the applicable provisions and exceptions, significant incidents require an early warning within 24 hours of awareness, an incident notification within 72 hours and a final report within the prescribed subsequent period. These deadlines regulate reporting, not the maximum time allowed to restore an essential service. Directive (EU) 2022/2555 — European Parliament and Council — December 2022. EUR-Lex

DORA creates a more developed precedent for enforceable digital operational resilience within the financial sector. Its Article 28 addresses ICT third-party risk, Article 30 establishes minimum contractual provisions and Articles 24–27 address digital operational-resilience testing, including threat-led penetration testing for qualifying financial entities. Article 30 requires contractual arrangements supporting critical or important functions to include appropriate quantitative and qualitative service-performance targets, incident assistance, contingency obligations and relevant monitoring and audit rights. This provides a concrete model for translating operational dependency into contractual terms, although applying equivalent requirements outside financial services would require an appropriate sector-specific legal or contractual basis. Regulation (EU) 2022/2554 on Digital Operational Resilience for the Financial Sector — European Parliament and Council — December 2022.

The governance objective should be to extend the discipline of measurable outcomes and enforceable dependencies without producing unnecessary duplicate compliance. Where existing sectoral rules already impose sufficiently equivalent continuity and testing duties, competent authorities should recognise the relevant evidence and require additional cross-sector assurance only for material dependencies not adequately addressed. The Critical Entities Resilience Directive expressly accommodates the use of relevant existing risk assessments and measures, subject to competent-authority assessment, providing an institutional basis for avoiding repetitive documentation while preserving substantive accountability. Directive (EU) 2022/2557 — European Parliament and Council — December 2022. EUR-Lex

For a new cross-sector obligation to be enforceable, the underlying legal instrument should identify the affected entities, essential-service functions, standards-setting authority, required performance evidence, permitted exceptions and consequences of non-compliance. A general duty to cooperate may be useful, but it does not necessarily establish a measurable restoration obligation. Conversely, detailed numerical requirements imposed without adequate engineering differentiation can create unsafe incentives, such as premature restart or the diversion of resources away from safety-critical activities merely to satisfy a formal deadline.

The legal architecture should therefore permit justified deviations from approved recovery objectives where strict compliance would compromise life safety, physical-system integrity or another legally protected essential function. Such exceptions should require a contemporaneous record of the circumstances, the responsible decision-maker and the corrective measures necessary to restore compliance, rather than operating as unrestricted exemptions.

Continuity Contracts: The Necessary Clauses for Public and Private Suppliers

Contracts governing essential services and restoration-critical resources should distinguish routine commercial service levels from emergency continuity obligations. A conventional availability agreement may compensate an operator when a service becomes unavailable, but financial compensation after a major outage does not necessarily preserve the essential function dependent on that service. A resilience contract must therefore address the provider’s ability and obligation to maintain emergency resources, communicate deteriorating availability, support restoration and participate in coordinated exercises.

The contractual performance specification should identify the covered essential function, the designated operating conditions, the maximum response or mobilisation interval, the resources reserved for emergency use, technical compatibility requirements, replacement and repair procedures, reporting obligations, access and audit rights, subcontracting restrictions and the consequences of unavailable capacity. For digital services, the agreement should additionally specify data recovery, independent access to critical configurations, relevant identity and cryptographic arrangements, migration procedures and the conditions under which services can be transferred to alternative providers.

Contractual element	Required operational content	Verifiable evidence	Failure consequence
Defined essential function	Precisely identified service and priority beneficiaries	Approved service register	Unambiguous contract scope
Emergency activation	Triggers, eligible authorities and notice procedures	Activation exercise	Escalation and contractual remedy
Reserved capacity	Quantity, location, readiness and exclusivity or priority rights	Inventory and availability audit	Payment adjustment or agreed remedy
Restoration commitment	Measurable mobilisation, repair or recovery obligations	Witnessed operational test	Corrective action and applicable damages
Subcontractor assurance	Upstream dependencies, access rights and substitution	Supply-chain review	Mandatory mitigation or replacement
Technical interoperability	Compatibility, interfaces, configurations and test criteria	Qualification certificates and acceptance tests	Non-acceptance until compliant
Cybersecurity and data protection	Security controls, lawful information access and reporting	Audits and controlled test results	Regulatory or contractual action
Exercise participation	Scope, permitted disruption and evidence requirements	Exercise attendance and results	Remediation and contract review
Change notification	Material changes in equipment, software, ownership or supply	Recorded notices	Requalification where necessary
Exit and continuity transfer	Access to information, spares, credentials and migration support	Demonstrated transition	Step-in or transition remedy where lawful

The strongest contractual mechanism is not necessarily the largest financial penalty. A provider facing unpredictable and unlimited emergency liabilities may increase prices, withdraw from the relevant market or refuse to maintain specialised capacity, thereby worsening supply concentration. A sustainable arrangement should combine payment for independently verified availability, proportionate remedies for failures within the supplier’s control, transparency over upstream dependencies and the ability to use alternative providers when performance deteriorates. Government procurement authorities should also evaluate whether contractual step-in rights are technically executable; a legal right to assume control of a specialised service has little operational value if the necessary personnel, documentation, equipment or software access is unavailable.

Investment Verification and the Economics of Maintained Spare Capacity

Spare capacity creates a governance problem because its principal public value may become visible only during exceptional events. Operators may have limited commercial incentives to maintain facilities, inventories, personnel or communications routes that remain underused during normal conditions, especially when the resulting resilience benefits accrue to other sectors or to society more broadly. This is a plausible case for targeted public support, but the appropriate intervention depends on whether the capability provides a broadly shared public benefit, supports a regulated monopoly, protects a commercially contracted service or primarily reduces the risk borne by a particular operator.

Where the benefits of redundancy are substantially internal to an operator and can be financed through normal commercial or regulated revenue, public subsidy should not be the default. Where an asset provides measurable benefits to multiple critical functions and no individual operator can reasonably recover the full cost, a shared financing arrangement may be warranted. Where the resource has an essential national-security function but little commercial demand, direct government procurement or a paid availability contract may be more transparent than an indirect subsidy. In every case, the financing decision should compare the costs and limitations of physical redundancy, inventory, alternative suppliers, repair contracts and operational workarounds before selecting an intervention.

The financing structure should avoid double recovery. A provider should not receive separate compensation for maintaining the same capacity through regulated tariffs, government availability payments and emergency-service contracts without transparent allocation of the corresponding costs and rights. Equally, a public authority purchasing emergency capacity must ensure that contractual priority rights do not become ineffective because the same equipment has been promised simultaneously to several customers or jurisdictions.

A credible investment programme should make disbursement conditional on auditable milestones: technical design approval, equipment or software qualification, physical availability, personnel readiness, successful interoperability testing, contractual accessibility and repeat verification under realistic conditions. This ensures that public funds are tied to the delivery of an operational capability rather than solely to construction expenditure, research progress or supplier declarations.

Cross-Border Coordination Without Unlawful Centralisation

European cross-border continuity should be constructed as a network of enforceable reciprocal obligations rather than a presumption that national infrastructure automatically becomes subject to a single European emergency chain of command. Member States differ in constitutional arrangements, infrastructure ownership, security classification, emergency powers and the allocation of responsibilities between central and regional authorities. These differences do not prevent cooperation, but they require carefully specified mechanisms for requesting assistance, activating shared resources, exchanging protected information and resolving conflicting claims on scarce capacity.

A European continuity agreement should identify the participating authorities and operators, the assets or services covered, the conditions permitting activation, the decision process, applicable cost allocation, liability provisions, information-security arrangements and the treatment of simultaneous requests. It should distinguish normal mutual assistance from extraordinary interventions requiring additional national authorisation. Where infrastructure or operators are subject to separate EU and non-EU jurisdictions, including arrangements involving the United Kingdom, the agreement must specify the relevant legal authority and cross-border obligations rather than assume common regulatory competence.

EU-CyCLONe and the CSIRTs Network provide operational cooperation mechanisms for cybersecurity incidents, but broader physical and economic continuity requires participation by the competent energy, transport, financial and civil-protection authorities. The appropriate model is coordinated decision support, reciprocal resource access and documented escalation, with operational command remaining in the hands of actors legally empowered and technically qualified to execute the relevant measures. EU-CyCLONe — European Union Agency for Cybersecurity. ENISA

Regulatory Performance Audit and Enforcement

A performance-oriented supervisory model should assess whether an entity can demonstrate the actual continuity of its essential function rather than merely produce policies, inventories and risk registers. The audit should cover the approved service threshold, dependencies identified, technical controls implemented, recovery resources available, tests performed, results achieved, material exceptions and unresolved deficiencies. Findings should distinguish the absence of documentation from the absence of a functioning capability, and significant deficiencies should be prioritised according to their implications for essential-service continuity.

Enforcement should be proportionate and legally grounded. A failure to maintain a mandated backup arrangement or contractually reserved resource may justify a formal corrective order, additional testing, restrictions on claiming compliance or other remedies available under applicable law. A demonstrated systemic vulnerability that falls outside existing legal obligations may instead require regulatory revision, public procurement intervention or a new contractual arrangement. Authorities should not present proposed penalties or certification requirements as existing law merely because they would be desirable for the continuity programme.

The most consequential proposed innovation is a verified continuity performance register, maintained within the competent supervisory structure and restricted according to operational sensitivity. It would record which essential functions have approved thresholds, which operators have demonstrated compliance, what external dependencies remain unresolved and which corrective actions are overdue. Its purpose would be to permit national and European authorities to direct scarce resources towards genuine operational vulnerabilities while avoiding public disclosure of detailed infrastructure weaknesses.

Chapter 4 — Key Judgments

The regulatory framework already contains meaningful duties concerning risk management, incident reporting, continuity planning, supplier oversight and operational resilience. The remaining governance challenge is to make those duties interoperable across sectoral boundaries and to establish a measurable, enforceable relationship between essential-service requirements and the resources needed to satisfy them. This conclusion carries high confidence because the legal instruments and associated supervisory responsibilities are documented, while the proposed cross-sector extensions can be clearly distinguished from existing obligations.

The preferred institutional model is a distributed system of operational accountability, competent regulatory oversight and nationally authorised crisis coordination, supported by European standards and reciprocal arrangements. A new central command structure would not automatically resolve technical or legal fragmentation and could introduce additional concentrations of authority and information. Confidence is medium in the feasibility of comprehensive cross-border continuity contracts, since their effectiveness depends on national legal powers, compatible procurement provisions, financially sustainable obligations and the practical availability of shared resources.

The assessment would change if new legislative instruments established a broader direct European competence over designated cross-border restoration functions, or if operational evidence demonstrated that existing national arrangements already provide effective reciprocal access to essential repair and supply resources under concurrent emergencies. Until such evidence exists, enforcement proposals should remain explicitly connected to the authority provided by existing legislation, licences and contracts.

Chapter 5 — Multi-Sector Exercises, Adversarial Validation and Restoration Certification

Strategic Judgment: Exercise Success Must Be Demonstrated Through Essential-Service Performance, Not Participation or Procedural Completion

Multi-sector continuity exercises are the principal mechanism through which a national or European resilience architecture can be assessed before a major disruption exposes its deficiencies. Conventional preparedness exercises often concentrate on the circulation of incident reports, the activation of crisis-management bodies and the ability of participants to complete planned procedural steps. These functions are necessary, but they do not establish that essential services can remain available or be restored under complex and concurrent infrastructure failures. A successful communications exercise does not demonstrate electrical black-start capability; a well-coordinated cyber incident response does not prove the availability of replacement industrial controllers; and an exercise in which participants correctly identify an infrastructure dependency does not demonstrate that the equipment, personnel and legal authority needed to resolve it are available within the required period.

The core methodological requirement is to treat exercise performance as an observed operational outcome measured against predefined continuity specifications. An exercise should establish whether the designated function maintained its minimum sustainable throughput, whether approved restoration objectives were met, whether the expected dependencies and constraints actually materialised and whether the interventions selected by the competent authorities improved the outcome without producing unacceptable secondary consequences. Procedural compliance remains relevant, but it should be assessed as one contributor to service continuity rather than as an independent substitute for it.

The 2024 edition of ENISA’s Cyber Europe exercise provides an important institutional reference for the scale and organisational complexity achievable through European cooperation. Conducted in June 2024, the exercise involved approximately 5,000 participants from energy, digital infrastructure, public administration and European cybersecurity networks, with approximately 28,000 scenario injects. ENISA’s subsequent assessment, published on 10 December 2024, reported that more than 90% of participating players perceived improved readiness and preparedness, while also identifying opportunities to strengthen procedures, communication and crisis-management arrangements. These figures demonstrate participation and exercise activity; perceived improvement is not equivalent to independently verified ability to restore real infrastructure under simultaneous failure. Cyber Europe 2024: Key Insights from the Energy-Sector Cyber Exercise — European Union Agency for Cybersecurity — December 2024. ENISA

The methodological implication is that future multi-sector exercises should include a separate operational-performance evaluation, enabling national authorities to distinguish successful crisis coordination from demonstrated restoration capability. This need not require uncontrolled disruption of live infrastructure. A graduated exercise programme can combine structured simulations, controlled technical testing, limited live-system demonstrations, isolated operational environments and independently observed recovery trials, with each method evaluated according to the evidence it can legitimately provide.

The Exercise Architecture: Strategic, Operational and Technical Levels

A credible European continuity exercise should operate across three decision levels that interact during the scenario but retain distinct responsibilities. The strategic level concerns national public-interest priorities, cross-border assistance, legal authorities, scarcity of resources and the management of consequences affecting several essential services. The operational level concerns coordination between infrastructure operators, sector regulators, emergency services, financial infrastructures and critical suppliers. The technical level concerns the actual behaviour of equipment, communication systems, control environments, recovery platforms and restoration tools.

These levels must be connected by realistic information constraints. Strategic authorities should not automatically receive complete technical knowledge that would be unavailable during an actual incident, and technical operators should not be assumed to possess immediate certainty about the intentions or decisions of other organisations. Injects should include incomplete reports, delayed confirmation, conflicting information, unavailable personnel, supplier restrictions and deteriorating service conditions where such circumstances are relevant to the exercise objectives. However, adversarial uncertainty must not become arbitrary complexity. Every injected condition should correspond to a credible failure mechanism, documented operational constraint or explicitly identified uncertainty that the exercise is intended to test.

The exercise should begin with a predefined set of essential functions, approved continuity thresholds, participating entities, available resources and authorised operating procedures. A separate control team should maintain the complete scenario, distinguish simulated from actual events and possess authority to suspend activity if safety or operational risks become unacceptable. Independent evaluators should document decisions and observed outcomes against agreed metrics, while participants should remain responsible for operating their own systems and requesting assistance through the designated channels.

Exercise level	Primary participants	Tested capability	Required observation	Principal failure indicator
Strategic	National crisis authorities, competent ministries, relevant European coordinators	Prioritisation, legal escalation and resource allocation	Decision timing, lawful authority and conflicting priorities resolved	No empowered decision-maker or incompatible public directions
Sectoral coordination	Energy, telecom, finance, transport and digital regulators or coordinators	Cross-sector information exchange and reciprocal assistance	Verified service status, dependency requests and assistance activation	Delayed or contradictory dependency information
Operator command	TSOs, DSOs, telecom operators, infrastructure and financial-system operators	Service protection and recovery decisions	Essential throughput and recovery time	Approved functional minimum not sustained
Technical restoration	Engineers, operations centres, specialist contractors and recovery teams	Equipment recovery, switching, failover and repair	Witnessed technical results and safety checks	Recovery procedure cannot be completed
Industrial support	Manufacturers, logistics providers, repair services and critical suppliers	Emergency access to replacement resources	Material availability, mobilisation and delivery	Contracted resources unavailable
Independent assurance	Qualified evaluators and supervisory representatives	Objective assessment and evidence integrity	Traceable results, deviations and corrective actions	Procedural success unsupported by operational evidence

A specific design requirement is the inclusion of financial-market and logistics participants even when the originating disturbance occurs in energy or telecommunications. Their participation allows the exercise to evaluate whether apparently secondary consequences create constraints on restoration, including the availability of payments, collateral, fuel, transport, industrial spare parts and essential service contracts. Such involvement should be proportionate to the scenario and designed to avoid inappropriate disclosure of commercially sensitive or regulated information.

Designing Cascade Scenarios and Degraded-Mode Tests

The most useful exercise scenario is not necessarily the one involving the greatest number of simulated failures. Its value lies in testing whether participants can recognise, contain and restore a defined chain of dependencies under plausible constraints. A well-designed sequence might begin with the degradation of a telecommunications facility supporting electricity-system operations while selected facilities simultaneously experience restrictions on backup-power replenishment. The exercise would then assess whether the electricity operator can preserve the necessary communications, whether telecommunications providers can maintain emergency traffic, whether fuel and transport providers can honour emergency deliveries and whether national authorities possess sufficiently accurate information to resolve conflicting demands.

A different scenario may focus on loss of redundant digital infrastructure supporting financial settlement, combined with a restriction affecting external technical support or communications. This can test whether participants understand the distinction between restarting a computing environment and restoring the complete financial function, including transaction reconciliation, liquidity arrangements, dependent services and authorised resumption of operations. The TARGET Services disruption demonstrates the relevance of this distinction: its recovery was affected not only by the underlying technical failure but also by diagnostic uncertainty, failover decisions and collateral-mobilisation dependencies. TARGET Services Annual Report 2025, Box 3 — European Central Bank — 2026. European Central Bank

A third class of scenario should examine the industrial consequences of prolonged transport or repair constraints. The central question is whether an essential function can continue operating when normal inventories and contracted support become unavailable, whether approved alternatives are technically compatible and whether emergency allocation arrangements can be executed without creating unacceptable legal or commercial conflicts. The exercise should distinguish simulated production capacity from verified output and nominal spare-part inventories from components that can actually be installed and commissioned.

Adversarial Testing and Safe Technical Boundaries

Adversarial injection can improve exercise realism by testing the effects of malicious interference, unreliable data, compromised communications, manipulated operational information and conflicting incident reports. However, the purpose is not to demonstrate destructive attack techniques against live infrastructure. The proper test objective is to determine whether operators can identify degraded trust, preserve safe operations, transition to authorised fallback procedures and recover functionality using independent or validated information.

The TIBER-EU framework offers an established example of controlled, intelligence-led red-team testing. On 11 February 2025, the Eurosystem announced that the framework had been updated to align with DORA’s regulatory technical standards for threat-led penetration testing, including changes to testing procedures and requirements for purple-teaming. The framework provides guidance on cooperation among authorities, tested entities, threat-intelligence providers and red-team testers, with the intention of improving resilience through controlled exercises. It is a relevant model for assurance governance, but it should not be interpreted as a general authorisation to perform intrusive testing on electricity, transport or industrial safety systems outside an agreed scope. TIBER-EU Framework Updated to Align with DORA — European Central Bank — February 2025. European Central Bank

For industrial and cyber-physical environments, the preferred methodology is to separate potentially disruptive adversarial activity from uncontrolled production systems through appropriately isolated replicas, digital simulation, hardware-in-the-loop facilities or carefully bounded testing windows. Direct testing on operational equipment should occur only where the technical authority has established a defensible safety case, documented restoration procedures and effective stop conditions. The validity of an exercise depends on realism, but realism must not be confused with an obligation to expose the public to avoidable operational hazards.

Exercise Cadence, Assurance Categories and Classification

The frequency of continuity exercises should reflect the rate at which infrastructure dependencies, software, equipment and operating conditions change. A legally prescribed minimum cycle may be sufficient for a particular regulatory purpose but insufficient for all technical aspects of a high-consequence system. Conversely, requiring every organisation to conduct frequent full-scale multi-sector exercises may impose disproportionate costs and operational risks. A tiered programme can maintain regular testing of critical procedures while reserving complex cross-border exercises for risks that require simultaneous participation by several institutions.

DORA provides a specific minimum cadence for qualifying financial entities subject to advanced threat-led penetration testing: Article 26 requires relevant identified entities to undertake such testing at least every three years. This is a legal requirement for the entities concerned, not a universal three-year standard for all European infrastructure. Regulation (EU) 2022/2554, Article 26 — European Parliament and Council — December 2022. EUR-Lex

A proposed cross-sector exercise programme could adopt the following differentiated structure, subject to national regulatory approval and proportionality assessment.

Exercise category	Proposed cadence	Principal scope	Evidence required	Operational limitation
Operator continuity drill	Quarterly for designated high-criticality functions	Selected failover, emergency communication or recovery procedure	Timed completion and validated output	No uncontrolled production disruption
Sectoral restoration exercise	At least annually for designated priority systems	End-to-end recovery of selected essential functions	Observed RTO and throughput performance	Technical safety approval
National multi-sector simulation	Annually	Energy, telecom, finance, logistics and government coordination	Dependency recognition, decision rights and resource activation	Controlled simulation environment
Cross-border European exercise	Every two years as a proposed programme target	Reciprocal assistance and multinational restoration constraints	Interoperability and mobilisation results	Participating-state authority required
Advanced adversarial technical test	Risk-based, subject to applicable sector requirements	Controlled cyber-physical resilience assessment	Independent findings and recovery verification	Approved test scope and safety controls
Post-remediation retest	Before deficiency closure	Previously failed requirement	Repeated successful outcome	Independent evaluation appropriate to risk

These cadences are proposed planning targets except where an applicable legal instrument establishes an actual requirement. Their financial and operational feasibility should be reviewed before incorporation into regulatory or contractual obligations, particularly for smaller entities whose essential role may justify shared testing facilities or coordinated exercises rather than independent full-scale programmes.

Exercise information should be classified or otherwise protected according to its content, not automatically given a uniform high classification. Public summaries may disclose programme participation, broad findings and measurable improvement without revealing infrastructure vulnerabilities, detailed network configurations, security weaknesses or exploitable operating procedures. Sensitive technical evidence should be accessible to the competent operators, supervisory authorities and authorised evaluators under relevant national and European information-security rules. This approach supports public accountability while reducing the risk that resilience reporting becomes an unintended source of operational intelligence for hostile actors.

Independent Evaluation: From Exercise Injects to Measured Performance

Exercise evaluation should distinguish activity metrics, process metrics and operational outcomes. The number of participants, injects, meetings or messages provides information about programme scale, but none of these measures directly establishes that an essential function remained within its required operating envelope. Process measures such as the timeliness of escalation, completeness of reports and correct use of decision procedures are more relevant, but still insufficient when recovery resources are unavailable or technical outputs remain below the approved minimum.

Operational evaluation should therefore establish the duration of service interruption, the essential throughput sustained, the time required to identify critical dependencies, the resources consumed, the accuracy of restoration estimates and the time needed to return to a stable verified state. For exercises involving predictive models, evaluators should record which warnings were correct, which relevant dependencies were missed, the lead time available before service degradation and whether the model-supported decisions outperformed a transparent baseline procedure.

The evaluation design should be approved before the exercise begins. Altering thresholds after observing the outcome would undermine comparability and could turn a substantive failure into an apparent success through retrospective redefinition. Where an exercise cannot test a critical requirement safely, the limitation should be recorded and the requirement assessed through a supplementary technical method rather than declared satisfied on the basis of participant confidence.

Evaluation dimension	Measurement	Evidence source	Failure condition	Corrective-action requirement
Service endurance	Time essential throughput remains above approved minimum	Operator telemetry or validated test output	Throughput falls below approved threshold	Restore capacity or revise dependencies
Restoration time	Elapsed time to verified functional recovery	Timestamped operational records	Approved RTO exceeded without justified exception	Technical and procedural remediation
Dependency identification	Share of prevalidated critical dependencies correctly identified	Independent scenario record	Material dependency omitted	Register and monitoring correction
Decision timeliness	Time between actionable warning and authorised intervention	Decision log	Required action delayed beyond approved limit	Authority or escalation redesign
Model reliability	Correct warnings, missed dependencies and false alarms	Model output compared with exercise ground truth	Performance below approved acceptance criteria	Recalibration or withdrawal from use
Repair mobilisation	Time to activate and deploy qualified resource	Contract and mobilisation records	Resource unavailable despite applicable obligation	Supplier remediation and retest
Financial continuity	Critical settlement processing and reconciliation completion	Authoritative exercise or platform records	Critical financial function not restored	Contingency process improvement
Cross-border assistance	Time and completeness of requested mutual support	Participating authority records	Required assistance cannot be lawfully or operationally activated	Agreement or procedure revision
Safe restoration	Absence of unacceptable unsafe system states during restart	Technical safety observations	Safety boundary violated	Suspend relevant procedure pending correction
Corrective-action closure	Independently verified remediation	Follow-up testing	Deficiency repeated or uncorrected	Escalated supervisory response

The evaluator’s independence must be appropriate to the consequences of the assessed function. An internal audit team may provide useful assurance for routine tests, while cross-sector restoration certification should involve independent technical competence and sufficient authority to challenge the operator’s interpretation of results. The evaluator should not be financially rewarded for declaring a successful outcome, and the test scope should prevent the exclusion of known material dependencies solely to improve reported performance.

Restoration Certification and the Institutionalisation of Corrective Actions

Restoration certification should be treated as a performance-based assurance mechanism rather than an additional generic cybersecurity certificate. Its purpose is to establish whether a designated essential function can sustain the approved minimum service and recover within the accepted limits under the defined test conditions. Certification should identify the tested function, operating configuration, dependencies included, scenarios applied, technical limitations, observed performance and period during which the result remains valid. It should also state whether the test demonstrated actual restoration or merely verified elements of a planned procedure.

A certification result should not remain valid indefinitely when material changes occur in equipment, software, infrastructure topology, service demand, supplier arrangements or recovery procedures. Operators should be required to reassess relevant aspects of their continuity evidence following significant modifications or incidents demonstrating previously unrecognised dependencies. The goal is to prevent certificates from becoming historical administrative artefacts detached from the current operating condition of the system.

The corrective-action process should assign an accountable owner, measurable acceptance criterion, completion requirement and independent verification method to each material deficiency. An exercise finding should remain open until the affected capability has been retested or otherwise demonstrated to satisfy the required standard. Where the deficiency involves several organisations, the responsible supervisory authorities should establish a coordinated remediation plan without obscuring each operator’s individual duties.

A major institutional risk is that exercises become increasingly sophisticated while the identified weaknesses remain unresolved because no authority can compel investment or because the financing of shared dependencies remains disputed. For this reason, the governance arrangements established in the preceding chapter must connect exercise outcomes to procurement, regulatory inspection, contractual remedies and public investment decisions. The continuity programme should measure the proportion of significant deficiencies corrected and successfully retested, rather than the number of recommendations issued.

European Exercise Coordination and the Role of National Systems

A European multi-sector exercise structure should be compatible with established national crisis-management responsibilities and existing European cybersecurity mechanisms. EU-CyCLONe already supports operational cyber-crisis coordination and ENISA-supported exercises such as CySOPex and BlueOLEx, which address operational procedures, information sharing and crisis decision-making. This provides a practical institutional base for additional intersectoral coordination, although direct participation by electricity, transport, financial and industrial authorities would require relevant sectoral arrangements rather than simply expanding cybersecurity terminology. EU-CyCLONe — European Union Agency for Cybersecurity. ENISA

The most effective implementation would allow national authorities to test domestic restoration procedures in their own legal and technical environments while participating in a common European exercise scenario that exposes cross-border dependencies. Results should be comparable through agreed definitions of throughput, recovery, mobilisation and decision timing, without requiring all participating countries to disclose identical categories of sensitive infrastructure information. Cross-border performance should be assessed through the actual activation of agreed communication and assistance mechanisms, not merely through confirmation that contact lists and coordination committees exist.

Participation by private operators must be supported through realistic contractual and regulatory arrangements. Organisations should know the information they are required to provide, the operational systems that may be tested, the protection of sensitive findings, the allocation of testing costs and the liability arrangements applicable if an authorised test causes an unintended disturbance. Without these provisions, mandatory exercises may encourage superficial participation and defensive reporting rather than meaningful validation.

Chapter 5 — Key Judgments

European institutional experience demonstrates that large, complex cybersecurity exercises can be organised and that structured adversarial testing can be integrated into financial-sector supervision. The remaining requirement is to establish a more rigorous connection between exercise activity and independently demonstrated essential-function continuity. This judgment carries high confidence because the relevant European programmes and technical approaches are documented, while the distinction between procedural performance and verified restoration is measurable.

The proposed validation system should prioritise controlled technical demonstrations, cross-sector decision exercises, independent operational evaluation and enforceable remediation. The integration of live infrastructure testing must remain limited by safety requirements, applicable legal authority and the operator’s capacity to prevent unintended consequences. Confidence is high in the value of predefined service metrics and independent test evidence, while confidence is medium in the feasibility of imposing common cross-border certification procedures across all relevant sectors by 2032.

The decisive evidence gap concerns the current availability of comparable European data on essential-function recovery performance under concurrent infrastructure disturbances. A harmonised exercise reporting standard, accompanied by controlled access to verified technical outcomes, would provide a more reliable basis for future investment and regulatory decisions than participation totals or subjective preparedness assessments alone.

Institutional sources for the dashboard

The governance, cyber-crisis coordination and legal responsibilities represented in the component are grounded in Directive (EU) 2022/2555 — European Parliament and Council — December 2022, Directive (EU) 2022/2557 — European Parliament and Council — December 2022, Regulation (EU) 2022/2554 — European Parliament and Council — December 2022, EU-CyCLONe — European Union Agency for Cybersecurity, Cyber Europe 2024 — ENISA — December 2024 and TIBER-EU Framework Update — European Central Bank — February 2025.

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PILLAR III — IMPLEMENTATION, STRATEGIC CHOICES AND THE 2032 OUTLOOK

Chapter 6 — Technology and Industrial Road Maps, 2027–2032

Strategic Judgment: Implementation Must Be Governed by Restoration Capability, Industrial Readiness and Verified Operational Outcomes

The implementation of an integrated European continuity architecture through 2032 requires a programme that distinguishes technologies already suitable for operational deployment from emerging capabilities requiring further qualification and developmental approaches whose performance has not been established under realistic multi-sector disruptions. The decisive challenge is not the identification of additional technologies capable of contributing to resilience, but the integration of existing engineering capabilities, specialised industrial resources and legally authorised operating arrangements into restoration systems whose effectiveness can be independently measured. Public authorities should therefore resist the tendency to treat technological sophistication, automation, national manufacturing expenditure or infrastructure expansion as sufficient indicators of progress, because none of those variables establishes whether an essential service can continue operating, withstand the loss of a critical dependency or recover within its approved interruption limit.

The 2027–2032 implementation programme should be organised around five operationally distinct capability portfolios: submarine communications and electricity-cable recovery; electricity-system islanding, black-start and controlled restoration; secure operational-technology supply and maintainability; financial-market continuity during extended infrastructure stress; and predictive modelling of cascading failures. Each portfolio requires different engineering standards, specialist resources, investment structures and acceptance tests. A submarine repair capability is limited by maritime mobilisation, physical equipment and cable compatibility; electrical restoration is constrained by system stability, protection coordination and generating resources; industrial-control continuity depends on component qualification, configuration integrity and safe process recovery; financial-system continuity involves settlement finality, liquidity, reconciliation and interconnected platform availability; and predictive modelling depends on the quality of dependency information and the reliability of the decisions it supports.

These differences make a single pan-European technology procurement programme an inadequate organising principle. A common architecture should instead establish comparable expectations for technical readiness, verifiable performance, cross-border accessibility and accountable decision-making, while allowing each sector to satisfy those expectations through engineering methods appropriate to its physical and institutional characteristics. The preferred implementation sequence begins with capabilities that can be improved using established technologies and contracts, advances towards coordinated industrial and cross-border capacity, and reserves the most experimental forms of predictive automation for environments in which they have demonstrated added operational value over simpler methods.

Submarine Infrastructure: From Physical Route Diversity to Assured Repair Availability

The first implementation priority for submarine infrastructure is to identify the difference between nominal network redundancy and demonstrable continuity after the loss of a cable, landing facility or supporting terrestrial route. Additional cable capacity increases the physical options available to an operator, but it cannot be assumed to provide continuity unless traffic can be transferred to functioning alternative routes, the relevant landing and terrestrial infrastructure remains available, and the surviving network possesses sufficient capacity to sustain defined priority services. The appropriate planning unit is therefore an end-to-end international service route incorporating submarine segments, landing facilities, terrestrial backhaul, network-control dependencies and contracted repair resources.

The European Commission’s February 2026 cable-security package establishes a concrete funding basis for implementation. The amendment to the Connecting Europe Facility Digital Work Programme allocated €347 million for strategic cable projects and related security measures, including a €20 million call for adaptable repair modules that can be positioned at ports or shipyards. These funds should be interpreted as programme allocations and procurement opportunities, not as evidence that the planned equipment has already been deployed or that emergency repair intervals have been reduced. Commission Increases Submarine Cable Security with €347 Million Investment and New Toolbox — European Commission — February 2026. Shaping Europe’s digital future

Implementation should proceed through a capability hierarchy. The mature stage consists of physical route diversification, documented cable and landing-station dependencies, commercial maintenance agreements, cable-system monitoring and the pre-positioning of qualified replacement materials. The 2027–2029 stage should concentrate on the procurement and testing of modular repair equipment, the establishment of geographically distributed spare-component arrangements and legally credible access to maritime resources under concurrent incidents. The developmental stage through 2032 may incorporate more advanced distributed sensing, semi-autonomous inspection, integrated maritime surveillance and condition-informed maintenance, provided that these capabilities demonstrate measurable improvements in fault localisation, repair preparation or prevention of avoidable outages.

A distinction must be preserved between detection and repair. Improved surveillance and sensing may reduce the time required to identify a suspected fault, but cannot eliminate the physical time required to mobilise specialist resources, reach the site, perform an appropriate repair and test the restored cable. Similarly, the introduction of remotely operated or autonomous inspection equipment does not automatically replace specialist cable-repair vessels or qualified cable-handling procedures. Investments should therefore be evaluated through the complete restoration chain rather than the performance of any individual monitoring technology.

Capability and horizon	Technology or operational method	Integration requirement	Indicative public programme evidence	Acceptance decision
Mature / available	Independent routes, spare fibres, contractual repair arrangements	End-to-end route and landing-station dependency analysis	Established cable operation and maintenance practice	Demonstrated priority traffic continuity
2027–2028	Modular emergency repair equipment	Port facilities, compatible equipment, trained teams and vessel access	€20 million EU repair-module call in 2026	Witnessed mobilisation and equipment qualification
2028–2029	Distributed spare sections and coordinated repair contracts	Cable-type compatibility and cross-border activation procedures	EU cable-security investment framework	Simultaneous resource availability demonstrated
2029–2031	Enhanced subsea sensing and condition monitoring	Validated fault detection and integration with cable operations	European cable-security and smart-cable initiatives	Verified detection benefit without excessive false alarms
2030–2032	Coordinated multinational restoration capability	Reciprocal legal access, qualified crews and repair-resource allocation	Requires further implementation decisions	End-to-end multinational repair exercise

The principal decision point is whether governments purchase and maintain dedicated public repair assets, reserve capacity from commercial providers or create jointly financed arrangements combining public equipment with contracted maritime services. Dedicated assets may offer clearer emergency priority but create sustained operating and maintenance costs; commercial reservations may be more economical during normal conditions but require enforceable access and careful treatment of simultaneous demand; and shared multinational assets may distribute costs while exposing unresolved disagreements over allocation during concurrent emergencies. No one approach should be preferred without a comparison of deployment geography, effective availability, lifecycle cost, qualified workforce and the number of independent repairs that can be supported at the same time.

Electricity Islanding, Black-Start and Network Restoration

Electricity restoration requires particular attention to the distinction between supplying a local critical load and rebuilding a stable interconnected electrical system. Islanding can allow an appropriately designed portion of a network to continue operating independently or to be restored locally, but its feasibility depends on generating resources, available energy storage or other balancing capability, protection coordination, voltage and frequency control, network topology, load characteristics and the ability to reconnect safely. A distribution network cannot become an effective emergency island merely because it contains distributed generation or battery storage. Its operating mode must be engineered, tested and coordinated with the relevant system operator, including the treatment of fault protection and disconnection from the wider network.

Black-start capabilities address the restoration of electricity infrastructure following a widespread loss of supply, but the operating sequence is more demanding than starting an individual generator. Restoration requires energising appropriate network sections, maintaining voltage and frequency within safe limits, managing the relationship between generation and restored load, coordinating switching operations and preventing renewed instability. The engineering requirements differ according to the network’s generation mix, physical configuration, available restoration resources and cross-border connections.

The final investigation into the 28 April 2025 Iberian blackout, published by ENTSO-E on 20 March 2026, provides a documented basis for strengthening voltage and reactive-power control, protection coordination and system-level monitoring. Its conclusions identify interacting deficiencies rather than one isolated technical cause, which means investments in individual generation or storage assets should be assessed against their contribution to the stability and controllability of the complete restoration system. 28 April 2025 Blackout — Investigation and Recommendations — ENTSO-E — March 2026. ENTSOE

The electricity restoration network code already contains measurable obligations, including a minimum 24-hour backup capability for specified restoration communications under Article 41. These provisions provide a concrete starting point for evaluating whether communications resilience is matched by suitable technical tools, backup control facilities, protection arrangements and restoration resources. The 24-hour requirement is an applicable sector-specific minimum for designated participants, not a universal emergency operating duration for all European electrical assets. Commission Regulation (EU) 2017/2196 Establishing a Network Code on Electricity Emergency and Restoration — European Commission — November 2017. EUR-Lex

Implementation through 2029 should prioritise the verification of established restoration plans, communications independence, protection settings, controllable generation, black-start capability and the resilience of critical substations and control rooms. Where local islanding offers a demonstrable benefit, projects should establish a complete safety and operating case, including available generation, load prioritisation and reconnection procedures. Between 2030 and 2032, more advanced coordination between distributed energy resources, storage systems and grid-forming converters may expand available restoration options, but the benefits must be established for each electrical configuration rather than inferred from manufacturers’ nominal specifications.

Technical requirement	Mature solution	2027–2029 integration	Developmental option to 2032	Verification
Grid restart	Qualified black-start resources and approved restoration plans	Greater restoration-route testing and resource coordination	Additional qualified distributed restart resources	Witnessed restoration sequence
Frequency and voltage stability	Protection coordination and validated dynamic models	Improved operational visibility and coordinated voltage-control procedures	Wider use of validated grid-forming resources where appropriate	Dynamic testing and system-model validation
Local islanding	Engineered microgrids and independent generation	Critical-load islanding at selected facilities	More interoperable distributed-resource coordination	Safe separation and reconnection test
Restoration communications	Redundant voice systems and protected power	More independent communications routes and interoperable control procedures	Advanced resilient communications architectures	Complete external-power-loss test
Equipment recovery	Critical transformer and protection spares	Qualified shared replacement arrangements	Standardised or modular equipment where feasible	Replacement and commissioning demonstration
Restoration optimisation	Operator-approved network plans	Validated analytical decision support	Adaptive optimisation under controlled human supervision	Performance comparison with baseline procedures

The principal strategic risk is premature reliance on unvalidated automation. Software that optimises a normal operating network does not necessarily provide safe restoration recommendations during unstable or poorly observed conditions. National authorities should consequently require that restoration planning models preserve explicit safety constraints, identify uncertainties and remain subject to qualified human operational authority.

Secure Industrial Controls and Recovery-Critical Supply Chains

The next implementation portfolio concerns the continued operation and restoration of industrial-control systems under component shortage, unavailable vendor support, cybersecurity incidents or prolonged equipment degradation. The immediate challenge is not to replace every installed controller with a domestically manufactured alternative, but to identify the technologies whose unavailability would prevent the safe operation or recovery of essential processes. Replacement hardware may require revised software configurations, compatible communication interfaces, safety assessment and specialist commissioning before it becomes usable.

The European Chips Act creates a relevant industrial foundation, including planned policy-driven public and private investment exceeding €100 billion through 2030, four selected pilot lines with combined European and Member State funding of approximately €3.3 billion, and targeted State-aid approvals supporting semiconductor production. These figures are programme-level commitments and financing arrangements, not a verified inventory of qualified replacement semiconductors for critical European operational technology. Chips Act — European Commission — Programme Record. Shaping Europe’s digital future

Through 2027–2029, priority should be assigned to equipment inventories, firmware recovery, the qualification of alternative components, maintenance documentation, emergency engineering workstations and the contractual availability of specialist support. Where highly concentrated supply chains create unacceptable restoration exposure, shared European qualification facilities and reserved production arrangements should be preferred to isolated national procurement. Later-stage initiatives may pursue more interoperable control platforms, independently recoverable software environments and expanded European manufacturing in selected device families, but migration should occur only when safety, lifecycle support and integration requirements are met.

The most meaningful industrial metric is the proportion of restoration-critical component families with a qualified and genuinely accessible replacement pathway. A second measure is the verified time between identification of an unavailable component and the safe return of the affected essential function. These metrics address the actual service consequence of industrial dependency while avoiding misleading comparisons based solely on semiconductor production value, factory announcements or nominal supplier counts.

Financial Continuity and Infrastructure-Stress Circuit Breakers

Financial infrastructure requires a roadmap that recognises the difference between trading controls, payment-system availability and the technical recovery of settlement services. Exchange circuit breakers may limit disorderly price movements or market activity under specified conditions, but they do not repair failed data storage, restore unavailable communications or guarantee that banks can transfer liquidity between essential platforms. The relevant continuity architecture must therefore address operational access, technical failover, settlement finality, liquidity arrangements, collateral availability, reconciliation and the coordination of recovery decisions among financial infrastructures and central banks.

The 27 February 2025 TARGET Services incident provides a documented example of these dependencies. According to the Eurosystem’s 2025 annual report, T2 and T2S experienced interruptions of approximately ten and eight hours, while the failure of a critical storage component and its redundancy mechanism complicated diagnosis and delayed failover. The simultaneous disruption of payment and securities-settlement services also created difficulties in collateral mobilisation. The Eurosystem identified 20 corrective measures, most implemented by the fourth quarter of 2025, while certain additional measures remained under development or assessment. TARGET Services Annual Report 2025 — European Central Bank — 2026. European Central Bank

The 2027–2029 programme should focus on the independent validation of technical recovery environments, coordinated failover procedures, tested liquidity and collateral contingencies, integrity-preserving transaction reconciliation and the consequences of simultaneous disruption across several platforms. Financial authorities should examine whether temporary modifications to settlement schedules, contingency arrangements or market operations can reduce systemic consequences without undermining legal finality or creating disorderly participant incentives. Such actions require the relevant competent authority and operational legal framework; they cannot be delegated to an infrastructure-monitoring algorithm.

More advanced simulation through 2032 could evaluate how electricity, communications and digital-platform disruptions interact with payment queues, liquidity allocation and settlement windows. These models should preserve the distinction between technical availability, transaction-processing capability and the broader financial consequences of disrupted settlement. They should not present a mechanically calculated loss of computing capacity as an equivalent percentage of financial-market failure.

Predictive Cascade Modelling: From Research Prototype to Auditable Decision Support

The final technology portfolio concerns the ability to identify and evaluate potential cascade propagation before it causes unacceptable service interruption. The relevant technologies include graph-based dependency models, network-flow optimisation, discrete-event simulation, specialised electricity-system models, uncertainty-aware statistical forecasting and constrained optimisation of restoration sequences. Their maturity varies by application, and no universal model can be presumed to capture the physical, financial, logistical and institutional behaviour of the entire European infrastructure system with consistent predictive accuracy.

A credible implementation programme should begin with models that answer narrow questions using available and validated operational data. Examples include estimating the exhaustion time of backup-power resources at designated telecommunications sites, determining whether available alternative network routes can sustain priority demand, identifying the critical industrial spare parts needed for a restoration sequence and estimating how delayed access to a logistics corridor changes the remaining endurance of particular facilities. Such models can be validated against observed data or controlled exercises more readily than broad forecasts of the probability of a continent-wide crisis.

The 2027–2029 phase should establish common dependency representations, secure interfaces between authorised operators and controlled environments for comparing model predictions with operational exercises. The 2030–2032 phase may introduce more sophisticated ensembles, agent-based simulations and integrated digital twins where sufficient data and validation evidence exist. The introduction of artificial intelligence should remain conditional on demonstrable improvements in decision accuracy, warning time or restoration performance, rather than the availability of more computationally intensive technology.

Analytical method	Appropriate application	Validation prerequisite	Principal limitation	Deployment decision
Dependency graph	Identifying essential upstream connections	Operator-validated dependency structure	Incomplete or outdated topology	Operational as a controlled reference model
Network-flow optimisation	Residual electricity, communication or logistics capacity	Accurate capacities and operating constraints	May omit dynamic physical behaviour	Deploy only for compatible network problems
Discrete-event simulation	Repair mobilisation and restoration sequencing	Calibrated process durations and dependencies	Sensitive to assumed resource availability	Use for exercises and planning
Dynamic electrical simulation	Voltage, frequency and protection interactions	Validated network and equipment models	Sector-specific and computationally demanding	Essential for appropriate electricity studies
Statistical forecasting	Backup endurance and consumption trends	Historical observations and error analysis	Regime changes and correlated disturbances	Controlled decision support
Machine-learning anomaly detection	Identification of abnormal operational patterns	Representative tests and false-alarm evaluation	Domain shift and adversarial data	Advisory use subject to evaluation
Integrated cross-sector digital twin	Coordinated consequence and intervention analysis	Interoperable data, validated component models and independent testing	High integration cost and limited real-world validation	Developmental, not assumed operational
Autonomous restoration optimisation	Proposed restoration actions	Safety proof, legal authority and extensive operational validation	Unacceptable consequences of incorrect commands	Human-authorised deployment only

A major investment constraint is the scarcity of comparable, independently evaluated training and testing data describing multi-sector disruptions. Synthetic scenarios can support model development but cannot establish real-world predictive reliability unless the assumptions generating those scenarios are themselves supported by observations or defensible engineering analysis. Accordingly, governments should direct early funding towards data quality, model interoperability and repeatable evaluation before financing large centralised predictive platforms.

Chapter 6 — Consolidated Capability Roadmap

Portfolio	2027 deliverable	2028–2029 decision gate	2030–2032 target	Principal dependency	Confidence
Submarine cable resilience	Priority route and repair-access audit	Tested modular repair and contractual mobilisation	Coordinated multinational repair capacity	Maritime resources and component compatibility	High for established measures; medium for shared expansion
Grid restoration	Verified black-start, control and communications dependencies	Tested selected islanding and additional restoration arrangements	Broader interoperable restoration capability	Grid stability, protection and qualified resources	High for established methods; medium for advanced integration
Secure industrial controls	Critical-component and configuration inventories	Qualified alternative devices and recovery procedures	Assured supply for selected strategic component families	Manufacturing, software and certification	High for qualification; medium for expanded production
Financial continuity	Verified technical and settlement dependencies	Joint failover, liquidity and reconciliation testing	Improved multi-platform resilience	Legal finality, technical integrity and supervisory coordination	High for procedural strengthening
Predictive modelling	Validated dependency-register pilots	Independent assessment against exercises	Selective operational integration of proven models	Data completeness and model reliability	Medium for narrow models; low for comprehensive prediction

The implementation standard should remain consistent across all five portfolios: a funded project becomes an operational resilience capability only when qualified resources are available, its dependencies are adequately controlled and the intended essential-service performance has been independently demonstrated. This approach provides an auditable basis for the 2027–2032 programme without conflating research progress, industrial investment, procurement or regulatory compliance with established continuity outcomes.

Chapter 7 — European Implementation Scenarios and National Strategic Positions

Strategic Judgment: Coordination of Scarce Capabilities Offers the Most Credible Medium-Term Path, but Institutional Fragmentation Will Determine the Outcome

The implementation of European systemic resilience through 2032 will depend as much on political authority, fiscal arrangements, procurement practices and industrial incentives as on the availability of relevant technologies. Europe possesses established electricity coordination mechanisms, sophisticated financial infrastructures, cybersecurity institutions and significant industrial capabilities, but these resources operate within distinct legal and commercial systems. Their contribution to collective resilience therefore depends on whether governments can agree on common functional requirements, provide reciprocal access to specialised resources and establish a defensible allocation of costs and responsibilities without undermining national operational sovereignty. The central strategic choice is not between complete European centralisation and uncoordinated national autonomy, but between different degrees of interoperability, industrial burden-sharing and enforceable mutual assistance.

Three institutional pathways are plausible through 2032. The first preserves predominantly national programmes, allowing sector-specific improvements while leaving important cross-border dependencies governed by fragmented agreements. The second establishes coordinated European capabilities in selected high-priority sectors, supported by compatible standards, common testing and shared industrial resources. The third develops a more comprehensive architecture in which designated essential functions are subject to comparable continuity obligations and national authorities participate in an operationally integrated framework for resource allocation, assurance and restoration. These scenarios should not be assigned numerical probabilities without defensible historical base rates or reproducible elicitation, and they are not necessarily exclusive across all sectors. Different Member States may adopt elements of several pathways simultaneously.

The relevant European policy foundation includes the March 2025 Preparedness Union Strategy, which adopts integrated all-hazards, whole-of-government and whole-of-society approaches, and the Critical Entities Resilience Directive, which recognises cross-sector dependencies and the significance of services extending across national borders. These instruments provide a basis for cooperation but do not demonstrate that the more ambitious architectures described below have already been implemented. Preparedness — European Commission, Directorate-General for European Civil Protection and Humanitarian Aid Operations; Directive (EU) 2022/2557 — European Parliament and Council — December 2022. civil-protection-humanitarian-aid.ec.europa.eu+1

Scenario A — Fragmented National Programmes with Limited Cross-Border Interoperability

Under the fragmented pathway, Member States continue to strengthen critical infrastructure primarily through domestic legislation, national cybersecurity programmes, sectoral regulatory requirements and independently financed industrial investments. European cooperation remains available through existing arrangements, but operators and public authorities do not adopt a sufficiently harmonised system of continuity metrics, shared repair capacity or independently demonstrated cross-border restoration obligations. This pathway does not imply complete institutional failure: significant improvements may occur within individual countries and sectors, particularly where strong supervisory institutions, well-capitalised operators and established technical standards already exist. Its structural limitation is that national resilience gains may fail to resolve the external dependencies upon which those national systems rely.

The political attraction of this pathway is its compatibility with existing allocations of competence and relatively limited requirements for additional international agreements. Governments can direct investment towards nationally identified priorities, preserve control over sensitive infrastructure information and avoid prolonged negotiations over the management of shared resources. However, the resulting system may produce duplicated procurement in some sectors while leaving other critical capabilities unavailable because no state or private operator has sufficient incentive to maintain them independently. Such weaknesses become particularly important for specialised maritime repair equipment, scarce industrial components, qualified engineering resources and the cross-border coordination of restoration priorities.

The industrial consequences are uneven. Larger economies may finance extensive domestic manufacturing or protected inventories, while smaller countries remain more dependent on commercial agreements and international suppliers. Yet even comparatively well-resourced countries can remain exposed to upstream dependencies in imported materials, proprietary technology, software support and specialist equipment. National expenditure may increase without a corresponding improvement in European collective capacity if procurement specifications prevent substitution or if multiple governments reserve the same scarce resources without transparent allocation rules.

This pathway should be regarded as operationally viable for a substantial range of local and sector-specific disturbances but less effective against concurrent disruptions involving shared infrastructure, common suppliers or contested cross-border resources. Its early indicators would include continued divergence in continuity metrics, separate national testing programmes with limited comparability, procurement arrangements that do not establish reciprocal access and the absence of independently verified multinational repair or recovery exercises.

Scenario B — Coordinated European Programmes and Partial Sovereign Capacity by 2032

The coordinated pathway concentrates European cooperation on selected dependencies where national provision is expensive, insufficient or operationally ineffective. Governments retain authority over their infrastructure systems, but they agree on compatible continuity definitions, reciprocal information-sharing arrangements, coordinated procurement and shared access to specialised repair or manufacturing resources. Common assurance procedures permit operators and regulators to assess whether designated essential functions can meet their approved recovery requirements, while national authorities retain responsibility for authorising exceptional intervention within their jurisdictions.

This pathway is supported by existing institutional and industrial programmes. The February 2026 European cable-security initiative provides a basis for targeted repair assets, while the European Chips Act supports semiconductor capabilities relevant to selected industrial dependencies. The Critical Raw Materials Act provides an additional supply-chain instrument: on 9 October 2026, the Commission selected 46 new strategic projects across 16 Member States, contributing to the total of 106 designated projects reported in the official register. The Act’s 2030 benchmarks concern European extraction, processing and recycling capacity for strategic raw materials; they are industrial-policy objectives and not evidence that all designated projects have reached commercial production or provide secure inputs to particular infrastructure systems. Commission Selects 46 New Strategic Projects to Bolster EU Supply of Critical Raw Materials — European Commission — October 2026; Selected Strategic Projects under the Critical Raw Materials Act — European Commission — October 2026. Représentation au Luxembourg+1

The coordinated pathway would require additional political decisions concerning the ownership and availability of strategic resources, the treatment of simultaneous national requests, the financing of emergency capacity and the disclosure of operationally sensitive information. These questions are manageable through agreements and contracts, but they cannot be dismissed as administrative details. A shared repair resource that cannot be assigned during concurrent incidents or a European spare-component inventory that lacks technical compatibility would not deliver the expected collective benefit.

The economic advantage of this approach lies in concentrating scarce capital on capabilities with demonstrable cross-border value. Shared qualification laboratories, component-production reservations, repair-resource agreements and mutually recognised continuity tests may reduce unnecessary duplication while improving substitution options. However, this benefit depends on transparent cost allocation, verified asset availability and procurement rules that prevent concentration in a single supplier or location. The associated governance architecture must therefore address the possibility that pooling resources creates new common-mode vulnerabilities.

The pathway’s early success indicators would be the operational qualification of shared assets, the adoption of interoperable continuity metrics by participating authorities, the completion of cross-border tests that demonstrate actual resource mobilisation and the establishment of contractual rights that remain enforceable during simultaneous emergencies. By 2032, its achievement should be judged through independently verified performance in priority sectors rather than the number of European programmes established.

This is the preferred medium-term implementation pathway, with medium confidence in its feasibility and high confidence in the underlying engineering and institutional logic. Its comparative advantage is that it can be developed using existing national regulatory competences and selected European instruments without requiring immediate agreement on a comprehensive new supranational command system.

Scenario C — Comprehensive Systemic Architecture with Binding Continuity Standards

The comprehensive pathway involves a more demanding transformation. Under this configuration, Member States establish comparable, independently audited continuity obligations for designated essential functions, maintain interoperable operational dependency information and participate in a structured system of cross-border assistance supported by shared industrial assets. National authorities would continue to execute legally reserved functions, but essential-service standards, verification requirements and certain emergency resource commitments would be coordinated more extensively across jurisdictions.

Its potential benefit lies in the systematic reduction of accountability gaps. Operators would possess approved service-continuity metrics, supervisors would have comparable performance evidence, public authorities would be able to identify unresolved cross-sector dependencies and industrial investment could be linked more directly to demonstrated restoration outcomes. The resulting framework could reduce uncertainty over the responsibilities of private suppliers and establish a more consistent method for determining whether public resilience expenditure has delivered usable capability.

The institutional obstacles are considerable. A comprehensive structure would require agreement on the scope of essential-function designation, the treatment of differentiated national risks, the protection of classified and commercially sensitive information, the financing of shared resources and the circumstances under which public authorities may prioritise particular uses of infrastructure. The administrative burden could also be substantial if new requirements duplicate existing sectoral obligations or impose technical standards unsuitable for particular systems. Governments would need to avoid equating harmonisation with identical engineering thresholds, since electricity-system stability, financial settlement, industrial safety and maritime repair operate according to different constraints.

The European Commission’s July 2026 non-binding guidelines on Article 13(5) of the Critical Entities Resilience Directive illustrate an important boundary between coordination and enforceable law. They provide guidance on resilience measures but expressly do not constitute binding legislation or replace the interpretation of EU law by the Court of Justice. A comprehensive continuity regime would therefore require additional operative legal authority where existing sectoral instruments are insufficient. Guidelines on the Application of Article 13(5) of Directive (EU) 2022/2557 — European Commission — July 2026. EUR-Lex

The comprehensive pathway offers the greatest potential for consistent cross-sector assurance but has the highest institutional implementation burden. Its feasibility through 2032 depends on political agreement, fiscal resources, supervisory capacity and the ability to demonstrate that the additional framework creates measurable continuity improvements rather than procedural complexity. Accordingly, it should be treated as an ambitious conditional outcome rather than the default forecast.

Scenario Comparison: Institutions, Investment Burden and Residual Vulnerability

Assessment dimension	Scenario A — Fragmented	Scenario B — Coordinated	Scenario C — Comprehensive
Political requirement	National decisions and limited additional agreements	Selected multilateral agreements and coordinated procurement	Extensive regulatory and intergovernmental agreement
Investment structure	Predominantly national and operator-financed	Mixed national, European and shared industrial financing	Broader coordinated financing and assurance infrastructure
Continuity standards	Divergent sector and national requirements	Common definitions and selected mutual recognition	Systematic cross-sector performance obligations
Industrial assets	Nationally procured or commercially accessed	Shared priority assets and qualified alternatives	Integrated strategic asset-management framework
Crisis authority	National and sector-specific	National authority with structured coordination	National execution within more extensive joint arrangements
Cross-border restoration	Mainly existing contractual or voluntary arrangements	Binding reciprocal arrangements in priority sectors	Wider enforceable mutual-assistance system
Principal benefit	Faster implementation within existing powers	Better allocation of scarce resources	More comprehensive accountability and comparability
Principal residual risk	Fragmentation and duplicated or unavailable capacity	Uneven coverage and contested shared resources	Institutional complexity and concentrated dependencies
Key evidence of success	National recovery performance	Verified multinational mobilisation and interoperable tests	Audited cross-sector restoration performance
Overall assessment	Politically straightforward but incomplete	Preferred feasible progression	Higher potential benefit with greater execution uncertainty

These assessments are qualitative judgments rather than calculated probability distributions. The political and budgetary conditions of implementation must be monitored through actual legislation, appropriations, procurement awards, contract execution and observed operating performance.

Italy — Mediterranean Restoration, Electricity Infrastructure and Industrial Substitutability

Italy’s strategic position should be evaluated through its relationship with Mediterranean communications infrastructure, electricity transmission and distribution, industrial equipment production, energy transport and internationally connected logistics. The central implementation challenge is to ensure that national infrastructure protection arrangements can support essential functions whose physical inputs, digital services or repair resources extend beyond Italian territory. This requires a coordinated approach to ports, submarine communications, electricity restoration, critical industrial components and financial and digital services, with particular attention to the ability of infrastructure operators to demonstrate continued essential throughput when external support or normal supply routes become unavailable.

Under the fragmented scenario, Italian authorities could strengthen domestic protection, inventories and industrial production while remaining exposed to uncoordinated international dependencies. Under the coordinated scenario, Italy would possess a more direct opportunity to contribute manufacturing and maritime capabilities to shared European restoration programmes, while benefiting from access to qualified resources located elsewhere. Under the comprehensive scenario, Italian regulators and operators would need to implement more extensive cross-sector metrics and information-sharing requirements, creating potential benefits in operational accountability but also additional costs of technical integration and supervisory capacity.

The industrial opportunity is especially relevant to the qualification of selected equipment and components used across electricity, telecommunications, energy and strategic manufacturing. Existing European support for semiconductor investment in Italy offers a policy foundation, but its direct contribution to continuity should be evaluated through device suitability, qualified production, lifecycle availability and the time required to incorporate replacement equipment into essential systems. The European Commission records the €2 billion Italian State-aid approval for STMicroelectronics in 2024, an industrial-policy commitment whose relevant operational outcomes must be assessed separately. Chips Act — European Commission. Shaping Europe’s digital future

Italy’s highest-value policy option is to establish a limited set of nationally designated restoration-critical industrial capabilities, with shared qualification facilities, assured spare-component access and integration into Mediterranean repair and logistics arrangements. This would allow industrial policy to support national and European continuity without pursuing indiscriminate technological self-sufficiency.

France — Integrated Industrial Capabilities and Cross-Border Restoration Assurance

France’s implementation challenge concerns the relationship between nationally controlled strategic capabilities and the interoperable arrangements required by interconnected European systems. National industrial and technological resources may provide greater control over particular services, but their resilience contribution depends on the technical and contractual ability to support essential functions under multi-sector disruption. The national priority should therefore be to ensure that strategic digital, energy and industrial services possess independently demonstrated recovery capacity, while suitable capabilities remain accessible through reciprocal European arrangements.

The coordinated scenario offers France the opportunity to combine national technological control with shared European standards and procurement, particularly in secure digital infrastructure, specialist engineering, electricity-system technologies and industrial qualification. This arrangement would preserve national authority while allowing selected resources to contribute to broader European restoration needs. The comprehensive scenario would require greater exchange of performance information and more extensive mutual recognition of assurance outcomes, introducing additional questions concerning sensitive infrastructure data and the boundary between national strategic competence and European coordination.

The European Commission’s April 2026 sovereign-cloud procurement illustrates the relevance of differentiated technology providers and structured evaluation criteria. The procurement framework permits EU institutions and bodies to contract sovereign-cloud services for up to €180 million over six years, across four European provider groups. This is a contract ceiling, not evidence of expenditure already realised or a universal solution to cloud dependency. First Commission Tender for Sovereign Cloud — European Commission, Interoperable Europe Portal — April 2026. Interoperable Europe Portal

France’s most consequential contribution would be the development of interoperable, technically qualified sovereign capabilities that can be incorporated into European continuity arrangements without creating incompatible national technology standards or additional supplier concentration.

Germany — Industrial Scale, Regulatory Implementation and Equipment Qualification

Germany’s strategic importance arises from its industrial integration with European manufacturing and its national transition towards a more extensive physical critical-infrastructure framework. The KRITIS-Dachgesetz entered into force on 17 March 2026, implementing the German framework associated with the Critical Entities Resilience Directive. The German Federal Office of Civil Protection and Disaster Assistance explains that important secondary provisions and implementation guidance remain under preparation, including details concerning the designation of critical installations and technical resilience requirements. Consequently, the existence of the law must not be equated with completed implementation of all the operational capabilities envisaged by its framework. KRITIS-Dachgesetz: Frequently Asked Questions — German Federal Office of Civil Protection and Disaster Assistance — 2026. BBK

Under the fragmented pathway, Germany may strengthen national industrial protection while retaining concentrated dependencies involving specialised equipment and internationally supplied components. Under the coordinated pathway, its technical and manufacturing capabilities could support common European qualification programmes, compatible replacement equipment and shared production reservations, particularly where the same industrial technologies serve multiple essential infrastructure sectors. The comprehensive pathway would place greater demands on harmonised performance evidence and cross-sector supervision, making the quality of implementing regulations and the avoidance of duplicative administrative requirements especially important.

Germany’s preferred implementation contribution is the establishment of technically rigorous industrial qualification and substitution mechanisms supported by enforceable supplier obligations. The relevant benefit would be the reduction of restoration delays across European infrastructure, rather than a general increase in reported industrial production.

United Kingdom — Allied Industrial Cooperation Outside the EU Regulatory Framework

The United Kingdom occupies a distinct institutional position because it participates in European infrastructure and security relationships without being subject to the same general legislative framework as EU Member States. Its potential role in systemic resilience includes financial services, submarine communications, technical engineering, selected industrial supplies and coordinated emergency response. The relevant strategic question is therefore how to establish dependable reciprocal arrangements that recognise separate legal jurisdictions while preserving rapid access to information and restoration resources during major cross-border disruptions.

The British government’s National Risk Register 2026, published on 14 July 2026 and subsequently updated, provides an official assessment of serious risks affecting the United Kingdom. It is the public-facing version of the National Security Risk Assessment and serves as a reference for resilience practitioners across public and private organisations. Its existence does not establish equivalence with all European continuity obligations, but it confirms an institutional foundation for structured risk and preparedness assessment. National Risk Register 2026 — UK Cabinet Office — July–August 2026. GOV.UK

Under the fragmented scenario, British and EU infrastructure operators would rely primarily on national arrangements, commercial contracts and existing mechanisms of cooperation. The coordinated scenario would permit more systematic integration of British maritime, industrial and financial capabilities through sector-specific agreements, particularly where specialised services cannot be duplicated economically. The comprehensive scenario would be institutionally more demanding because its success would require equivalence, recognition or interoperability arrangements without assuming direct applicability of EU legal obligations to British operators.

The preferred policy approach is therefore assured allied interoperability, with clearly defined emergency activation rights, information-security protections, technical compatibility and cost-sharing. British participation should be determined by verified operational benefit and enforceable access rather than an assumption that geographic proximity or political alignment guarantees resource availability.

The European Union — Standards, Shared Assets and the Limits of Central Authority

The European Union possesses its strongest systemic resilience instruments in the fields of common market regulation, technical coordination, procurement, industrial finance and cross-border cooperation. These functions can support continuity without requiring the European institutions to assume direct operational control of national infrastructures. The objective should be to create common definitions of essential-service performance, establish mutual recognition of appropriate technical assurance, coordinate strategic industrial programmes and facilitate legally credible access to resources whose economic or operational scale exceeds the capacity of individual Member States.

The principal risk is the creation of a highly elaborate institutional framework whose administrative requirements expand faster than the real capabilities available to operators. A harmonised reporting system does not repair damaged infrastructure, and a common legal framework cannot substitute for qualified engineers, replacement components, tested communications or available financial contingencies. European coordination should therefore be evaluated through physical and operational outcomes, not the volume of regulatory activity.

The most defensible allocation of responsibility is for European institutions to coordinate the standards and industrial conditions enabling interoperability, for Member States to preserve the legal authority governing national emergency measures and for designated operators to remain accountable for the safe restoration of their essential services. Shared assets should be distributed geographically and technically, while contractual arrangements should prevent different authorities from assuming access to the same scarce resource during simultaneous incidents.

Chapter 7 — Key Judgments

The coordinated European pathway is the most credible medium-term strategy because it can exploit existing regulatory and industrial programmes while limiting the need for a comprehensive transfer or restructuring of national operational powers. Confidence is high that shared qualification, repair access and compatible continuity metrics can address meaningful categories of cross-border dependency, but confidence is medium in their achievement at sufficient scale by 2032 because actual delivery depends on budget allocation, procurement, national cooperation and sustained implementation.

The fragmented pathway is likely to remain present in some sectors even if European cooperation expands. The comprehensive pathway should be treated as a conditional institutional objective requiring specific evidence of political agreement, operational maturity and additional benefit over narrower arrangements.

The decisive change indicators are the adoption of enforceable cross-border resource agreements, demonstrated mutual assistance, the qualification of shared industrial assets and independently observed improvements in restoration performance. Announced investment programmes, committee creation and policy declarations do not satisfy these criteria.

Chapter 8 — Residual Risks, Programme-Effectiveness Indicators and Final Strategic Assessment

Strategic Judgment: The Principal Residual Risk Is a False Sense of Continuity Produced by Unverified Capabilities

Even a comprehensive programme of industrial investment, sectoral regulation, intelligence integration and cross-border cooperation cannot eliminate the possibility of simultaneous disruption across essential European systems. Residual risk is inherent in the physical, organisational and economic structure of interconnected infrastructure: equipment may fail in combinations not represented in existing models, restoration resources may be unavailable at the moment of need, operators may receive incomplete or contradictory information, and emergency decisions may produce secondary consequences that were not anticipated during planning. The objective of systemic resilience is consequently not to promise uninterrupted normal operation under every plausible disturbance, but to establish defensible minimum service outcomes, identify the circumstances in which those outcomes may become unattainable and preserve credible restoration options when the initial safeguards fail.

The most consequential policy error would be to classify a capability as available because it has been financed, installed, documented or included in an emergency plan without confirming its performance under the conditions for which it was intended. This risk affects physical redundancy, industrial stockpiles, repair contracts, recovery data centres, cyber-physical monitoring platforms and predictive systems alike. A backup arrangement that shares an upstream dependency with the primary installation may fail simultaneously; a qualified replacement component may be inaccessible because transport or specialist personnel are unavailable; and a national crisis authority may possess extensive situational information without the legal competence or contractual access necessary to initiate the required intervention. Such deficiencies cannot be eliminated through additional declarations of strategic autonomy, but they can be identified through operational testing and independently verifiable performance criteria.

The programme must therefore establish a distinction between capability existence, qualified readiness, demonstrated operating performance and sustained assurance. These are different levels of evidence, and advancement between them should require explicit acceptance criteria. A project should not be represented as contributing fully to national continuity when it has achieved only the earlier stages of financing, construction or technical qualification. Equally, the failure to demonstrate a capability under the necessary test conditions should not automatically be interpreted as proof that it would fail during every actual incident; the correct reporting status is an unresolved assurance gap requiring further evidence.

Residual Risk Register and Required Mitigation Decisions

The residual risk register should focus on dependencies that remain consequential after feasible protection and restoration measures have been implemented. It must distinguish risks that can be materially reduced by additional investment from those requiring institutional decisions, international cooperation or explicit acceptance of remaining exposure. Without this distinction, the programme could prioritise technically attractive projects whose contribution to essential-function continuity is limited while leaving more significant legal or operational constraints unresolved.

Residual vulnerability	Failure mechanism	Consequence	Preferred treatment	Accountable authority	Verification
Common-mode power dependence	Multiple backup facilities depend on one upstream energy resource	Simultaneous loss of nominally independent functions	Independent supply, protected fuel and separation	Operators and energy authorities	Joint dependency-loss test
Repair-resource concentration	Several incidents require the same vessel, crew or specialist equipment	Restoration delays during concurrent failures	Distributed inventories and binding priority arrangements	Contracting authorities and asset owners	Concurrent mobilisation exercise
Proprietary recovery dependency	External credentials, firmware or vendor tools become unavailable	Equipment cannot be safely restored	Protected recovery rights and qualified alternatives	Operator and technology provider	Offline recovery demonstration
Shared cloud control plane	Multiple services depend on one authentication or management function	Broad digital-service degradation	Trust separation and independent recovery	Digital operators and supervisors	Control-plane isolation and recovery test
Financial settlement interdependence	Linked services cannot recover in the required sequence	Delayed payments, settlement or collateral mobilisation	Coordinated contingency processing	Financial infrastructure and competent authorities	End-to-end settlement exercise
Industrial equipment obsolescence	Replacement components are no longer available or compatible	Prolonged loss of essential production or infrastructure	Lifecycle qualification and strategic inventories	Manufacturers and asset operators	Replacement commissioning test
Incomplete cascade model	Important dependencies are absent or incorrectly represented	Ineffective or harmful restoration priorities	Model assurance and baseline comparison	Model owner and independent evaluator	Blind exercise evaluation
Incompatible national emergency powers	Cross-border assistance cannot be activated promptly	Shared resources unavailable during crisis	Reciprocal legal and contractual arrangements	National governments	Legal activation exercise
Inadequate public-private incentives	Operators underinvest in capacity producing external public benefits	Persistent restoration bottlenecks	Audited availability payments and proportionate obligations	Public purchasers and regulators	Contract and capacity audit
Exercise without remediation	Known deficiencies remain unresolved	Repetition of preventable failures	Mandatory corrective-action ownership and retesting	Supervisors and operators	Independent closure evidence

This register should be revised following major incidents, material infrastructure changes, the withdrawal of strategic suppliers and independent exercise findings. Each risk must be connected to a designated essential function and a measurable consequence rather than retained as a generic category of concern.

Performance Indicators: What Governments Should Measure

An effective national and European programme requires a compact set of indicators capable of distinguishing improvements in actual continuity from increases in reported activity. The indicators must be comparable over time while preserving sector-specific engineering units and national legal differences. They should also be evaluated against the selected service baseline: an apparent improvement in restoration time may reflect a less severe test rather than stronger capability, while a deteriorating performance figure may result from more realistic exercises or more demanding service requirements.

The primary indicator should be the proportion of designated essential functions that have demonstrated compliance with their approved minimum throughput and restoration-time requirements under a relevant and independently observed test. Supporting indicators should establish the availability of verified backups, qualified replacement components, repair resources, valid dependency information and enforceable emergency access arrangements. Predictive-model performance should be measured separately, since a model’s ability to identify potential cascades is not the same as the ability of operators to execute the intervention it recommends.

Indicator	Calculation or measurement	Reporting requirement	Recommended decision trigger
Verified continuity compliance	Functions passing relevant tests divided by functions due for testing	Scope, testing conditions and applicable thresholds	Mandatory remediation for material failure
Minimum throughput achievement	Observed essential output compared with approved minimum	Physical unit, duration and beneficiary scope	Activate approved degraded-mode response
Restoration-time performance	Actual end-to-end recovery duration compared with approved RTO	Start and completion definitions	Corrective action following unjustified exceedance
Critical backup endurance	Verified operating duration under defined supply loss	Load, fuel, equipment and test conditions	Remedy when below applicable requirement
Industrial substitution coverage	Critical component families with qualified alternatives divided by assessed families	Compatibility, supplier and availability status	Target procurement or qualification investment
Repair mobilisation readiness	Verified time to make qualified repair resources available	Location, asset and activation conditions	Review provider contract or allocation arrangement
Cross-border mutual-assistance performance	Completed valid assistance requests under exercise conditions	Authority, request timing and resource delivery	Revise agreements when activation fails
Dependency-register accuracy	Validated dependencies correctly represented	Audit scope and configuration date	Revalidate after material topology changes
Predictive-model diagnostic performance	Correct warnings, missed events and false alarms against test ground truth	Model version and test population	Suspend critical reliance if acceptance criteria fail
Corrective-action closure	Material deficiencies independently retested and closed	Severity, ageing and closure evidence	Supervisory escalation for overdue critical items

No uniform European numerical target should be assigned to these indicators without appropriate engineering evidence and legal authority. The relevant policy decision is first to establish approved thresholds for each essential function, then to evaluate performance against those thresholds and finally to determine whether wider harmonisation is technically justified.

The reporting framework must also distinguish a failure to meet the approved threshold from an inability to obtain reliable evidence. Both conditions are significant, but they require different interventions. A demonstrated failure calls for technical or organisational remediation; missing evidence may require improved data collection, additional testing or a restriction on claims of readiness. Neither situation should be concealed by the use of aggregate readiness scores.

Investment Sequencing: Maximising Continuity Gains Under Financial Constraints

Public authorities face a fundamental sequencing problem because several categories of resilience investment compete for the same fiscal and industrial resources. Large infrastructure construction projects may offer significant long-term benefits but require lengthy procurement and commissioning periods, while relatively modest expenditure on communications independence, equipment qualification, repair contracts or shared testing can sometimes address immediate restoration constraints. The preferred allocation should therefore reflect the essential functions protected, the severity of the dependency, time to operational effect, implementation burden and the availability of less costly substitutes.

An investment should be preferred when it addresses a verified binding constraint on essential-service continuity and offers a credible improvement within the period relevant to national risk. This does not justify excluding larger projects where substantial infrastructure expansion is necessary. It requires distinguishing near-term operational resilience expenditure from long-term industrial and network development, with separate performance objectives for each category.

Priority sequence	Decision	Expected effect	Time to effect	Main financial burden	Principal risk
First	Audit existing backup, restoration and supplier capabilities	Identify actual rather than assumed deficiencies	Near-term	Testing and engineering	Incomplete evidence
Second	Secure indispensable recovery communications and critical inventories	Reduce immediate restoration bottlenecks	Near-term to medium-term	Equipment, maintenance and availability contracts	Shared upstream dependencies
Third	Establish qualified repair and substitution arrangements	Reduce dependence on scarce external resources	Medium-term	Qualification, contracts and inventories	Resource concentration
Fourth	Coordinate cross-border mutual assistance	Increase effective access to scarce capabilities	Medium-term	Legal coordination and shared capacity	Conflicting national priorities
Fifth	Invest in selected sovereign manufacturing and strategic infrastructure	Reduce structural dependency over time	Medium-term to long-term	Significant capital and industrial support	Overcapacity, delays or unsuitable output
Sixth	Integrate independently validated predictive systems	Improve decision quality and restoration sequencing	Conditional on validation	Data infrastructure and technical expertise	Model error and automation bias

The correct sequencing of these measures depends on the results of the initial continuity audit. An essential service with no qualified recovery resources may require urgent industrial intervention, while a service possessing adequate physical redundancy but deficient crisis decision-making may benefit more from revised operating procedures and joint exercises. Governments should consequently allocate capital through evidence-based portfolios rather than fixed technological preferences.

Financial Framework and the Limits of Available Cost Evidence

Existing European programmes provide indicative financial reference points but cannot be aggregated into a reliable estimate of the cost of the proposed systemic continuity architecture. The Commission’s €347 million submarine-cable initiative, the Chips Act’s policy-driven investment objectives exceeding €100 billion through 2030, and the €180 million six-year sovereign-cloud procurement ceiling concern different institutional scopes, expenditure categories and time periods. The first is a programme allocation for connectivity-related investment, the second encompasses broader public and private industrial investment, and the third is a procurement framework ceiling. Adding them would produce a misleading figure that neither represents committed systemic-resilience expenditure nor establishes the funds needed to achieve the recommended continuity outcomes. Commission Cable Security Initiative — February 2026; European Chips Act — European Commission; First Commission Tender for Sovereign Cloud — European Commission — April 2026. Shaping Europe’s digital future+2

A defensible cost estimate would require an inventory of designated functions, existing capacity, unfulfilled recovery requirements, equipment types, contractual conditions, necessary industrial investments and lifecycle costs. The programme should therefore develop project-level capital and operating estimates rather than assign a speculative total to European resilience. Where infrastructure serves multiple sectors or jurisdictions, cost-sharing arrangements should reflect the actual beneficiaries, avoided duplication and agreed public-interest obligations, while preserving incentives for operators to maintain their own legally required capabilities.

Confidence Assessment and Evidence Required to Change the Programme

The strongest evidence supports the need for measurable continuity requirements, appropriate technical redundancy, qualified restoration resources and independent operational testing. These measures are grounded in established engineering practice, existing sectoral legislation and documented incidents. The evidence is less conclusive concerning the comparative effectiveness of different cross-border institutional architectures, the scale of industrial investment necessary to achieve selected autonomy objectives and the ability of comprehensive predictive models to improve decision-making under unprecedented multi-sector disturbances.

Principal recommendation	Confidence	Evidentiary basis	Evidence that would change the judgment
Require function-specific continuity metrics	High	Existing sectoral requirements and documented recovery failures	Evidence that current equivalent obligations already cover material cross-sector dependencies
Test complete restoration chains	High	Documented technical and operational recovery constraints	Reproducible evidence that narrower tests predict complete recovery sufficiently
Secure critical repair and spare capacity	High	Physical dependencies and documented European policy recognition	Demonstrated adequate and immediately available alternative capacity
Establish shared European qualification and procurement in selected sectors	Medium–high	Supplier concentration risks and potential economies of shared resources	Evidence of prohibitive coordination costs or superior national alternatives
Expand binding cross-border continuity agreements	Medium	Existing cooperation frameworks and unresolved resource allocation questions	Proven effectiveness or ineffectiveness of implemented agreements
Deploy narrowly validated predictive decision support	Medium	Established analytical methods applied to bounded problems	Independent testing showing no useful improvement over simpler procedures
Deploy comprehensive European cascade digital twins	Low to medium	Limited directly comparable operational validation evidence	Repeated independent performance gains across realistic disturbances
Establish comprehensive binding European continuity architecture by 2032	Medium–low	Institutional feasibility depends on further political and legal decisions	Adopted operative instruments, appropriations and verified multinational performance

Confidence refers to the strength of the analytical recommendation or assessment, not a numerical probability that implementation will succeed.

The Government Decision Programme Through 2032

The final implementation programme should translate these judgments into discrete public decisions with identifiable authorities, acceptance conditions and consequences. During the initial period, national governments should establish which essential functions require enhanced cross-sector continuity assurance and instruct competent supervisors to assess whether existing regulatory evidence is sufficient. The next decision concerns whether critical restoration dependencies can be secured through existing operator resources, contractual arrangements or shared European assets. Only after identifying the remaining non-substitutable gaps should authorities commit substantial industrial financing or develop new technological platforms.

By 2029, participating authorities should seek to demonstrate an initial set of operationally verified cross-sector restoration arrangements, including the ability to activate external resources, maintain essential communications and coordinate selected energy, digital, financial and logistics dependencies. By 2032, the strategic objective should be to maintain a defensible system of qualified industrial resources, interoperable national continuity measures and independent verification of recovery outcomes, with the degree of broader regulatory harmonisation determined by observed benefits and the legal conditions available.

The programme should preserve a clear institutional distinction between strategic direction, regulatory enforcement and technical execution. Governments determine legally authorised public-interest priorities, regulators establish and supervise applicable obligations, and qualified operators remain accountable for safe technical restoration. Shared European mechanisms should improve information, interoperability and access to scarce resources without creating incompatible lines of command.

Final Strategic Assessment

European systemic resilience is not primarily a question of acquiring more technology or establishing a larger number of institutions. It is the ability to preserve essential societal and economic functions when the infrastructures, suppliers and operating arrangements supporting them fail in combinations that normal commercial and regulatory processes are not designed to accommodate. The documented electricity and financial-service disruptions, the existence of measurable sectoral restoration requirements and the development of targeted European industrial programmes demonstrate that the fundamental challenge is technically identifiable and institutionally actionable.

The most defensible strategy is neither comprehensive national self-sufficiency nor unrestricted dependence on international suppliers. It is an architecture of assured functional continuity in which critical dependencies are known, substitutes are qualified, scarce resources are contractually available, emergency decisions are legally authorised and restoration performance is independently demonstrated. European strategic autonomy should be evaluated by the ability to sustain and recover essential functions without unacceptable reliance on unavailable external inputs, rather than by the national origin of every component or the nominal value of industrial expenditure.

The coordinated European implementation pathway offers the strongest balance between feasibility and operational benefit through 2032, provided that participating governments prioritise measurable recovery outcomes, industrial compatibility and enforceable access to specialised resources. A more comprehensive framework may become justified if those arrangements produce reliable evidence of improved continuity and demonstrate that remaining cross-border gaps cannot be resolved through narrower measures.

The decisive measure of European systemic resilience is the continuity of essential functions under verified stress, supported by accessible industrial resources and accountable restoration authority. A system that satisfies this requirement will possess meaningful strategic autonomy even where selected technologies remain internationally sourced; a system that does not satisfy it will remain vulnerable regardless of the scale of its industrial commitments, monitoring infrastructure or formal regulatory architecture.

Chapter 8 — Key Judgments

The first priority is to establish an independently verified baseline of essential-function continuity and unresolved restoration dependencies. The second is to secure technically qualified recovery resources and cross-border access where existing capabilities are insufficient. The third is to connect regulatory, contractual and financial accountability to demonstrated performance. Advanced predictive modelling and more extensive institutional integration should follow their actual contribution to these outcomes rather than precede them as assumed prerequisites.

The principal unresolved official evidence concerns comparable cross-sector restoration performance, the availability of shared emergency assets under concurrent demand, the enforceability of multinational resource-allocation arrangements and independently evaluated predictive-model effectiveness. These uncertainties must remain visible in investment and regulatory decisions, rather than being replaced with unsupported readiness scores or forecast probabilities.

The strategic recommendation is to pursue the coordinated European pathway as the practical implementation baseline while preserving the option of more comprehensive harmonisation where measured evidence justifies the additional political, financial and administrative burden.

European Resilience Implementation, Technology Roadmaps and Strategic Pathways Through 2032

Institutional sources

The technological and industrial roadmap draws upon the European Commission’s February 2026 submarine cable-security investment programme, the European Chips Act, the Critical Raw Materials Act Strategic Projects Register and the ENTSO-E investigation into the 2025 Iberian blackout.

The governance and financial-continuity elements are supported by Regulation (EU) 2022/2554 on Digital Operational Resilience, Directive (EU) 2022/2557 on Critical Entities Resilience and the European Central Bank’s TARGET Services Annual Report 2025.

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