Current policy often focuses on securing supply and managing materials after they become waste while leaving demand largely unchanged. A European material-use compass would set a shared direction and translate it into differentiated national and sector pathways reflecting infrastructure needs, economic structure and existing footprints.

Authorities can begin with a concise decision set: consumption-based footprint, primary-material demand, product and asset lifetime, repair and reuse, secondary-input quality and primary input displaced. Essential housing, grids and adaptation should be distinguished from short-lived or low-value uses. The Netherlands’ circular-economy programme, including its ambition to halve primary abiotic raw-material use by 2030, illustrates both the value and the implementation challenge of a directional goal.

UNEP and the International Resource Panel’s Global Resources Outlook 2024 provides global data, modelling and assessment of resource-use trends, impacts and distributional effects. It calls for sustainable resource-use pathways and aligned financial, trade and economic incentives. These global pathways are not agreed EU targets. Progress should show which services are maintained, who bears adjustment and whether primary demand and externalised impacts decline.

Design determines whether a product can last, be upgraded, come apart safely and supply components or materials later. Passports should focus on information that changes decisions: composition, expected life, repair instructions, spare parts, remaining performance, safe disassembly, and end-of-use routes.

European product rules can require information and interoperability standards. Procurement, warranties, insurance and asset-management rules can then use that information in purchasing, maintenance and resale decisions. Requirements must remain proportionate for smaller firms and usable through changes in ownership and software. The EU battery passport is the most developed European test, with mandatory requirements due for several battery categories from February 2027. The Systemiq-led Battery Pass consortium has developed guidance on content, technical design, conformity, and value.

More data is not automatically better. Confidentiality, cybersecurity, interoperability, and administrative burdens need governance. Measure completed repairs, second-life use, component recovery, asset-life extension, and high-quality recycling, rather than the number of data fields recorded.

Collection does not preserve value by itself. Selective dismantling, separation, grading, testing, certification, and upgrading determine whether components and materials return to equivalent or higher-value use.

European action can harmonise priority definitions and quality grades, support testing and upgrading infrastructure, certify reused components, and create early demand through public procurement. Rules should reward performance and actual primary displacement rather than assuming any recycled input has the same benefit.

Steel shows the problem: copper contamination can prevent scrap from returning to premium applications even when collection is high. Better design, selective dismantling, alloy separation, and quality classification improve both value and displacement. Systemiq’s Circular Steel analysis also shows that recycled-content requirements can create cross-border and emissions effects when suitable scrap is limited; its findings are modelled scenarios, not fixed policy targets. Track component reuse, quality-adjusted secondary input and primary material displaced.

Cities and regions are where material stocks, public assets, firms, workers, and procurement meet. Regional platforms can estimate when building components, machinery and materials become available, locate repair and processing capability and connect future supply to demand.

Local authorities can use planning, public-asset management, demolition rules, and procurement to preserve value. Firms can share testing, sorting, logistics, and upgrading equipment that would be uneconomic individually. Training providers and social partners can prepare workers for repair, remanufacturing, deconstruction, and certification. Smaller firms need proportionate procurement, finance and technical assistance.

Climate-KIC’s Hubs4Circularity shows how firms, cities and public authorities can exchange materials, heat, water, and by-products across organisational boundaries. Kalundborg and Lahti are established examples of the model, not proof that every hub improves supply-shock resilience. Track regional repair, testing and processing capacity, skills, investable projects, primary input displaced, and continuity outcomes.

Markets often undervalue longer asset life, repair, reuse, shared infrastructure and continuity capability. European and national institutions can coordinate project preparation, guarantees, concessional finance, procurement commitments, transition support for smaller firms, and contingent credit during temporary disruptions. Existing instruments should be tested before a new fund is created.

A Materials Bank pilot should begin as information and finance infrastructure, rather than as a physical warehouse. Well-characterised public buildings or property portfolios could document recoverable components, clarify ownership and rights, test quality and certification, estimate conservative residual values and connect future supply to buyers. The EU-funded Buildings as Material Banks project established a foundation through passports and reversible design; it did not prove the proposed financing model.

Material prices, recovery dates, ownership, safety, and liability remain uncertain. Valuations should be conservative and updated, and gains and risks should not fall unfairly on tenants or smaller firms. Track additional investment, asset-life extension, reusable components recovered, value retained, primary material displaced, and how benefits are distributed.

Raw-material lists do not show which shortage can interrupt an essential service. Continuity planning should start with electricity, water, healthcare, mobility, communications, housing, food, or defence and map backwards through products, components, processing, maintenance tools, software access, skills, suppliers, transport, and lead times.

Authorities and operators can pilot this approach for electricity networks, batteries, medical equipment, telecommunications, water infrastructure, and selected transport or defence systems. Each plan should define the minimum service, map critical dependencies, test disruption scenarios, assess life extension, repair and substitution, and identify residual needs for diversified primary supply or reserves.

The Critical Raw Materials Act supports EU monitoring, stress testing, strategic stocks, supply diversification, and coordination through the Commission, Member States and the Critical Raw Materials Board. Continuity planning should connect this material-level work to service priorities, low-value parts, response times and operators’ existing maintenance and repair capacity. Track inventory cover, lead times, qualified alternatives, repair capacity, and performance against minimum service levels.

The EU already monitors critical-material risks through Commission systems, the Raw Materials Information System, Member State reporting and the Critical Raw Materials Board. Firms and infrastructure operators hold additional data on inventories, contracts, component lead times, maintenance needs and qualified alternatives. A proposed material-risk and preparedness mechanism could connect these sources with information on production and processing concentration, export licensing, ownership, freight, factory outages, and exposure of essential services.

Each warning level should be tied in advance to an indicator and threshold, a responsible EU or national authority, and a defined measure such as enhanced industry coordination, changed procurement, accelerated repair, qualified substitution, temporary demand prioritisation, reserve release or mutual assistance. Plans should state the legal power, finance, duration, and review process. Regular exercises should test several countries seeking the same limited component at once.

The EU Stockpiling Strategy supports coordination of public and private stocks. Its application to industrial dependencies, prioritisation and stress tests still requires legal and operational review. Progress should track warning-to-action time, risks with named owners, exercises completed, inventory depletion, project delays, and corrective actions closed.

Governments, firms and investors struggle to compare where materials are extracted, processed, traded, used, and discarded, who controls capacity and what environmental and social impacts occur. The immediate proposal is a Global Materials Data Hub that connects established sources and closes priority gaps rather than building a competing data universe.

A defined use case should come first. A copper pilot could combine demand, mine and refining capacity, trade routes, ownership, impacts, and opportunities for producer-country value creation, then test whether the information improves a specific decision. Governance should give producer countries a meaningful role and prevent better data from serving only large consuming economies.

The Hub is under conceptual development. A future International Materials Agency is contingent on demonstrated value, mandate, and political support; the International Resource Panel should remain the scientific assessment body. The IRP Co-Chairs’ Global Materials Stewardship call provides the wider transparency and coordination rationale. Progress should track real decisions improved, gaps closed, users served, and producer-country participation.