Europe’s Critical Raw Materials Act and the EU’s carbon-border regime are intersecting as the bloc seeks to rebuild strategic raw-material processing capacity. The CRMA is designed to strengthen supply-chain resilience, while the CBAM applies a carbon cost to selected imports. Coverage under the two frameworks remains uneven for the materials required by European industry.
Securing those inputs extends beyond mining, because manufacturers rely on processed and refined materials that meet industrial specifications. The supply chain includes concentration, smelting, refining, purification, alloying and chemical conversion steps. Examples of end inputs cited include battery-grade chemicals, separated rare-earth oxides, aluminium billet, cathode copper and high-purity graphite.
CRMA project pipeline and 2030 capacity benchmarks
As of October 2026, the European Commission has designated 106 strategic projects under the CRMA. The bloc’s 2030 benchmarks call for domestic capacity equivalent to at least 10% of annual EU strategic raw-material consumption in extraction, 40% in processing and 25% in recycling. The framework also aims to reduce excessive dependence on any single third country at relevant processing stages.
A second EU list adopted on October 9, 2026 added 46 projects across 16 member states. Together, the designations are intended to support development across extraction, processing and recycling stages. The CRMA scope is therefore linked to building capacity along multiple parts of the materials chain.
CBAM starts in 2026 with selected goods in metals
The CRMA focuses on extraction, processing and recycling, while CBAM targets carbon leakage by imposing a carbon cost on specified imported goods. The mechanism is designed to be comparable to the carbon cost faced by EU producers under the EU ETS. In practice, CBAM coverage is limited to particular categories rather than all mining and metals.
The definitive CBAM regime began in 2026, covering designated goods including iron and steel, aluminium, cement, fertilisers, hydrogen and electricity. In the metals sector, its reach includes selected upstream and intermediate materials as well as finished products. Covered items include agglomerated iron ore and concentrates, including iron ore pellets under CN code 2601 12 00, alongside many iron and steel products and broad categories of aluminium products.
Copper concentrates, refined copper, zinc, lead, most nickel products, lithium chemicals, cobalt products, natural and processed graphite, rare-earth oxides and most other critical-material products remain outside current CBAM scope. This leaves a gap for some European processors when imported substitutes are not subject to an equivalent border-carbon charge. The difference is linked to whether customs classification places a product within CBAM coverage.
Energy costs shape refining economics where CBAM does not apply
Processing facilities can face higher sensitivity to energy prices than mines. Smelting and refining may require substantial electricity, gas, hydrogen or process heat, while some operations also generate significant direct process emissions. These factors influence operating costs for European producers.
European operators must account for EU ETS-related liabilities alongside electricity network charges. Additional cost elements include environmental controls and permitting requirements, as well as financing standards that have tightened over time. Competing facilities in third countries can operate under different cost structures.
For materials covered by CBAM, the mechanism can reduce part of the carbon-cost disadvantage facing European production. For materials not covered by CBAM, other instruments carry more of the burden for building domestic capacity. Those instruments include CRMA support, state aid, long-term offtake agreements, recycling policy, public procurement and security-of-supply premiums.
Investment cases split between CBAM-linked chains and uncovered critical inputs
The investment landscape described in the source divides into three categories across the materials chain. The first category covers projects within value chains that are clearly linked to CBAM treatment. Examples include iron ore pelletisation, direct-reduced iron (DRI), pig iron, many ferroalloys, steelmaking and aluminium smelting segments where carbon treatment affects market access and production economics.
For these projects, viability can be supported through low-emission process technology and verified emissions data. Renewable electricity is cited as a factor alongside evidence that output has lower carbon intensity than competing high-emission materials. These elements can affect both production costs and commercial positioning of resulting material.
The second category involves strategically important materials that remain largely outside CBAM coverage. The source lists copper, zinc, lead, lithium, cobalt, graphite and rare earths as examples. Investment cases for these inputs depend more heavily on energy costs, processing yields, reliable feedstock and offtake quality because the current mechanism does not provide an equivalent border-carbon adjustment.
Downstream CBAM expansion could affect imported equipment costs
A third category concerns downstream industrial manufacturing where CBAM expansion could change how imported goods used in European projects are treated. The European Commission proposed in December 2025 extending CBAM from 2028 to 180 additional steel- and aluminium-intensive downstream goods. In June 2026 the Council refined and expanded the list to approximately 200 products.
The European Parliament’s position submitted in September 2026 proposed a substantially broader scope of 457 products. The final product list remains under negotiation because these positions represent proposals rather than an already settled extension in force. For mining and refining investors relying on imported machinery or fabricated steel and aluminium goods this could change landed costs if equipment falls within an expanded scope.
The impact would depend on final rules and how imported goods are classified for customs purposes. If equipment is included within an expanded CBAM category its metal content treatment could affect cost outcomes for projects using such inputs. The source links this sensitivity to investor reliance on imported industrial components.
Carbon regulation affects project finance beyond mine-level assumptions
The source describes carbon policy as affecting both cost and revenue sides for European smelters or refineries. EU ETS obligations influence operating costs through energy expenses while carbon treatment of imported substitutes can affect competitiveness of domestic output. A project assessed as marginal under current commodity-price assumptions could become more competitive if comparable imports face higher carbon costs.
Lenders are described as needing assessment across the full value chain rather than focusing only on the mine stage. Due diligence should identify the final saleable product and its Combined Nomenclature (CN) code. It should also determine whether a project enters CBAM directly or through a covered precursor or not at all.
The analysis should cover which EU ETS obligations apply to the relevant EU installation along with electricity sourcing for the plant. It should also consider whether actual emissions can be verified and whether downstream CBAM coverage changes during project timelines. Demonstrating lower carbon-adjusted landed cost compared with imported alternatives is identified as part of this assessment.
Processing capacity connects resource security with industrial demand
The source ties Europe’s raw-material strategy to connecting extraction, recycling, processing and manufacturing through a commercially viable industrial chain. Domestic mineral resources alone are described as insufficient if intermediate stages needed to turn ore or recycled feedstock into usable industrial materials remain inadequate. The CRMA is presented as supporting development across this chain while CBAM assigns carbon costs to selected trade segments.
The intersection between the two frameworks is described as most direct in iron, steel and aluminium production routes. Many strategically important non-ferrous materials are described as remaining dependent on other forms of industrial support because they fall outside current CBAM scope. For investors evaluating European processing projects this distinction between covered and uncovered materials remains relevant for exposure to imported competition.
The same distinction is also described as affecting reliance on policy assistance alongside factors such as strategic buyers or low-cost power availability for project operations.