The European Commission marks a raw material as critical when it meets two tests at once. The material is economically essential to strategic sectors, and its supply carries a high risk of disruption. That risk comes from production concentrated in a handful of countries and from limited options to substitute the material with something else.
Within the 34 sits a smaller set of 17 strategic raw materials. These are the ones expected to grow fastest for the green and digital transitions, and for defence and aerospace. The binding 2030 targets are calculated against this strategic subset, which is why the distinction matters when you read the list.
All 34, at a glance
Click a sector to fade the materials it doesn't touch.
Source: European Commission, Critical Raw Materials Act (Regulation (EU) 2024/1252), 2023 criticality list. 17 strategic materials in total. Rare earths for magnets are strategic and are marked on the heavy and light rare earth tiles.
We render the 34 as a grid rather than a periodic table on purpose. Six of the entries (bauxite, coking coal, heavy and light rare earths, phosphate rock and the platinum group metals) are mineral groups or mixtures, not single elements, so they do not have a single cell on Mendeleev’s table. The EU list is a policy register.
Supply is concentrated and demand is rising
~100%
of the EU's heavy rare earths from China
98%
of its boron from Turkey
71%
of its platinum from South Africa
~94%
of global gallium supply from China
Processing is even more concentrated than mining, much of it in Asia, and China dominates the supply chain for around 20 of the 34 materials. That concentration turns trade into leverage. China introduced export controls on gallium and germanium in 2023 and on antimony in 2024.
Demand is climbing at the same time, driven by the energy transition and the digitalisation of everyday life. Wind turbines, solar panels and electric vehicles each carry a heavy load of critical materials, and a single-country dependence leaves that demand exposed.
Where the world’s supply actually sits
Pick a material, then switch between today’s production share, the projected 2030 share, and how many years of reserves are left at current output. The map shades every country by its share of global supply. The pattern that keeps repeating is concentration in a few places, with China usually one of them.
Mine production
% of global supply<5%5–20%20–50%>50%no recorded share
Sources: USGS Mineral Commodity Summaries 2024, EU Joint Research Centre Raw Materials Information System, IEA Critical Minerals Outlook 2024. 2030 figures are indicative projections based on announced capacity. Reserve-life estimates are global and at 2023 production rates; they don't account for recycling or new discoveries.
From initiative to binding regulation
Europe’s response moved from voluntary initiative to binding regulation in just over a decade. Filled markers are already in force; outlined markers are still ahead.
2008
EU
Raw Materials Initiative: first coordinated EU approach to securing access.
In force
2020
EU
Action Plan on Critical Raw Materials. Non-binding.
In force
Mar 2023
EU
CRMA proposed by the European Commission.
In force
May 2024
Reg. 2024/1252
CRMA enters into force, with binding 2030 benchmarks.
In force
May 2027
CRMA Art. 3
First review of the strategic list, then every three years.
Upcoming
2030
CRMA
Benchmark year for extraction, processing and recycling capacity.
Upcoming
2008
EU
Raw Materials Initiative: first coordinated EU approach to securing access.
In force
2020
EU
Action Plan on Critical Raw Materials. Non-binding.
In force
Mar 2023
EU
CRMA proposed by the European Commission.
In force
May 2024
Reg. 2024/1252
CRMA enters into force, with binding 2030 benchmarks.
In force
May 2027
CRMA Art. 3
First review of the strategic list, then every three years.
Upcoming
2030
CRMA
Benchmark year for extraction, processing and recycling capacity.
Upcoming
2030 benchmarks, for each strategic raw material
10%
from EU extraction
40%
from EU processing
25%
from recycling
65%
max from a single country
Two end-of-life paths for the same product
The split happens at design. When material choice and product architecture are set for disassembly and separation, recovery becomes possible and the material loops back into supply. When they are not, critical materials leave the system at the first end-of-life step.
Value kept · closed loop
Designed for disassembly
Sorted and separated
Recovered
Back into supply
Material choice and architecture make recovery physically possible. The material re-enters supply.
Value lost · broken line
Product in use
Discarded
Incineration or landfill
Materials lost
Without design for disassembly, critical materials exit the system at the first end-of-life step.
Read that way, the EU list works as a design brief.
Read the list as a circular-readiness map
Mapped onto the Circular Readiness Levels, the EU list shows the climb from knowing where your critical materials sit to keeping their value in the system at scale.
CRL1
Shared understanding
Know which critical materials sit inside your products, and where. Most teams cannot answer this with confidence.
CRL1 → 2
Build capability
Put the data, the supplier visibility and the people in place to act on what the list reveals.
CRL2 → 3
Design and deliver
Align material choice and product architecture to disassembly and separation, so recovery is physically possible.
CRL3 → 4
Evidence and case
Prove recovered-material performance and turn it into a business case that holds up to scrutiny.
CRL4 → 5
Ecosystem alignment
Line up suppliers, recyclers and policy so the loop closes at scale rather than in a single pilot.
Four ways to read the same 34 materials
01
The recovery gap
For most critical raw materials, the share of demand met by recycling stays in low single digits. The vast majority of what Europe uses is still not coming back.
European Commission, 2023 study on critical raw materials
02
The design lever
Recovery feasibility is largely fixed at the design stage. When products are not built for disassembly and separation, their critical materials are lost to incineration or landfill regardless of recycling effort downstream.
TNO, design for circularity
03
The policy pressure
The CRMA sets a 25% recycling benchmark for strategic raw materials by 2030. Circularity moves from a sustainability ambition to a supply-security expectation.
Regulation (EU) 2024/1252
04
The commercial edge
Firms that can evidence recovered content and secure secondary supply cut their exposure to single-country dependence. That is a balance-sheet advantage, not only a reputational one.
Circular Intelligence
What this means for different roles
For CEOs
The EU list is a strategic risk register. If you treat it as a sourcing problem alone, you leave the design lever untouched, and your designers decide most of the recoverable value.
For CFOs
Single-country dependence is unpriced supply risk on the balance sheet. Evidence of recovered content and secondary supply is what turns that exposure into a position you can defend to lenders, insurers and customers.
For Operations and R&D leads
Recovery feasibility is fixed long before a recycler ever sees the product. Material choice, fastening strategy and product architecture are the levers, and they belong in the design brief.
For Sustainability leads
The CRMA turns recycling targets into supply-security expectations the business has to evidence against.
Keep the value in your critical materials
We work with teams to map where critical materials sit inside their products, and to design those products so the value stays in reach.
