34: The critical raw materials shaping our future

17 June 2026 – 13 April 2027

We use raw materials extracted from the earth in almost all of our technology, from smartphones to jet engines. These technologies, and the materials that make them, are critical to our ability to survive and thrive as societies. Global demand for these materials is growing rapidly as a result of our transition to green energy and increased reliance on digital technologies. Science and industry are urgently seeking more ethical and sustainable ways to mine vital raw materials, use them more efficiently, and recycle them effectively.

We hear about critical raw materials almost every day in our news feeds, but how do they actually fit into our lives? What are they? Why do we need them? Where do we get them from? And how will we get them in the future?

The Oxford University Museum of Natural History is currently developing an exhibition in collaboration with researchers across Oxford University from the Oxford EARTH Programme and the physical, life and social science departments. The exhibition will explore these issues and potential solutions to our need for critical raw materials.

What are critical raw materials?

Critical raw materials are those essential to key technologies but their supply may be limited, unsustainable or unethical. Critical raw materials tend to have unique chemical properties which make them difficult to replace in technology. Governments responsible for ensuring their populations have access to the resources they need designate a raw material as ‘critical’ when there is a risk that they won’t have enough. This is often because of political, environmental, or ethical concerns around the materials’ extraction. Or, because we don’t yet have the technology to locate them, extract them from the ground, or recover them through recycling. The UK government includes 34 raw materials on its designated critical list, but lists vary from country to country.

 

  • aluminium
  • antimony
  • bismuth
  • borates
  • cobalt
  • gallium
  • germanium
  • hafnium
  • helium
  • indium
  • iron
  • lithium
  • magnesite
  • magnesium
  • manganese
  • natural graphite
  • nickel
  • niobium
  • phosphorus
  • platinum
  • rare earth elements (REEs)
  • rhenium
  • rhodium
  • ruthenium
  • silicon
  • sodium
  • tantalum
  • tellurium
  • tin
  • titanium
  • tungsten
  • vanadium
  • zinc
ilmenite titanium ore ergesund norway

Ilmenite, titanium ore

Titanium makes aeroplanes light and strong.

Lepidolite, Lithium Ore from Cornwall

Lepidolite, lithium ore

Lithium makes batteries last longer.

A small piece of Bastnäsite

Bastnäsite, rare earth elements (REEs) ore 

Rare earth elements like dysprosium help wind turbines generate electricity more effectively.

Demand for critical raw materials is growing rapidly

Copper

We need more copper each year to wire our technology and update our electrical grids. Our demand for copper is increasing much faster than it can be mined.

Infographic showing the rise in copper production from 1973 to 2023, and the expected rise in 2040.

Cobalt

Cobalt, found in rechargeable batteries, is critical because two thirds of the global supply comes from the Democratic Republic of Congo, where labour practices can be exploitative and unsafe.

Infographic showing the rise in cobalt production from 1973 to 2023, and the expected rise in 2040.

Neodymium

Neodymium makes wind turbines more efficient in generating power. The ore contains tiny amounts of the metal, so you need to mine a lot to get a little.

Infographic showing illustrations of wind turbines set against waste mountains

Where do we get critical raw materials?

Top global producers of the 34 critical raw materials

  • Algeria
  • Argentina
  • Australia
  • Brazil
  • Canada
  • Chile
  • China
  • Democratic Republic of the Congo
  • France
  • Gabon
  • Germany
  • India
  • Indonesia
  • Israel
  • Kazakhstan
  • Mexico
  • Morocco
  • Myanmar
  • Nigeria
  • Norway
  • Peru
  • Philippines
  • Poland
  • Qatar
  • Russia
  • Rwanda
  • South Africa
  • South Korea
  • Tajikistan
  • Turkey
  • United States
  • Vietnam
  • Zimbabwe

Source: USGS

 

Most critical raw materials are extracted through mining, but they can also be recovered by recycling, or processing mine waste. Mining practices are often damaging to local communities and ecosystems. In order to protect people and environments, Oxford researchers are seeking to improve the ways that we source and process the materials we need. To reduce our dependency on critical raw materials, we need to design products more efficiently and expand second life uses, all while increasing our recycling capacity and reducing demand.

Oxford EARTH researcher testing geothermal fluids

Researcher working in partnership with Oxford EARTH collecting samples of geothermal gases, a potential low land footprint source of critical raw materials.

From 13 June 2026, visit '34: The Critical Raw Materials Shaping Our Future' at the Oxford University Museum of Natural History to uncover the materials that power our daily lives, where they come from, and how we’ll source them in the future.

 

Visual identity by David Sudlow Design, infographics by Oxford University Museum of Natural History