September 7, 2026
Snapshot of Mineral Demand
A new analysis from the Oakland Institute, drawing on International Energy Agency data, challenges the premise that a sweeping surge in mining is an unavoidable cost of replacing fossil fuels. The study estimates that wind, solar, renewable-power networks, grid batteries and electric vehicles accounted for 26% of combined demand for copper, lithium, nickel, cobalt, graphite and magnet rare earths in 2024. The remaining 74% was attributed to construction, conventional transport, industrial machinery, defense, electronics and other uses.
The calculation describes consumption across this basket of six materials for 2024. It does not speak to reserves, future demand trajectories or project pipelines, but it does reframe how current mineral use is distributed between energy-transition applications and the broader industrial economy.
What the Numbers Show
The headline figure places roughly three-quarters of demand for these critical inputs outside core clean-energy categories. Copper’s use in construction and conventional transport, nickel and cobalt in alloys and chemicals, graphite in industrial applications, and rare earth magnets in a wide array of electronics and defense-related systems illustrate the breadth of non-transition pull on supply. In effect, the energy transition is a large and growing consumer of these inputs, but it is not yet the dominant one when taken as a combined basket.
This distinction matters for interpreting bottlenecks. Tightness in any single material can still arise from rapid growth in specific technologies, even if the aggregate share of transition demand sits near a quarter of the total. Conversely, cyclical shifts in construction, traditional automotive and capital goods can materially influence availability and pricing for the same minerals central to clean-energy buildout.
Implications for Mining and Materials Policy
For producers, financiers and policymakers, the analysis underscores that mine supply, refining capacity and logistics planning must accommodate a broad base of end uses, not solely renewable-power and EV value chains. Permitting timelines, offtake strategies and processing investments are likely to be shaped not just by decarbonisation policies but also by trends in global construction, legacy transport platforms, and electronics and defense procurement.
The findings also suggest that debates over “how much new mining” is required are sensitive to scope. A snapshot of current consumption allocation differs from forward scenarios, and the relative shares between transition and non-transition uses can shift as technologies scale, efficiencies improve, and substitution or recycling evolves. What is clear in the data presented is that, as of 2024, most demand for these six minerals remains rooted in the broader industrial economy.
Allocated physical bullion sits outside these supply chains: gold and silver demand is driven by monetary, investment and jewelry uses rather than the industrial end-use mix that defines critical minerals markets.
