demand growth through 2030: wind turbines, electric vehicles, and
defence systems. Each on its own would justify the capital now flowing
into non-Chinese supply; together they describe a demand curve that
current producers cannot fully meet.¹²³
industrial products in existence. The European Commission's Joint
wind-turbine capacity requires approximately 500 kilogrammes of
permanent magnets, of which roughly one-third — about 167 kilogrammes —
is rare-earth content.¹ For a 15-megawatt offshore turbine, that
translates into roughly 2.5 tonnes of rare earths per unit.
additions alone are projected to grow rapidly through 2030, and onshore
direct-drive installations continue to expand across Europe, China and
wind turbines will rise 4.5 times by 2030 and 5.5 times by 2050, driven
by offshore deployment and the shift toward higher-power turbine
platforms.¹
neodymium-praseodymium-dysprosium-terbium complex — the magnet rare
earths. Wind developers building offshore projects in 2026-2030 are
signing long-term supply contracts for the permanent-magnet motors their
turbines will need, and the tightness of that market is now reflected in
equipment order-books extending well into the next decade.
turbine, the size becoming standard in European and Chinese projects, is
simply not economic without direct-drive permanent-magnet generators —
the gearbox alternatives would add too much mass and maintenance
complexity for offshore environments. That engineering reality means
every additional gigawatt of offshore wind installed globally pulls
roughly 170 tonnes of rare-earth demand into the market, regardless of
commercial-market preferences.
turbines use per megawatt, but the unit count is several orders of
magnitude larger. The JRC's benchmark figures put rare-earth magnet
content at 2-5 kilogrammes per EV, depending on motor design.¹ Global EV
production reached roughly 20 million units in 2025 and is projected to
continue double-digit percentage growth through the rest of the decade.
production doubles to 40 million units by 2030 at an average
magnet-content of 3 kilogrammes per vehicle, the segment alone would
require roughly 120,000 tonnes of rare-earth magnets per year — a
fraction of which must be heavy rare earths for dysprosium-reinforced
automotive-grade alloys.
shifted toward induction-motor designs that eliminate rare-earth
content, and technology research continues on ferrite-based
alternatives. But for the foreseeable future, permanent-magnet motors
dominate the high-performance segment, and that segment is where EV
market growth has been concentrated.
supply underpins that lead. But European and North American EV
production depends on imported rare earths, and the 2025 Chinese export
controls made that dependence politically uncomfortable enough that
with non-Chinese producers to lock in supply well ahead of projected
model launches.
terms but arguably the most strategically sensitive. A U.S. F-35
fifth-generation fighter contains more than 900 pounds (roughly 408
kilogrammes) of rare-earth content. An Arleigh Burke DDG-51 destroyer
requires approximately 5,200 pounds (2,359 kilogrammes). A
precision-guided munitions, lasers, satellites, and night-vision
goggles.
access to rare earths for defence production as a national-security
imperative, not a commodity-market question. The July 2025 U.S.
made that treatment explicit. Similar logic underpins European Critical
that followed the IEA's 2025 Global Critical Minerals Outlook.³
tighter than the supply side has yet responded to. Industry consensus
and JRC-aligned analysis suggest that global magnet demand could reach
approximately 150,000 tonnes per year by 2030, which would in turn
require around 50,000 tonnes of rare earths annually for magnet-grade
applications alone.¹
that the rare-earth metals market will grow from roughly 196,000 tonnes
in 2025 to approximately 260,000 tonnes by 2030, with magnet
applications delivering the bulk of the growth at a compound annual rate
of around 8 percent.¹ That overall demand number is not extreme in
commodity-market terms, but the heavy-rare-earth fraction inside it is
structurally undersupplied relative to current production trajectories.
translates into a strong forward-revenue curve. Serra Verde's production
of mixed concentrate with a material heavy-rare-earth share — exactly
the fraction that wind, EV and defence applications need most — is
addressed to the tightest part of the market.
similarly positioned. Ionic-clay deposits carry a better
heavy-rare-earth fraction than most carbonatite-hosted sources, and the
three Brazilian projects together represent one of the larger pipelines
of heavy-rare-earth-capable production outside China. Offtake
discussions that Brazilian producers are having with automakers,
wind-turbine manufacturers and U.S. defence prime contractors are a
direct consequence of the triple-engine demand picture.
scale and operating logic, but they converge on the same underlying
shortage: not enough heavy rare earths are being produced outside China
to meet the growth that each of the three applications implies.
are