Applications of Rare Earths

Commercial jet engine undergoing maintenance in hangar, representing aerospace applications of rare earth elements

The Invisible Engines of the Modern World

The rare earth elements hosted within the Itarantim Project are building blocks of high‑performance technology, indispensable to the global transition toward clean energy and advanced digital infrastructure.

Permanent Magnets for Electric Vehicles

Robotic arm assembling copper-wound EV motor component using high-performance permanent magnets

The most critical application for IMC’s heavy rare earths, specifically Dysprosium and Terbium, is in high-strength NdFeB (Neodymium-Iron-Boron) permanent magnets. While a light rare earth like Neodymium provides the magnetic power, heavy rare earths such as Dysprosium and Terbium act as thermal stabilizers, helping the magnets in EV motors resist demagnetization at the high operating temperatures inside an electric drivetrain. By improving high-temperature performance, they help maintain motor efficiency under demanding conditions, a key reason demand for these scarce elements continues to grow.

Heat resistance

Dysprosium helps magnets retain their performance at the elevated operating temperatures found in EV drivetrains.

Lighter motors

High‑performance magnets enable smaller, lighter motors that improve overall vehicle efficiency.

More range

Better magnetic stability under heat translates into more miles per charge.

Renewable Energy: Wind Power

Wind turbines on hillside at sunset, illustrating permanent-magnet direct-drive turbines for renewable energy

Rare earth magnets are foundational to direct-drive wind turbines, favored for offshore farms thanks to their reliability and lower maintenance. By removing the heavy, complex gearbox, permanent‑magnet turbines capture energy more efficiently, even at lower wind speeds. The scale of the Itarantim deposit positions IMC as a potential long‑term partner to the global wind sector as it works toward carbon‑neutrality targets.

Direct‑drive reliability

Fewer mechanical failure points and reduced long‑term maintenance for offshore installations.

Durability

High‑quality heavy rare earths help magnets resist demagnetization over a turbine’s multi‑decade service life.

Grid stability

Consistent power output and better integration with modern smart‑grid technologies.

High‑Tech Defense & Aerospace

Formation of military fighter jets flying through clouds at sunset, symbolizing aerospace and defense applications

The magnetic and optical properties of heavy rare earths make them vital to national security and aerospace. They appear in precision‑guided systems, sonar, and the specialized glass and sensors used in cockpits and satellite communications. As allied nations work to de‑risk their critical-mineral supply chains, IMC’s Brazilian operations are positioned to offer a transparent, Western‑aligned source for these sensitive applications.

Precision guidance

Used in actuators and control surfaces for advanced guidance systems.

Advanced sensors

Terbium supports high‑definition sonar and specialized military displays.

Strategic autonomy

A diversified, non‑restricted supply source for sensitive defense needs.

And Beyond

Robotic arms on an assembly line, illustrating rare earth applications in industrial robotics and manufacturing

Beyond energy and defense, these rare earths are essential to the miniaturization of consumer electronics, from smartphones to hard drives, as well as medical imaging (MRI) and high-efficiency industrial robotics. They also act as catalysts in automotive exhaust systems and as additives in high-strength, lightweight alloys.

Why Consider IMC Rare Earths

What sets the opportunity apart — framed around the asset, the market and the moment.

Heavy rare earth exposure

Direct leverage to Dysprosium and Terbium — among the most supply‑constrained, highest‑value rare earths, and critical to EV motors, wind turbines and defense systems.

A genuine supply bottleneck

The focus is the “magnet metals” that have no scalable substitutes, one of the tightest links in the energy‑transition supply chain.

Deposit‑driven cost potential

Ionic Adsorption Clay (IAC) mineralization is a deposit type that can enable simpler, lower-energy extraction than hard‑rock projects, a potential structural cost advantage.

A lower‑impact development model

Shallow, free-dig clay mineralization supports a small footprint and reduced chemical intensity relative to hard‑rock alternatives, characteristics increasingly valued by institutional capital.

Scale with room to grow

A 1.1 Bt Inferred Resource defined from only part of the land package, with an exploration target of 1.5 Bt that the company aims to test.

High‑value composition

Solid TREO grades complemented by a strong Magnet Rare Earth Oxides (MREO) weighting, concentrating value in the elements customers most need.

A strategic jurisdiction

Brazil offers stability, infrastructure and a credible Western‑aligned alternative to concentrated supply.

Geopolitical relevance

Positioned to support supply‑chain diversification and to attract strategic partners across the automotive, industrial and defense sectors.

A clear catalyst path

A listing at NYSE marks IMC’s transition toward a development‑stage company, with potential near‑term value drivers including resource growth, study advancement and offtake discussions.

Supply‑chain relevance

Well‑positioned to become part of the diversified rare earth supply chains that Western and allied markets are working to build, supporting long‑term strategic demand.