Scandium (Sc)

 

The main uses of scandium are for scandium-aluminium alloys and solid oxide fuel cells (scandium oxide).

Scandium-aluminium alloys are lightweight, strong, corrosion and heat resistant, malleable, good conductors of electricity and heat and require as little as 0.5% scandium. They are used in aircraft, spacecraft, sporting goods, ceramics, electronics, lasers, radioisotopes, and medical applications.

Scandium is abundant in Earth’s crust but deposits with scandium in economic quantities that are viable for extraction  are very rare. Australian scandium mineralisation is typically found in nickel-cobalt deposits and sometimes associated with rare earth elements.

NSW has 56,000 tonnes of scandium (NSW Resources database), including deposits that could produce scandium as a primary product or co-product and could lead to the development of new and larger scandium markets.

Total world scandium consumption was 30 to 40 tonnes in 2024 (Source: USGS) and in the form of scandium oxide. Historically scandium was produced exclusively as a by-product of other mineral production, however, small volumes and lack of reliable and secure long-term supply has meant scandium oxide is generally traded between companies rather than on the market.

Demand for scandium is expected to increase to over 117 tonnes a year by 2026, driven by increased use of scandium-aluminium alloys and solid oxide fuel cells (Source: NioCorp).
 

NSW resource

NSW has one of the highest concentrations of known scandium globally, which makes it an important location for companies evaluating development opportunities with scandium production as either a primary or secondary product stream. NSW is the only known location where scandium has the potential to be mined as a primary commodity.

In NSW, scandium occurs within nickel-laterite deposits, where deep weathering of ultramafic rocks – most notably the Fifield Igneous Complex in central NSW and the Great Serpentinite Belt to form economic concentrations. Scandium is concentrated in iron-rich clays, usually in the shallowest parts of the laterite deposits.

Several important projects are associated with the Fifield Igneous Complex, including Sunrise, Burra and Flemington.

Tertiary laterite development

Scandium in NSW map

Download the Scandium in NSW map (PDF, 3.1 MB).

Essential uses for scandium alloys

Quality data for explorers

NSW is known for its world class pre-competitive data, and has a long history of providing geological, geoscientific and geochemical data to promote investment in exploration.

Pre-competitive data to support scandium exploration (and other commodities) is made freely available on the Geological Survey of NSW’s web map application MinView.

The NSW Government recently completed its largest ever geophysical survey acquisition program through airborne electromagnetic, airborne magnetic and radiometric, gravity, and deep crustal reflection seismic surveys. These surveys collected over 150,000 km2 of new data across the New England Orogen, the Lachlan Orogen and the Murray Basin areas that are prospective for critical minerals and high-tech metals, including scandium.

Global overview

Scandium resources have been identified in Australia, Canada, China, Finland, Guinea, Kazakhstan, Madagascar, Norway, the Philippines, Russia, South Africa, Ukraine and the United States of America.

Historically, scandium was produced as by-product material in China (iron ore, rare earths, titanium, and zirconium), Kazakhstan (uranium), the Philippines (nickel), Russia (apatite and uranium) and Ukraine (uranium). 

In 2024 scandium oxide global consumption was estimated to be 30-40 tonnes per annum, with estimated global capacity of 80 tonnes per annum (Source: USGS). Scandium was recovered from nickel, cobalt, titanium and zirconium process streams.

NSW project highlights

There are several advanced scandium projects in NSW including the Syerston Scandium Project (Sunrise), Burra Scandium project, Nyngan Scandium project, Flemington Project and the Fifield Project.

NSW scandium projects offer new sources of stable supply that can stimulate the use of scandium in a wider range of new technologies. There are also further opportunities to explore for value-adding through processing and refining.

 

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Notes:

All percentages (including in the pie charts) are rounded to whole numbers.

Forecasts are based on NSW Resources’ interpretation of available information. Forecasts are inherently uncertain and should be seen as a guide only. Actual outcomes may be different.