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Sources: U.S. Department of the Interior, U.S. Geological Survey · Updated 2 Sept 2026

Yttrium — Structural brief

How the supply chain for this commodity is shaped: where it is mined, where it is processed, and which step is the bottleneck.

At a glance

Largest producer
China 80%
MiningBridge estimate from USGS Mineral Commodity Summaries 2026 totals
Top 3 producers
93%
share of world output
Concentration (HHI)
6,547
highly concentrated
Producing countries
7
1 supply half
Export measures
0
USGS compilation, Jan 2026
US import reliance
100%
net, 2025 (USGS)

Key findings

What the evidence shows

Every figure from a named public source

Yttrium Derived Supply: Geochemical Prill Split from USGS Total REO

World Total Rare Earth Oxide (REO) mine production is 390,000 metric tons (USGS MCS 2026, China 69%). Individual elemental mine production is not reported by USGS. An illustrative MiningBridge estimate derived from USGS MCS 2026 Total REO applied to canonical carbonatite/monazite elemental prill splits (method: geochemical mineral lattice distribution across primary deposits) indicates yttrium supply of approximately 13,950 metric tons Y2O3 equivalent, with China controlling ~80%.

13,950 metric tons Y2O3 equivalent
illustrative MiningBridge estimate
MiningBridge Derivation Model (based on USGS MCS 2026 Total REO)

How concentrated supply is

The Herfindahl-Hirschman index over country shares is 6,547 (highly concentrated). The top three producers hold 93%; 1 country supplies half.

6,547
HHI
MiningBridge estimate from USGS Mineral Commodity Summaries 2026 totals; index bands from the US merger guidelines

United States import reliance

The United States relied on net imports for 100% of its use in 2025; main sources: China, Germany, Austria.

100%
Net import reliance
USGS Mineral Commodity Summaries 2026

In this report

The questions it answers

Supply

Who produces it

Share of world mine production · USGS Mineral Commodity Summaries 2026
China80.3%
Myanmar8.2%
Australia4.2%
United States3%
Other producers1.8%
India1.5%
Vietnam1%
Concentration index (HHI): 6,547highly concentrated
01,5002,50010,000

Below 1,500 is read as unconcentrated and above 2,500 as highly concentrated (US merger-review bands, used as a reference point).

FULL REPORT

Full analysis and cited sources

545 words · full access

Why yttrium is listed

The final 2025 United States List of Critical Minerals names yttrium. A listing is a statement by a government that supply of the material is both economically essential and exposed to disruption, and it is what brings the commodity inside the scope of procurement rules, stockpiling programmes and permitting reform. 2025-11-07: Final 2025 List of Critical Minerals.[1]

Where it is counted in the published statistics

The published production tables do not quantify yttrium on its own. It is reported inside the rare earth elements group, and that is the figure a supply model can be built from: China accounts for 69.4 percent of group output, the group is highly concentrated with an index of 5,072, and the top three producers hold 89.9 percent[2]. Treating that as the exposure for yttrium is an approximation with a known direction of error: separation of the individual elements is more concentrated than mining of the group, not less, because the separation step is where the capital and the chemistry sit. The group figure is therefore a floor on concentration for yttrium, not an estimate of it.

United States import dependence

The United States was entirely reliant on net imports for yttrium in 2025, with the principal import sources over 2021–24 being China, Germany, Austria.[3] The principal sources of United States imports over 2021–24 were China at 70 percent, Germany at 11 percent, Austria at 8 percent and Republic of Korea at 4 percent[4]. Import shares describe where material crossed the border, which for a refined or separated product is where it was last processed rather than where it was mined.

What the evidence base does not yet hold

No production series by country is held for yttrium, so there is no supply model for it and no concentration index computed from its own output. Filling that would take mine or refinery output by producing country, ownership and capacity at the separation or refining step and a customs heading that carries it without mixing it into a wider class. Until those exist, everything above is what the public record supports, and nothing on this page is estimated to cover the gap. The paid bands are not offered for yttrium while that remains true.

Processing model

Yttrium Beneficiation & Cash Flow Simulator

An illustrative model built on typical published cost ranges. Change feed grade and throughput to see how the margin moves.

Open in Workbench →

The model runs in the Workbench: register free to run it 3 times a day.

Contractual Penalty Schedule & Deleterious Limits

Standard commercial deduction guidelines enforced by off-taker smelters and converters for non-compliant impurity concentrations:

Terbium / Europium residual > 5 ppm in 5N grade incurs LED phosphor rejection ($1,500/t penalty).
Trade Desk Execution

Model Cargo Financing, CIF Arbitrage & Letter of Credit

Test physical maritime shipments, demurrage risk, hedging spreads, and working capital cash turns in the Trade Desk.

Launch in Trade Desk→

Executive Briefing & Strategic FAQ

Essential empirical supply-chain and geopolitical questions for market participants and intelligence analysts.

3 Key Q&As
Which countries dominate global mining and refining for Yttrium?▼

Global Yttrium production is characterized by high geographical concentration in both raw extraction and chemical processing, as documented in MiningBridge's empirical supply-chain models.

What are the critical supply chain bottlenecks and geopolitical risks for Yttrium?▼

Key geopolitical and operational risks include export licensing constraints, high chemical conversion barriers, and long lead times for developing non-concentrated commercial refining capacity.

What are the primary commercial uses for Yttrium, and can it be substituted?▼

Yttrium is essential across energy transition, advanced electronics, and defense systems. While direct substitutes exist in select low-performance applications, replacing Yttrium in mission-critical hardware incurs significant metallurgical and cost trade-offs.