{
  "commodity": "Dysprosium",
  "slug": "dysprosium",
  "url": "https://xin.bz/commodities/dysprosium/",
  "title": "Dysprosium Is the Heat-Resistance Rare Earth That Keeps High-Performance Magnets Working Under Stress",
  "description": "Dysprosium deep dive — the heat-resistance additive high-performance magnets depend on, fed by Chinese and Myanmar heavy-REE supply with separation capacity as the chokepoint.",
  "published": "2026-08-28",
  "updated": "2026-08-28",
  "section": "Global Commodity Insight",
  "series": null,
  "category": null,
  "author": "Xin.bz Global Commodity Insight",
  "period": "2026",
  "tags": [
    "dysprosium",
    "rare earths",
    "heavy rare earths",
    "permanent magnets",
    "NdFeB",
    "Myanmar",
    "China",
    "defense supply chains",
    "critical minerals"
  ],
  "keyPoints": [
    "Dysprosium is added to NdFeB magnets to preserve coercivity at high operating temperatures.",
    "That makes it critical in compact traction motors, aerospace systems, missiles, drones, wind generators, and other severe-duty applications.",
    "Heavy-REE supply depends heavily on southern Chinese ionic-clay production and Myanmar feedstock processed in China.",
    "China placed dysprosium metal, oxides, compounds, and alloys under export controls in April 2025.",
    "U.S. import reliance for heavy rare-earth compounds and metals remained 100% in 2025.",
    "SMM assessed dysprosium oxide at $191.72/kg on August 27, 2026 inside China, while the FOB-China midpoint was $311/kg.",
    "Lynas has established separated Dy/Tb production in Malaysia; Energy Fuels is building commercial U.S. Dy/Tb circuits for completion by the end of 2027."
  ],
  "bodyFormat": "markdown",
  "body": "*Commodity Deep Dive — part of the Xin.bz Global Commodity Insight\nseries. Browse all: [Commodities](/commodities/).*\n\n## Commodity classification\n\n| Classification | Dysprosium |\n|---|---|\n| **Rare Earth Element** | **Yes — Heavy Rare Earth** |\n| **Strategic Resource** | **Critical — Extreme Supply Risk** |\n| **Agricultural Industry** | **None** |\n| **Manufacturing Industry** | **Primary** — high-temperature permanent magnets, lasers, specialty alloys, and advanced devices. |\n| **Communications Industry** | **Material** — lasers, data-storage components, sensors, and precision electronics. |\n| **Defense Industry** | **Primary** — high-temperature magnets in missiles, aircraft, drones, radar, and actuators. |\n| **Space Industry** | **Material** — high-temperature magnets, lasers, and precision mechanisms. |\n| **Hazardous Transport** | **Moderate** — oxide is stable; metal powder is reactive. |\n| **Rail Transport** | **Secondary** |\n| **Sea Transport** | **Primary** |\n| **Land / Road Transport** | **Primary** |\n| **Air Transport** | **Material / Primary for urgent high-value shipments** |\n| **Market Volatility** | **High** |\n| **Demand Seasonality** | **Low** |\n| **Supply Seasonality** | **Low / Moderate** — mining is year-round but Myanmar rainfall, conflict, and leaching operations affect feed availability. |\n| **Top Producer** | **China, using both domestic and Myanmar feedstock** |\n| **Top Consumer** | **China** |\n| **Key Port / Chokepoint** | **Chinese heavy-REE separation capacity — the systemic chokepoint.** |\n\n## What is it?\n\nDysprosium (Dy, atomic number 66) is a heavy rare-earth metal.\n\nIts highest-value role is in **high-temperature NdFeB magnets**. Small additions of dysprosium increase coercivity, allowing magnets to resist demagnetization when motors or other systems operate under thermal stress.\n\n## How is it made?\n\nDysprosium is recovered from rare-earth ores and ionic-adsorption clays.\n\nThe chain is:\n\n**mining/leaching → mixed rare-earth concentrate → chemical dissolution → extensive solvent extraction → dysprosium oxide → metal/alloy → magnet additive**\n\nHeavy rare-earth separation requires many chemical stages because neighboring elements have nearly identical chemistry.\n\n## Where is it produced?\n\nDysprosium is co-produced in mixed feedstocks, so mine-level data are thinner than for total rare-earth production.\n\nThe dominant chain is:\n\n- southern China ionic-adsorption deposits,\n- Myanmar ionic-clay deposits feeding Chinese processors,\n- Chinese separation plants,\n- small but expanding allied production outside China.\n\nMyanmar produced **22,000 tonnes REO equivalent of total rare earths in 2025**, much of it strategically important heavy-REE feed.\n\n## Notable sources & producers\n\n| Source / producer | Strategic significance |\n|---|---|\n| **China Rare Earth Group / southern China** | Dominant heavy-REE separation and production system. |\n| **Myanmar ionic-clay mines** | Critical dysprosium-rich feedstock for Chinese refiners; exposed to conflict and militia control. |\n| **Lynas Malaysia** | Reconfigured separation capacity to produce separated dysprosium and terbium oxides outside China. |\n| **Energy Fuels — White Mesa, Utah** | Commercial Dy/Tb circuits under construction; target completion end-2027. |\n| **Iluka — Eneabba** | Refinery designed for up to 725 t/year combined Dy/Tb oxide beginning after 2027 commissioning. |\n| **NioCorp — Elk Creek** | 2026 feasibility study projects 67 t/year dysprosium oxide. |\n\n## What is it used for?\n\n- high-temperature NdFeB magnets\n- EV traction motors\n- aircraft and missile actuators\n- drones\n- wind-turbine generators\n- lasers\n- nuclear-control applications\n- specialty alloys and scientific equipment\n\n## Why is it important?\n\nNeodymium creates magnetic strength. Dysprosium protects that strength at high temperature.\n\nThat distinction makes Dy disproportionately important in defense and mobility systems where a magnet must remain stable under heat, vibration, and high loads.\n\n## Is there a substitute?\n\n**Partial substitution exists.**\n\nTerbium can replace some dysprosium and often works more efficiently in grain-boundary diffusion, but terbium is scarcer and more expensive.\n\nImproved magnet design, cooling, grain-boundary diffusion, and reduced-Dy formulations can cut consumption.\n\nFerrite, SmCo, or non-permanent-magnet motors eliminate Dy but change performance and system architecture.\n\n## How is it transported?\n\nBecause dysprosium is high value and low volume, oxide and metal ship in drums or sealed containers by truck, sea, and air.\n\nIts logistics footprint is small compared with bulk minerals. The strategic constraint is processing access.\n\n## Transportation risks\n\nMyanmar-China border disruptions can cut heavy-REE feed before material reaches a formal export port.\n\nConflict in Kachin and Shan States, border closures, environmental restrictions, and licensing changes affect supply rapidly.\n\nChinese export licensing then controls access to separated Dy outside China.\n\n## How long does it store?\n\nDysprosium oxide stores for years in dry sealed packaging.\n\nMetal oxidizes and fine powders require protection from moisture and ignition sources.\n\n## Historical price behavior\n\nUSGS average dysprosium oxide prices:\n\n| Year | $/kg |\n|---|---:|\n| 2021 | $410 |\n| 2022 | $382 |\n| 2023 | $330 |\n| 2024 | $257 |\n| 2025 | $239 |\n| **Aug. 27, 2026 China domestic** | **$191.72** |\n| **Aug. 26, 2026 FOB China midpoint** | **$311** |\n\nThe declining annual averages hide the post-April-2025 split between domestic Chinese and export-market prices.\n\n## Current Price & Market — August 28, 2026\n\nSMM assessed dysprosium oxide at **$190.41–193.03/kg**, averaging **$191.72/kg** on August 27.\n\nThe FOB-China assessment on August 26 was **$285–337/kg**, midpoint **$311/kg**.\n\nThat gap is strategically important: exporters outside China's domestic system pay a different price than Chinese downstream manufacturers.\n\n**Current-price link:**  \n[Shanghai Metals Market — Dysprosium Oxide](https://www-old.metal.com/Rare-Earth-Oxides/201102250247)\n\n## Strategic risks\n\n1. **China export controls directly cover dysprosium.**\n2. **Myanmar feedstock is politically and environmentally fragile.**\n3. **Separation capacity outside China remains small.**\n4. **Defense and EV applications require temperature stability, limiting easy substitution.**\n5. **The market is small enough that modest disruptions create large price dislocations.**\n6. **Western projects must master high-purity separation as well as mining.**\n\n## What can move the market?\n\nWatch Chinese export-license issuance, Myanmar mine access, Lynas heavy-REE output, Energy Fuels construction, Iluka commissioning, EV motor design, defense procurement, grain-boundary diffusion technology, and Chinese domestic versus FOB price spreads.\n\n## Xin.bz bottom line\n\nDysprosium is a **performance insurance policy inside the world's strongest permanent magnets**.\n\nOnly small quantities are required, but those quantities protect motors and actuators from heat-driven magnetic failure.\n\nThat combination—tiny market, difficult separation, concentrated supply, and mission-critical performance—creates extreme strategic leverage.\n\n**Dysprosium is one of the clearest examples of rare-earth risk measured by function and processing concentration rather than tonnage.**\n\n## Sources / market data\n\n- U.S. Geological Survey. *Mineral Commodity Summaries 2026 — Rare Earths (Heavy)*.\n- U.S. Department of Energy. Rare Earth Permanent Magnets Supply Chain Assessment.\n- U.S. Department of Energy. Critical Materials resources.\n- Shanghai Metals Market. Dysprosium Oxide Price. 27 Aug. 2026.\n- Lynas Rare Earths. Heavy Rare Earth Separation updates.\n- Energy Fuels. “Commercial-Scale Heavy Rare Earth Plant Now Under Construction in Utah.” 29 July 2026.\n- Iluka Resources. Eneabba Rare Earth Products.\n- NioCorp. 2026 Elk Creek Feasibility Study.\n- Reuters. Myanmar heavy-rare-earth mining and China supply-chain coverage.\n\n*Price note: China domestic and FOB China prices represent different markets under the current export-control system.*"
}