Tungsten — A Complete Market Guide (2026)

Data as of 22 September 2026. Prices are quoted as multi-year and full-year averages, not a single day’s snapshot, so this report stays useful over time. Reserves, production splits, balances and historical series are estimates from agency and industry data, rounded for clarity. This report is for information only and was prepared with AI assistance — see the disclaimer at the end.

Tungsten is the metal that cuts every other metal. It has the highest melting point of any metal and, bonded to carbon as tungsten carbide, it becomes the working edge of nearly every drill bit, milling insert and mining tool on Earth — and the dense core of armour-piercing munitions. The tungsten market is also the clearest single-country market in commodities: China mines about four-fifths of the world’s tungsten and refines about 85% of its key intermediate, and in February 2025 Beijing put tungsten products under export licensing. The benchmark’s monthly average more than doubled during 2025 alone, from $331 to $862/mtu. This report is the free, big-picture primer on how the tungsten market actually works — where the metal comes from, how it is priced without an exchange, who controls it, what it is used for, and which regimes favour it. For the company-level data behind the charts — producers and developers screened by production, resources and cost — go to Metal Pilot.

TL;DR & Key Takeaways

• What it is: a heavy, grey refractory (heat-resistant, very high-melting) metal whose defining product is cemented carbide — tungsten carbide bound with cobalt — at about 64% of demand. It is consumed in use, so demand is industrial flow, not a hoard.
• Market structure: China mined about 67 kt of the world’s 85 kt of tungsten in 2025 (~79%), holds about half of world reserves, and controls about 85% of APT refining capacity. No other country mined more than 4%.
• Supply: mined for itself rather than as a by-product, but inside China only as far as Beijing’s mining quota allows; recycled scrap supplies about 35%, one of the highest shares of any metal.
• Demand story: about 128 kt W (162 kt WO₃) in 2025, growing near 2% a year on tooling for machining, mining and construction, with defence at roughly 12% and rising.
• Price regime: step-changes, not trends. The benchmark APT price averaged ~$251/mtu over 2000–2025, from ~$60 in 2000 to $223 in 2005, a $431 record in 2011, a $191 trough in 2016, ~$318 in 2024 and ~$504 in 2025 — each step set by Chinese policy.
• Biggest swing factor: Chinese state policy — the mining quota and, since February 2025, export licensing — now meeting its Western mirror image, the 1 January 2027 US ban on Chinese tungsten in defence supply chains.

Figure 1. Tungsten at a glance

Figure data: USGS Mineral Commodity Summaries 2026 for mine production and China’s share; S&P Global Tungsten Market Report , August 2026, for demand (162 kt WO₃, converted at 0.793 t W per t WO₃), refining and recycling shares; the 2025 APT average is derived from USGS monthly averages — see Section 1.3.

Why it matters now: tungsten has become the live test of what happens when the country that controls a market turns supply discipline into leverage — against defence-tilted demand that barely responds to price, and a Western supply chain only now being rebuilt. Supply-policy squeezes have favoured the metal every time; Chinese slowdowns have punished its miners.

How to read this guide: new to tungsten? Read straight through from Section 1. Here for the investment case? Jump to Section 4 — how to own it, how to screen the miners, and which regimes favour the metal. Every technical term is defined in the Vocabulary (Section 7).

1. Tungsten & the market basics

1.1 What tungsten is — physical basics & quality

Tungsten (chemical symbol W, from its old name wolfram) is a dense, steel-grey metal with the highest melting point of any metal, about 3,422 °C, and a density of about 19.3 g/cm³ — the same as gold. Those two numbers explain almost all of its uses. Combined with carbon it forms tungsten carbide (WC), harder than any steel; sintered — fused under heat, below melting point — with a few percent of cobalt as a binder, it becomes cemented carbide (or “hardmetal”) — the cutting inserts, drill bits, mining picks and wear parts that machine, drill and dig through everything else. Added to steel it makes high-speed and tool steels that keep their edge when red-hot; drawn into wire it becomes filaments, electrodes and, lately, the ultra-fine saw wire that slices solar wafers; alloyed with nickel and iron it becomes tungsten heavy alloy, used for counterweights, radiation shielding and kinetic-energy penetrators. Small tonnages go into chemicals, catalysts and the tungsten hexafluoride gas that lays down metal layers in semiconductor chips.

Tungsten’s quality story starts with two ore minerals, each defined here once and used throughout this report:

• Wolframite — an iron-manganese tungstate, (Fe,Mn)WO₄, dark and heavy, found mostly in quartz veins around granites. It separates by gravity, which makes it cheap to concentrate and easy for small and artisanal (hand-dug) miners to work.
• Scheelite — a calcium tungstate, CaWO₄, found mostly in skarns, the altered rock that forms where a hot granite meets limestone. It is recovered by flotation, a finer, reagent-heavy process, but scheelite deposits tend to be larger.

Ore grades are low: most mines work rock at roughly 0.15–0.75% WO₃ (tungsten trioxide, the unit in which tungsten content is measured). The mill upgrades it to a standard concentrate of about 65% WO₃, the traded mine product. A chemical plant then dissolves the concentrate and crystallises ammonium paratungstate (APT) — the white intermediate, at least 88.5% WO₃, that is the market’s price reference. APT becomes tungsten oxide, then tungsten metal powder and tungsten carbide powder. A parallel route smelts concentrate directly into ferrotungsten, an iron-tungsten alloy for steelmakers; a third runs backwards, reclaiming worn carbide by the zinc process (molten zinc swells the cobalt binder so the carbide can be crushed back to powder) or chemically back to APT.

Figure 2. The tungsten value chain — primary route

Source: USGS Minerals Yearbook 2021: Tungsten process notes and ITIA supply descriptions; conceptual diagram. The steel route (concentrate smelted to ferrotungsten) and the recycling route (scrap reclaimed back to APT and powder) branch off this chain and are described in the text above.

1.2 Units & measurement conventions

This report uses one volume convention throughout, stated here so every later number is unambiguous: tungsten quantities are metric tonnes (t) and thousand tonnes (kt) of contained tungsten (W) — the pure-metal content inside ore, concentrate, APT or scrap — mirroring the U.S. Geological Survey (USGS). The industry itself counts in tungsten trioxide (WO₃), because that is how concentrate is assayed, so mines and company filings report in t WO₃ or mtu, while China’s quota counts tonnes of 65% concentrate. The conversion is fixed by chemistry: 1 t WO₃ = 0.793 t W, and 1 t W = 1.261 t WO₃. Where a source reports WO₃, this report converts it to t W and says so beneath the table.

Prices use the market’s own unit, the metric tonne unit (mtu): 1% of a tonne, or 10 kg of WO₃, containing 7.93 kg of tungsten. APT and concentrate are quoted in US dollars per mtu of WO₃ ($/mtu). To convert, divide by 7.93 for dollars per kilogram of tungsten: the 2025 average APT price of about $504/mtu is about $64 per kg W, or $63,600 per tonne. China’s domestic market quotes in yuan per tonne of APT or of 65% concentrate, and China’s mining quota counts tonnes of 65% WO₃ concentrate (Section 2.7).

Flow and stock are kept separate throughout: production, demand, quotas and trade are flows per year; reserves (over 4.7 Mt W worldwide) and stockpiles are levels at a point in time.

Table 1. Tungsten units and conversions

Source: USGS Minerals Yearbook 2021: Tungsten (the mtu definition and the 79.3% tungsten content of WO₃); Fastmarkets APT specification (88.5% WO₃ minimum); USGS Mineral Commodity Summaries 2026 for world production. Grades are typical ranges from the mine studies cited in Section 2.1, not specifications.

Numbers intuition: the world mines about 85 kt of tungsten a year — roughly a quarter of cobalt’s tonnage and a fraction of a percent of copper’s. At the 2025 average APT price that is about $5.4 billion of contained metal — less than a single large gold miner’s annual revenue, and precisely why one government’s decisions move it so far. A large tungsten mine produces 2,000–7,000 t W a year; a carbide cutting insert weighs a few grams.

1.3 Pricing & benchmarks

Tungsten has no exchange. The London Metal Exchange lists no tungsten contract, and although Chinese exchanges have studied yuan-denominated APT and concentrate futures for years, none has launched. The price is therefore assessed: price-reporting agencies survey buyers and sellers and publish a range. The global reference is APT, at least 88.5% WO₃, delivered CIF Rotterdam and Baltimore (cost, insurance and freight paid to those ports; assessed by Fastmarkets, which absorbed the old Metal Bulletin series) or in-warehouse Rotterdam (Argus). Mine concentrate is quoted on the same per-mtu basis and has traded at roughly four-fifths of APT: the USGS reports Rotterdam concentrate rising from $266 to $551/mtu during 2025 as APT rose from $331 to $675 — figures compiled before the year closed. In practice most concentrate is sold on offtake contracts — multi-year sales agreements — priced off an APT assessment, often with a floor.

Since 2025 there is a second price that matters as much as the first: China’s domestic price. With exports under licence, Chinese APT and concentrate trade behind a wall, in yuan. For reference only — a dated snapshot of a market in upheaval, not a number to plan on — in June 2026 trade sources put Chinese domestic APT near $1,200–1,300/mtu, while Fastmarkets assessed APT in Rotterdam at $2,900–3,210 on 19 June: the same chemical, two prices — a two-tier market — and a gap that is, in effect, the market value of an export licence. A reader who quotes “the tungsten price” now has to say which side of the wall it is on.

Table 2. Key tungsten benchmarks & price markers

Source: Fastmarkets and Argus assessment specifications, 2026; concentrate-to-APT moves per USGS Mineral Commodity Summaries 2026 ; the June 2026 China–Rotterdam gap per Fastmarkets , 29 June 2026.

The long-run price story is a staircase, and every step was built in Beijing. APT averaged ~$60/mtu in 2000 and ~$54 in 2002, the tail of a glut. In 2005 it jumped 165% to $223 and held near $250 through 2008 — high prices the USGS attributed to “the success of the Chinese Government in controlling that country’s production and exports”, through export quotas, export taxes and a national mining quota. After a recession dip to $203 in 2009, Chinese growth and export restrictions drove APT to a record annual average of $431 in 2011. The next step was down: a Chinese slowdown and destocking — buyers running down inventories instead of buying — took it to $191 in 2016, when concentrate fell below most Chinese miners’ production costs. The recovery to $311 in 2018 faded to $218 in 2020, and APT then spent 2022–2024 flat near $316–338. Across 2000–2025 the average was ~$251/mtu.

Then came the steepest step on record. China’s export licensing, introduced on 4 February 2025, lifted the monthly European APT average from $331 in January 2025 to $862 in December, putting the 2025 annual average at ~$504 — and the climb continued into 2026 (the June 2026 reference prices are given above).

Table 3. Average annual APT price, 2000–2025 (USD/mtu WO₃, European market)

Source: USGS Minerals Yearbook, Tungsten , Table 1, for 2000–2021, compiled from the 2002, 2006, 2009, 2011, 2014, 2019, 2020 and 2021 editions, using the latest vintage for each year; 2022 and 2023 are the low end of Metal Bulletin’s European APT range as printed in Masan High-Tech Materials’ Annual Report 2023 , p.19, and 2024 is Masan’s own estimate (Masan Group , September 2025), as the USGS has not yet published those years; low-of-range values may sit slightly below the mid-range prices used for other years. The USGS series runs on Metal Bulletin’s European free-market APT to 2016 and, as revised in the 2021 edition, on Argus in-warehouse Rotterdam for 2017–2021; the earlier editions’ Metal Bulletin/Fastmarkets values for 2017–2020 differ from it by no more than $7. 2025 is derived: the mean of the twelve monthly European APT averages in the USGS Mineral Industry Surveys , January–December 2025. The quotation on Chinese controls is from the USGS Minerals Yearbook 2006 ; the 2015–16 cost remark from the 2015 edition .

Figure 3. APT price, annual averages 2000–2025 (USD/mtu)

Figure data: Table 3. Thirteen years selected from the full 2000–2025 series to carry the glut, the three policy steps, the 2011 peak and the 2016 trough.

2. Supply, demand & the market balance

2.1 Where tungsten is mined — deposits & geology

Tungsten’s geography follows its geology: it is concentrated around highly evolved granites, whose last, fluid-rich melts carry tungsten out into the surrounding rock. Where those fluids flowed through fractures they left wolframite-quartz veins; where the granite met limestone they built scheelite skarns; where the granite’s own roof was altered they formed greisens and sheeted-vein stockworks — low-grade, bulk-mineable systems such as Hemerdon in England. The richest granite province on Earth is southern China’s Nanling Range, running through Jiangxi, Hunan and Guangdong, home to the world’s largest deposits: Zhuxi in Jiangxi, with about 2.7 Mt of contained tungsten, Dahutang (about 1.0–1.5 Mt, depending on the estimate ) and Shizhuyuan (about 0.5 Mt still in the ground). These are geological resources, converted from WO₃, not the economically mineable reserves counted in Table 9. Outside China the giants are few — Tyrnyauz in Russia’s Caucasus (about 0.67 Mt originally, 0.42 Mt remaining), Mactung on the Yukon–Northwest Territories border (about 0.24 Mt indicated), and a large undeveloped Kazakh resource seeking US finance (Section 5.2).

The result: China mined an estimated 67 kt of tungsten in 2025, about 79% of the world’s 85 kt, with Vietnam a distant second at 3.0 kt and nobody else above 3%. The newest name on the list is Kazakhstan, which went from zero to 2.4 kt in a single year when the Boguty (Bakuta) mine started in 2025 — the largest single addition to non-Chinese supply in a decade. South Korea does not yet appear: its Sangdong mine only reached commercial operation in September 2026.

Table 4. Leading tungsten-mining countries, 2024–2025 (t W)

Source: USGS Mineral Commodity Summaries 2026: Tungsten , January 2026. Figures are USGS estimates in tonnes of contained tungsten, rounded; the listed rows sum to 81,610 t (2024) and 85,140 t (2025) against the USGS’s rounded world totals, and shares are computed against the rounded 85,000 t. South Korea carries no USGS row because Sangdong had not yet produced in 2025.

Figure 4. Leading tungsten-mining countries, 2025 (kt W)

Figure data: Table 4. Values are in thousand tonnes; “Rest of world” is the residual of the rounded 85,000 t world total after the seven named countries, and covers Australia, Austria, Spain, Portugal and the USGS “other countries” line.

At the asset level the picture splits in two. Inside China, output comes from dozens of state-controlled underground mines grouped under a handful of champions — China Minmetals (whose listed arm runs the Shizhuyuan polymetallic, or several-metal, mine in Hunan), Xiamen Tungsten and the provincial Jiangxi Tungsten Industry Group (Section 3.1). Outside China, the list is short enough to name almost every meaningful mine: Nui Phao in Vietnam, the largest outside China for a decade; Bakuta in Kazakhstan, opened in 2025; Sangdong in South Korea, once one of the world’s largest tungsten mines, which closed in the early 1990s under a flood of cheaper Chinese supply (KEI ) and reopened in 2026; and a clutch of European and Australian operations each producing well under a kilotonne. The next wave — Hemerdon in England, Pilot Mountain in Nevada, Mactung in Canada — is covered in Section 5.

Table 5. Major tungsten mines & operations (approximate annual output, t W)

Source: Chinese capacities from China Galaxy Securities on China Tungsten High-Tech (30 December 2025) and Xiamen Tungsten’s 2025 annual report summary , stated as tonnes of 65% concentrate a year — Shizhuyuan 8,000 t, Yuanjing 2,600 t, the three managed mines ~14,000 t (an analyst estimate) and Xiamen 12,000 t — and converted; Shizhuyuan’s remaining resource (513,524 t WO₃ plus 65,044 t at Chaishan, end-2022) per the same Galaxy report; Bakuta from Jiaxin’s 2025 output of 5,008 t of 65% concentrate in its FY2025 annual results announcement and its full rate of 10,000 t of concentrate a year per a Guosen Securities estimate; Sangdong from Almonty’s October 2025 investor presentation (Phase I 230,000 mtu, i.e. ~2,300 t WO₃ a year; Panasqueira ~58,750 mtu capacity) and its 21 September 2026 release on commercial operation — a March 2026 release describes the same rates as tonnes of concentrate, which would be about a third lower in contained metal; Barruecopardo from EQ Resources’ March 2026 quarterly (two quarters, 51,176 mtu, annualised); Dolphin from Group 6 Metals’ June 2026 quarter (21,297 mtu, annualised); Nyakabingo from Trinity Metals (over 100 t a month of 65–70% concentrate); Hemerdon from Tungsten West’s 2025 development plan (332,000 mtu a year at steady state); Nui Phao and Mittersill carry their USGS country totals. All figures are converted from WO₃ or concentrate at 0.793 t W per t WO₃ and mix capacity, run-rate and actual bases as labelled — treat them as indicative.

2.2 Demand & consumption

Tungsten demand is a machining story with a defence tail. World first-use demand — the tungsten that enters the first processing step, including recycled scrap — was about 162 kt of WO₃ in 2025, or about 128 kt W (the S&P Global outlook is in Section 5.1). The long-run pace has been steady rather than spectacular: the International Tungsten Industry Association (ITIA) puts compound growth at about 3.4% a year from 2007 to 2020.

Cemented carbides take about 64% of demand, and the end markets behind them explain the cycle: by industry, the ITIA puts transport and mining and construction at about 26% each, with machinery, chemicals, consumer durables, defence (8% in 2021, on the ITIA’s industry basis), energy and medical sharing the rest. Every engine block machined and every well or tunnel drilled consumes carbide, which makes tungsten demand a proxy for global manufacturing and mining. Mill products take about 15%, steels and alloys about 13% and chemicals about 6%.

Table 6. Global tungsten demand by first use, 2025 (share of demand)

Source: S&P Global Tungsten Market Report , August 2026 — first-use demand of ~162 kt WO₃ in 2025 and its end-use split. Volumes are derived from that total and converted at 0.793 t W per t WO₃, rounded. The ITIA’s own split — carbides 65%, steels and superalloys 14%, mill products 12%, chemicals and other 9% — per its applications page is consistent.

Figure 5. Global tungsten demand by first use, 2025

Figure data: Table 6.

Three newer demand streams matter more to the price than their tonnage suggests, because none of them cares much what tungsten costs. Defence — tungsten heavy-alloy penetrators, armour, fragmentation munitions — is about 12% of the market today, and consultancy Project Blue expects it to reach about 15% by 2027–28 (Reuters , April 2026, as republished by Mining.com; Project Blue’s data are private). Solar-wafer cutting wire, which replaced steel wire in slicing silicon because tungsten wire can be drawn thinner, grew from almost nothing to an estimated 4,500 t in 2025, with Guosen Securities forecasting about 7,600 t by 2027. And semiconductors consume tungsten hexafluoride (WF₆) gas, a market of 8,000–9,000 t a year whose Chinese prices had risen more than 200% by April 2026, with two Japanese producers set to stop output (TrendForce , June 2026).

Where tungsten is consumed depends on how you count. Measured at first use — where concentrate and scrap are processed — China consumed 67% of world supply in 2021, recycled material included. Measured at final end use — where the finished tool or part is used — China falls to 36%, with Europe at 20% and North America at 17%. The gap is China’s processing-for-export business: it turns the world’s tungsten into powder, carbide and tools and ships them abroad. China’s own reported consumption was about 71 kt in 2024, of which 58% went into cemented carbide, per Antaike data quoted by Guosen Securities. The one clean Western datapoint is American: about 60% of US tungsten goes into cemented carbide parts.

Table 7. Tungsten consumption by region, first use vs final end use (2021)

Source: final end-use shares from the ITIA , 2021; China’s 67% first-use share is the ITIA figure cited in the USGS Minerals Yearbook 2021: Tungsten (published 2025); US shares from USGS Mineral Commodity Summaries 2026 . No agency publishes first-use consumption by region outside China, hence “n/d”; the ITIA’s own regional grouping is used because no source splits tungsten use on the standard seven-region basis. Japan’s APT share per Fastmarkets , 9 January 2026.

Substitution is real but slow and expensive. The USGS lists ceramics, cermets (ceramic-metal composites), tool steels and other carbides for cutting tools, molybdenum for some steels and mill products, and depleted uranium or hardened steel for penetrators — but “in some applications, substitution would result in increased cost or a loss in product performance”. LEDs have all but eliminated the incandescent filament, once a signature use, without denting total demand. At 2026’s prices the likelier response is thrifting — using less tungsten per part — and recycling rather than abandoning tungsten.

2.3 Supply: production and reserves

World tungsten mine production roughly doubled between 2000 and 2015, from 44 kt to about 84 kt, as China industrialised and new mines opened in Vietnam, Canada and Europe — and then stopped growing for a decade. Output hovered between 78 kt and 85 kt from 2015 to 2025, held there by China’s mining quota at home and by a decade of prices too low to finance new mines abroad. China’s share has drifted down from about 86% in 2005–2010, less because China shrank than because new mines opened outside it.

Table 8. World and Chinese tungsten mine production, selected years (t W)

Source: USGS Minerals Yearbook, Tungsten , Table 15, from the 2004, 2009, 2014, 2019 and 2021 editions for 2000–2021; 2022 from the USGS Open-File Report 2025-1032 citing the Mineral Commodity Summaries 2024 (79,770 t, rounded here); 2023 from MCS 2025 ; 2024–25 from MCS 2026 . Each year uses the most recently revised vintage. Chinese figures are heavily revised between editions — 2015 was first printed at 73,000 t and later cut to 67,000 t — so shares are indicative. Years are chosen at five-year steps to 2015 and every second year thereafter.

Figure 6. World tungsten mine production, selected years (kt W)

Figure data: Table 8.

Reserves tell a subtly different story. China holds 2.5 Mt of the world’s more than 4.7 Mt of tungsten reserves — about 53% — while producing 79% of mine supply: it has been mining its endowment far faster than everyone else. Australia is second at 570 kt (of which only 220 kt is JORC-compliant, i.e. reported under Australia’s reserve code), then Russia at 400 kt and Vietnam at 170 kt. At 85 kt a year, world reserves imply a reserve life of about 55 years. Tungsten is not geologically scarce; what is scarce is tungsten outside China that has been permitted, financed and built.

Table 9. Tungsten reserves by country, 2025 (t W)

Source: USGS Mineral Commodity Summaries 2026: Tungsten , January 2026. Reserves are estimates of economically mineable material and are revised annually; the listed rows sum to about 4.7 Mt. Australia’s JORC-compliant reserves are about 220,000 t within the 570,000 t figure. Bolivia, Kazakhstan and Rwanda have no reported reserve figure despite producing.

2.4 The supply–demand balance

Tungsten has no exchange, no warehouse stocks and no agency that publishes an audited annual balance, so the balance has to be read indirectly: from a supply-and-demand reconciliation, from published estimates, and — most tellingly — from China’s trade.

The structural balance is close to flat. In 2016, at the bottom of the last cycle, USGS mine output plus scrap exceeded first use by roughly 7 kt W. The ITIA’s own flow account balances by construction — it counts 71 kt of primary feed, not 78 kt — so the gap is unrecorded stocking or statistical mismatch rather than a measured surplus, though it fits the weak prices of 2015–16. By 2025, demand of about 128 kt W was met by 85 kt of mine supply and roughly 45 kt of scrap, arithmetic that balances within the error of the estimates. The published forecasts lean to deficit (Table 11).

Table 10. Tungsten supply & demand, 2016 and 2025 (kt W)

Source: 2016 first use, primary feed and scrap from the ITIA Newsletter, May 2018, “Recycling of Tungsten” ; 2016 mine production from the USGS Minerals Yearbook 2020 , Table 15, and 2025 from MCS 2026 ; 2025 demand from S&P Global (162 kt WO₃, converted), with recycled supply at its stated ~35% of demand. The balance is derived arithmetic across sources of different vintage and method — read it as “roughly balanced”, not as a measured surplus.

Table 11. Published tungsten balance estimates

Source: Almonty investor presentation , October 2025, citing the Sangdong technical report under Canada’s NI 43-101 reporting code (the tonnage basis, W or WO₃, is not stated); Guosen Securities , 30 July 2025; S&P Global , August 2026. These are forecasts and company-sourced estimates on three different bases; they are shown together for direction, not to be added or compared.

China’s trade is the best balance indicator there is. For decades China exported tungsten concentrate and APT to the world. By 2025 it had become the world’s largest importer of concentrate: imports rose about 205% between 2023 and 2025, to roughly 21 kt of concentrate in 2025 (about 11 kt W at 65% grade), drawn increasingly from Myanmar, Kazakhstan and Africa, while its concentrate exports fell to zero (Fastmarkets , September 2026; the 2025 tonnage is Chinese customs data as reported by SMM ). A country that mines four-fifths of world supply and still buys abroad is saying, better than any forecast, that its mines no longer cover its processing.

Where the shock absorbers sit. Tungsten’s buffers are all opaque. Chinese producers’ and traders’ stocks are unpublished and were described as the lowest in nearly three years at the start of 2026 (Fastmarkets ). Government stockpiles exist but disclose little: the US National Defense Stockpile’s plan for fiscal 2025 allowed purchases of up to 2,041 t of tungsten — under a week of world demand (USGS ) — and in September 2026 the Defense Logistics Agency gave the processor Elmet a stockpile supply contract with a ceiling of up to $2 billion, $150 million of it guaranteed (Elmet ); Japan’s state minerals agency, JOGMEC , keeps a rare-metals stockpile; China’s state reserve is unpublished. With no visible cushion, prices can move very far, very fast.

2.5 Supply structure: primary, co-product & recycled

This is where tungsten parts company with cobalt. Tungsten is overwhelmingly a primary metal: mines are built for it, and the metals that come out alongside it — tin, molybdenum, bismuth, copper, fluorspar — are by-products: credits that ride on the tungsten output, not co-products that share the mine’s economics, and not the reason the mine exists. Shizhuyuan yields tin, molybdenum and bismuth; Nui Phao also produces fluorspar, copper and bismuth; Panasqueira and Hemerdon carry tin. In principle this makes mine supply responsive to the tungsten price. In practice the response is slow — Sangdong took about a decade from acquisition to commercial production — and the largest block of supply, China’s, answers to a quota before it answers to price.

Recycling is the second pillar, and the price-elastic one. Roughly 35% of tungsten supply comes from scrap, which makes tungsten one of the most recycled of all metals. In 2016 the ITIA counted 8.5 kt W of new (production) scrap and 29 kt of old (end-of-life) scrap. Cemented carbide is the reason: a worn insert is typically 80–95% tungsten carbide, easy to identify and valuable, and industrial recycling of cutting inserts exceeds 95% where collection systems exist. Across all end uses, though, only about 30% of end-of-life tungsten is recovered — the rest is lost in dissipative uses such as chemicals, in small parts that are never collected, and in steel scrap where tungsten becomes an unrecovered alloying element. That gap is the recycling industry’s upside: at 2026’s prices, the scrap that was not worth collecting at $300/mtu is worth chasing at several times that.

The artisanal slice sits between the two. In Rwanda, eastern DRC, Bolivia and Myanmar, hand-dug and small-scale wolframite rises and falls with price and is the main supply channel for the conflict-minerals rules discussed in Section 4.5.

Table 12. Tungsten supply by origin, 2025

Source: mine output from USGS Mineral Commodity Summaries 2026 ; recycled share per the ITIA and S&P Global (~35% of demand); 2016 scrap split and carbide recycling rates from the ITIA Newsletter, May 2018 . Shares are restated on a total-supply basis of about 130 kt W and rounded; volumes are derived. Elasticity ratings are qualitative.

Figure 7. Tungsten supply by origin, 2025

Figure data: Table 12.

2.6 Trade flows & the chokepoints

Tungsten has no Strait of Hormuz. Its chokepoints are three, and each binds harder than a sea lane would.

First, conversion. Whoever mines the concentrate, it must become APT, oxide or powder before anyone can use it, and China holds about 85% of the world’s APT refining capacity. Fastmarkets puts China’s tungsten processing capacity — all stages, on an unstated tonnage basis — above 200,000 t a year against less than 20,000 t in the rest of the world. The non-Chinese converters fit on one hand — Masan in Vietnam, Wolfram Bergbau und Hütten (WBH) in Austria, H.C. Starck in Germany (Mitsubishi Materials since December 2024) and Global Tungsten & Powders (GTP) in Pennsylvania, which is expanding oxide capacity toward about 12,000 t a year — and a Western mine needs one of them as a customer.

Second, the licence. Since 4 February 2025, exports of APT, tungsten oxides, certain tungsten carbides, certain solid tungsten forms, tungsten heavy alloys and the related technology have required a licence from China’s Ministry of Commerce (MOFCOM). Only 15 companies are authorised to export tungsten in 2026–27, and in January 2026 Beijing barred all dual-use exports — goods with both civilian and military uses — to Japanese military end users. The effect on flows was drastic: China exported just 243 t of APT in January–November 2025, 57% of it to Japan. When China suspended several other mineral controls in November 2025 after its trade truce with the United States, the tungsten licensing regime was not among them. It is the playbook China applied to rare earths two months later: control the processed product, not the ore.

Third, the raw-material pipe into China. With its own mines capped, China now pulls concentrate in from Myanmar (6.2 kt in January–July 2026, nearly double a year earlier), from Kazakhstan’s new Bakuta mine at roughly 0.8–1.1 kt a month, and from African producers. The United States sits at the other end of the chain: no mine since 2015, net import reliance above 50%, and imports in 2025 of about 1.7 kt W as concentrate and 10 kt W in other forms, historically led by China (26%), Germany (14%), Bolivia and Vietnam (8% each). One small Rwandan mine now supplies up to a fifth of US primary concentrate consumption.

Table 13. Tungsten trade roles, volumes & chokepoints

Source: USGS Mineral Commodity Summaries 2026 for mine output, US trade, import sources (2021–24) and import reliance; S&P Global for APT capacity share; Fastmarkets (22 June 2026) for processing capacity and Kazakh flows, Fastmarkets (22 September 2026) for Myanmar and Fastmarkets (9 January 2026) for APT exports; MOFCOM Announcement No. 10 of 2025 for the licensed items; the 15-exporter list per Reuters , April 2026; the November 2025 suspensions per MOFCOM Announcements No. 70 and No. 72 of 2025, neither of which covers No. 10; Rwanda per Trinity Metals , June 2026. China’s 2025 concentrate imports are customs data as reported by SMM . Fastmarkets’ processing-capacity tonnages state no basis and cover more than APT, so they do not reproduce S&P Global’s 85% APT share. Tungsten has no broad set of exporters and importers to rank, so this table stands in for separate exporter and importer tables.

Figure 8. APT refining capacity, China vs rest of world

Figure data: S&P Global , August 2026 (share of APT refining capacity).

2.7 Market organisations & supply coordination

Tungsten has no cartel and no producers’ club with quotas. It does not need one: one state, acting as a single seller, has coordinated the market for two decades, with four levers.

The first is the mining quota. China’s Ministry of Natural Resources caps the tonnage of tungsten concentrate its mines may produce each year, in batches: 59,060 t in 2006, 111,000 t in 2023 and 114,000 t in 2024 (62,000 t in the first batch, 52,000 t in the second). The 2025 first batch was cut 6.45% to 58,000 t; the 2026 first batch, issued in March, rose about 3.45% to roughly 60,000 t, even as some provinces, such as Guangdong, cut theirs by about 10%. In tungsten terms, 114,000 t of 65% concentrate is about 58,800 t W — well below the USGS’s 67,000 t estimate of Chinese output, a gap that reflects either production beyond the quota or statistics that do not reconcile, and a reason to read Chinese tonnages with care.

The second is trade policy: export quotas and duties until the World Trade Organization ruled against them in 2014 (a case over rare earths, tungsten and molybdenum), and since 2025 their successor, licensing framed as national-security export control. The third is consolidation into a few champions — China Minmetals, Xiamen Tungsten, the Jiangxi Tungsten Industry Group — which makes enforcement practical. The fourth, smaller, is the unpublished state reserve.

On the other side, coordination is only now forming, and it runs through procurement rather than supply. The US defence procurement rule DFARS 252.225-7052 — a clause of the Defense Federal Acquisition Regulation Supplement — already bars Chinese, Russian, North Korean and Iranian tungsten powder and heavy alloy from Defense Department supply chains, and from 1 January 2027 extends the ban back to the mining, refining and recycling of the material itself. Washington also raised tariffs under Section 301 of the Trade Act of 1974 on certain Chinese tungsten products to 25% from January 2025 and has started paying for supply — Defense Production Act grants to Mactung and Pilot Mountain, letters of interest from its export-credit and development-finance agencies for a Kazakh joint venture and, in September 2026, a $450 million investment in the processor Elmet through redeemable preferred equity and warrants. The EU named three tungsten projects among its first 47 strategic projects and shortlisted tungsten for its first joint stockpile. The International Tungsten Industry Association (ITIA), founded in 1988, publishes data; it sets nothing.

Table 14. Who shapes the tungsten market

Source: quota figures per USGS Minerals Yearbook 2006 (2006), Reuters via Mining Weekly (2023), the MNR 2024 notice as reposted by a municipal government (2024), China Nonferrous Metals News (2025 first batch) and SMM (Guangdong 2026), with the 2026 national first batch per SMM’s analysis as republished by Sina Finance , May 2026; the WTO case per USTR ; DFARS 252.225-7052 ; USTR Section 301 tariffs , December 2024; US financing per Fastmarkets , April 2026, and Elmet , September 2026; EU projects per the European Commission , March 2025, and stockpiling per Reuters (syndicated copy ), May 2026 — no official EU document names tungsten; ITIA .

3. The companies & the value chain

3.1 The largest tungsten companies

The tungsten league table has two halves that barely overlap. The first is Chinese and state-linked. China Minmetals, through its listed arm China Tungsten High-Tech Materials, controls Shizhuyuan and, since December 2025, Yuanjing, and manages three more Minmetals mines — together more than 12 kt W a year of concentrate output — plus about 15,300 t a year of APT capacity. Xiamen Tungsten mines about 6 kt W a year and is one of the largest makers of APT and tungsten powder. The Jiangxi Tungsten Industry Group is state-owned and discloses little; Zhangyuan Tungsten, also in Jiangxi, describes itself as China’s largest tungsten-powder producer. These companies are integrated from mine to powder, which means their earnings depend as much on conversion margins and state quotas as on the tungsten price.

The second half is the non-Chinese miners, which are small, few and newly important. Masan High-Tech Materials runs Nui Phao in Vietnam. Jiaxin International, whose largest shareholder is Jiangxi Copper, opened Bakuta in Kazakhstan in 2025. Almonty Industries owns Panasqueira in Portugal and Sangdong in Korea, and has moved its headquarters and main listing to the United States. EQ Resources runs Barruecopardo in Spain and Mt Carbine in Australia. Sandvik, the Swedish tool-maker, owns Mittersill and Europe’s integrated tungsten smelter through Wolfram Bergbau und Hütten — a consumer that bought its own supply. Behind them sit the Western processors and recyclers — Plansee’s Global Tungsten & Powders, Mitsubishi Materials’ H.C. Starck and Kennametal — and a developer tier led by Tungsten West, Guardian Metal and Fireweed Metals.

Table 15. Leading tungsten producers, processors and developers (approximate)

Source: Chinese capacities per China Galaxy Securities (30 December 2025: own mines Shizhuyuan and Yuanjing, acquired 12 December 2025, 10,600 t of concentrate a year; the three managed mines an analyst estimate of ~14,000 t; the company puts all five at 26,000–27,000 t, or ~13.4–13.9 kt W), Xiamen Tungsten and Zhangyuan Tungsten 2025 annual reports, converted from 65% concentrate; Masan’s sale of H.C. Starck per Masan High-Tech Materials , 18 December 2024; Almonty per its September 2026 release and TSX delisting notice ; EQ Resources per its March 2026 quarterly ; GTP per Plansee , May 2026; Guardian per its pre-feasibility study (1,990 t WO₃ a year), June 2026; other rows as in Table 5. Listing notes: China Tungsten High-Tech is controlled by state-owned China Minmetals; Jiaxin’s largest shareholder is the state-controlled Jiangxi Copper; Almonty established a US headquarters and left the TSX in July 2026 and the ASX in September 2026 (TSX and ASX notices). Country is the head-office country, not the location of the mines. Output figures mix capacity, design and actual bases as labelled and are author conversions from WO₃ — indicative only. No market-capitalisation figures are shown by design.

Figure 9. Approximate tungsten mine output by company (kt W a year)

Figure data: Table 15. China Minmetals combines China Tungsten High-Tech’s own mines (Shizhuyuan and Yuanjing) with the three it manages (an analyst estimate); Almonty combines Sangdong’s Phase I design rate with Panasqueira’s capacity; Masan and Sandvik carry their USGS country totals; Jiaxin is 2025 actual and EQ Resources an annualised run-rate. The Jiangxi Tungsten Industry Group, likely among the largest, is omitted because it discloses no output.

3.2 Company archetypes along the value chain

Tungsten exposure comes in six shapes, and they respond to the price in opposite directions. Explorers and developers — Hemerdon, Pilot Mountain, Mactung — are options on a Western supply chain, with extreme price sensitivity and the added binary of financing. Pure-play miners outside China — Almonty, EQ Resources, Jiaxin, Masan’s mining arm — have no host metal to fall back on, so the tungsten price is almost the whole equity story. Chinese integrated majors are cushioned by conversion, product sales and state direction, and their domestic price now sits well below the export price. Converters and powder makers earn a spread between concentrate and APT or powder, which scarcity can squeeze. Recyclers gain when prices rise, because scrap becomes worth collecting. And carbide and tool makers — Sandvik, Kennametal — are consumers: a higher tungsten price is a cost they must pass on, not a windfall. Royalty and streaming exposure — rights to a share of a mine’s revenue or output, bought upfront — is a staple in gold but barely exists in tungsten.

Table 16. Tungsten company archetypes

Source: company filings and the Metal Pilot project-type taxonomy, 2026.

3.3 Infrastructure & balance-sheet assets

Reading a tungsten company’s accounts starts with the resource and reserve statement — ore tonnes, grade in % WO₃ and contained metal, usually in mtu or tonnes of WO₃, under the Australian (JORC), Canadian (NI 43-101) or US (S-K 1300) reporting codes. Grades are low and vary widely: Hemerdon’s reserve runs at 0.15% WO₃, Sangdong’s at 0.42%, Mactung’s resource at 0.73%. Because tungsten is often intergrown with tin, molybdenum or fluorspar, metallurgical recovery — how much of the tungsten in the rock reaches the concentrate — is the number that separates a good deposit from a geological curiosity; Sangdong’s plan assumes 85%.

The physical assets are the mine (open pit or, more often, underground), a concentrator using gravity for wolframite or flotation for scheelite, and — for the integrated companies — an APT plant and powder and carbide lines. Two contract assets matter as much as the plant. Offtake agreements usually price concentrate as a percentage of APT, often with a floor: Almonty’s Sangdong offtake with Global Tungsten & Powders covers at least 210,000 mtu a year with a floor linked to an APT price of $235/mtu. And in China, quota allocations and export licences are assets in their own right — the difference between selling at the domestic price and the export price.

Table 17. Tungsten-company asset types and metrics

Source: company reserve statements (JORC / NI 43-101 / S-K 1300) and annual reports, 2025–2026; Sangdong offtake terms per Almonty , July 2026, and its October 2025 presentation ; Hemerdon and Sangdong grades per the company documents cited in Table 5, and Mactung’s per Fireweed Metals , June 2023.

4. Investing in tungsten

4.1 Ways to own it — exposure vehicles

Tungsten is the rare commodity with no financial instrument at all. No exchange lists a futures contract (Section 1.3), and there is no tungsten exchange-traded fund (ETF) or exchange-traded commodity, physical or futures-based. That absence has one consequence worth stating plainly. The trap that hurts most retail buyers of commodity funds — a futures-based product must roll expiring contracts, and in contango (futures priced above spot) every roll sells cheap and buys dear, a drag that compounds over time, as oil-tracking funds found in 2020 (worked through in the oil guide ) — cannot hurt a tungsten investor, because no such product exists. If one is ever launched on a market this thin and opaque, that drag would be the first thing to check.

Physical ownership is impractical. APT is an industrial chemical, not a store of value: there is no vaulting market, no standard bar, and since 2025 the value of a tonne depends on which side of China’s export wall it sits. That leaves equities, and the choice among them is a choice of exposure, not just of company. Chinese integrated majors give volume but price off the domestic market and carry quota and policy risk; some of their mainland-listed A-shares are open to foreign investors through the Stock Connect trading links with Hong Kong. Non-Chinese miners give leverage to the export price, because largely fixed costs make their profits swing more than their revenue — operating leverage. Developers give optionality on a Western supply chain. Processors, recyclers and tool-makers give exposure to the theme with the price risk partly hedged — or reversed.

Table 18. Ways to own tungsten

Source: the LME’s metals list (no tungsten contract); the status of Chinese futures research per Chinatungsten Online , November 2025; company structures per the filings cited in Table 15. Structural attributes only — no fees, prices or yields, which change.

4.2 How to value & screen tungsten producers

Screening tungsten miners starts with geology and ends with contracts. Grade and contained metal set the size of the prize, but at these grades the difference between a good and a bad deposit is usually metallurgical recovery and concentrate quality — free of the arsenic, tin or molybdenum that buyers penalise. Then comes cost per mtu, the tungsten equivalent of all-in sustaining cost (AISC). Company studies put the best new mines very low — Almonty estimates Sangdong’s production cost near $127/mtu, and Hemerdon’s 2025 plan an AISC of about $144–167/mtu — while a small Australian operation such as Mt Carbine reported nominal cash costs — running costs before capital spending — of $700 and above per mtu in recent quarters, and Guardian’s Pilot Mountain study assumes an AISC of US$58,151 per tonne of WO₃, about $580/mtu.

The contract layer matters more in tungsten than in almost any other metal, because there is no exchange to sell into. Check what the concentrate is sold at: most offtakes pay a percentage of an APT assessment, averaged with a lag and often floored — which protects the downside and delays the upside. EQ Resources realised about $478/mtu in the December 2025 quarter and $1,004 in the March 2026 quarter, well below the APT prices of those months, because its contracts price off lagged averages and concentrate discounts. Check who the customer is, since the converter base outside China is tiny. And check jurisdiction as a price input: a mine feeding a chain that complies with the 2027 US defence rule sells into a separate, higher-priced tier. These are exactly the screens — resource base, production, cost position, jurisdiction — you can run across tungsten developers and their critical-minerals peers on Metal Pilot.

Table 19. Tungsten screening metrics

Source: Sangdong per Almonty’s October 2025 presentation (a company estimate, basis not stated); Hemerdon per Tungsten West’s 2025 development plan ; Mt Carbine and realised prices per EQ Resources’ March 2026 quarterly ; Pilot Mountain per Guardian’s pre-feasibility study , June 2026, converted from US$ per tonne of WO₃. Thresholds are practical rules of thumb, not published standards.

Figure 10. Illustrative tungsten cost curve (structural cost to APT vs cumulative output)

Source: illustrative and stylised, not company data. Tier costs are placed inside S&P Global’s published 2028 range for mine structural costs (~$150–750/mtu) plus its APT conversion cost (~$65–110/mtu), and anchored at the ends on the disclosed Sangdong and Hemerdon study costs and Mt Carbine’s reported costs (Table 19). Tiers, left to right: large open-pit mines outside China — Nui Phao, Bakuta (~6% of supply), Chinese state majors’ large mines (~32%), other Chinese mines — smaller, deeper, lower-grade (~47%), established underground mines in Europe, Russia and Australia (~6%), artisanal and small-scale supply in Rwanda, Bolivia, Myanmar and North Korea (~5%), and small high-cost mines and other supply (~4%). Widths approximate the country shares in Table 4. The reference line is the 2015–2024 average APT price of ~$270/mtu from Table 3.

The curve carries this section’s central point. On a structural basis — cash cost plus the sustaining capital a mine needs to keep going — most of the world’s tungsten supply sits above the price the market paid on average over 2015–2024. S&P Global estimates that a price of $360–480/mtu would sustain the supply chain; the decade’s average was about $270. That gap explains the decade-long drought in new mines outside China and the failures described in Section 4.3 — and it is the fundamental case for why prices had to reset, quite apart from the export controls that reset them far further.

4.3 Macro regimes, rates & correlations

Tungsten is a cyclical industrial metal governed by a policy overlay. Its demand follows global manufacturing, mining and construction through carbide tooling, so it behaves like a base metal in expansions and recessions; its supply follows Beijing, which makes its largest moves policy shocks rather than macro ones. It is dollar-priced, so a weak dollar helps at the margin, but it has none of gold’s rate sensitivity: nobody holds tungsten as a reserve asset, so there is no opportunity-cost channel through real interest rates. (For how the major commodities compare across the same regimes, see the macro regime guide .)

Historically tungsten has done best in Chinese supply-policy squeezes and global industrial expansions, and worst in Chinese slowdowns with destocking — when China is simultaneously the marginal buyer that stops buying and the marginal seller that keeps mining. Table 20 dates each regime to an episode with the figures behind it.

On past performance, the long-run numbers flatter. APT rose about 740% in nominal terms from 2000 to 2025, but 2000 was the tail of a glut; from 2005 to 2024 it rose only about 43% — roughly an 11% loss after US inflation — with a 56% drawdown — the fall from the 2011 peak to the 2016 trough. Almost the entire long-run gain came from two policy steps, in 2005 and 2025. Past performance is not indicative of future results.

The equity amplifier. The 2014–2016 bust is the concluded case study. APT’s annual average fell 46%, from $357/mtu in 2014 to $191 in 2016. The purest Western equity, North American Tungsten — operator of Canada’s Cantung mine, then one of the largest tungsten mines outside China — did far worse: it sought creditor protection in June 2015 with about C$75.5 million owed to more than 200 creditors, its sale process failed that October, Cantung stopped production on 26 October 2015, and the Mactung deposit was sold to the Northwest Territories government. Shareholders, ranking behind C$75.5 million of creditor claims in an insolvency still before the court a decade later, were effectively wiped out — an equity loss we estimate at close to 100%, against a 46% fall in the metal. Execution risk compounds it: Wolf Minerals, which opened Hemerdon into the 2015 trough, went into administration in October 2018 after running out of funding, even though APT had recovered about 63% from its 2016 low. (Data: USGS annual average prices; court-monitor and company records, 2015–2018 — concluded episodes.)

The same leverage has worked upward since 2025, but that episode is not finished and is not used here as evidence.

Table 20. Tungsten across economic regimes

Source: APT annual averages from Table 3 (USGS Minerals Yearbook and company filings); the North American Tungsten record per the court-appointed monitor Alvarez & Marsal and CBC , 2015; Wolf Minerals per Mining Journal , October 2018; real returns deflated by the BLS CPI-U annual average (2005: 195.3; 2024: 313.7). Regime characterisations are historical observations, not predictions.

On correlations, tungsten moves most with the industrial and energy complex and least with the precious metals. Computed on annual price changes over 2001–2025, its strongest links are to Brent crude (+0.60) and copper (+0.53) — both riding the same China-led industrial cycle, above all the 2003–2011 boom — with weaker links to silver, cobalt, nickel and gold. Every relationship breaks down in a policy shock: in 2025 tungsten rose 58% while copper rose 9% and nickel fell.

Table 21. Tungsten correlations (annual price changes, 2001–2025)

Source: author calculation — Pearson correlation of annual log changes in average prices, 2001–2025 (25 observations), using the APT series in Table 3 and annual averages for copper and nickel (IMF Primary Commodity Prices , LME basis), Brent (U.S. EIA ), gold and silver (LBMA ) and cobalt (USGS ), as compiled in this guide series. Annual data smooths away most short-term noise, and 25 observations is a small sample: coefficients are unstable, dominated by the 2003–2011 boom and break down in policy shocks such as 2025.

Figure 11. Tungsten correlations, annual 2001–2025

Figure data: Table 21. Shading runs on a fixed ±0.75 “strong correlation” scale, so a tile means the same thing here as in any other guide in the series.

4.4 Price drivers & cycles

Strip out the noise and tungsten’s price is set by a short list of forces, best read through concluded episodes. On the supply side: China’s mining quota and export policy, the slow arrival of mines outside China, and the fast, price-driven response of scrap. On the demand side: global manufacturing and mining activity through carbide tooling, destocking cycles in an opaque supply chain, and — increasingly — defence procurement. The recurring pattern is a staircase: long flat stretches while Beijing holds supply steady, broken by policy steps upward and by demand-led slides downward.

The settled case studies are four; Section 1.3 carries their price arithmetic and Table 20 their magnitudes. The 2005 step proved that China sets the floor. The 2008–09 recession showed the demand side, as tool demand fell and users destocked. The 2011 peak and 2014–16 bust showed the full cycle — Chinese growth and export restrictions up, a Chinese slowdown with heavy destocking down. The 2018–2020 slide came from the trade war’s hit to manufacturing, then the pandemic.

The 2025–26 export-control shock is the biggest price event in the metal’s modern history, and it is not over: it belongs in the drivers table as a live force, not yet as a case study.

Table 22. Tungsten price drivers

Source: agency and industry data (USGS , ITIA , S&P Global ) and the long-run price history in Table 3. All case studies referenced above are concluded historical episodes; the 2025–26 export-control shock is treated as a live driver, not as evidence.

4.5 Risks, controversies & ESG

Tungsten’s bull and bear cases share a root: China’s policy. The licence regime is why the export price is high; loosening it, widening the authorised-exporter list, or letting the domestic–export gap be arbitraged would be why it falls. Every tungsten thesis written today is, knowingly or not, a forecast of MOFCOM’s behaviour. Supply response is the structural bear case: at prices several times S&P Global’s estimate of what sustains the chain, Sangdong, Bakuta, Hemerdon and a wave of restarts are being built, and scrap collection is surging — a combination that has ended every previous tungsten spike. Demand destruction is slower but real: at 2026 prices, users thrift, recycle harder and switch to ceramics, cermets or superhard tools where they can. A manufacturing recession would hit carbide demand directly. And for developers the dominant risk is execution: the sector’s recent history is one of plants that took longer and cost more than planned.

The ESG ledger centres on sourcing. Tungsten is one of the four “3TG” conflict minerals — tin, tantalum, tungsten and gold — covered by US reporting rules under the Dodd-Frank Act and by the EU Conflict Minerals Regulation, because artisanal wolframite from the Great Lakes region has funded armed groups. The fastest-growing source of Chinese imports, Myanmar, raises the same questions. Industrial operations carry the usual mining footprint — tailings, water and, at Hemerdon, the community complaints over noise that dogged its first operator. Two points deserve fair statement. Tungsten recycles well, which gives it a better circularity profile than most metals. And carbide’s binder is cobalt, so a carbide supply chain inherits cobalt’s sourcing issues too (covered in the cobalt guide linked in Section 1.1).

Figure 12. Tungsten risk map — likelihood vs. impact

Source: author’s qualitative assessment. Each point is scored 1–5 on likelihood and impact (printed as likelihood · impact) and nudged within its cell so the marks read separately; each risk is developed in Section 4.5, with conflict-minerals rules per the SEC final rule and the EU Conflict Minerals Regulation .

5. Future outlook & forecasts

Tungsten’s next five years turn on one question: can the rest of the world rebuild a tungsten supply chain faster than China relaxes its grip? Forecasts here are scenarios, not measured facts — they depend on licensing decisions in Beijing, on construction schedules in Korea, Kazakhstan and England, and on how hard high prices push users to thrift and recycle.

5.1 Demand

S&P Global expects first-use demand to grow about 2% a year, to about 180 kt WO₃ (~143 kt W) by 2030 and 202 kt WO₃ (~160 kt W) by 2035. The mix matters more than the total. Carbide tooling still carries the cycle and will follow manufacturing and mining activity. The growth that does not depend on the cycle comes from defence (Section 2.2), from solar-wafer cutting wire, and from semiconductor chemicals — all three markets where tungsten’s cost is small relative to the value of the product, so demand barely responds to price. Working the other way, prices several times the long-run average are the strongest incentive the industry has ever had to thrift, recycle and substitute, and each tonne of scrap reclaimed is a tonne of mine supply not needed.

5.2 Supply and the balance

The supply side has more moving parts than at any time in decades. Outside China, the pipeline is real but small: Bakuta is expected to reach about 10,000 t of concentrate a year (~5.2 kt W) at full rate, on a broker’s estimate; Sangdong’s Phase II would roughly double its first-phase rate to about 3.6 kt W; Hemerdon targets full commissioning in the first quarter of 2027 at about 2.6 kt W; and Guardian’s Pilot Mountain study envisages about 1.6 kt W in Nevada. Beyond them sit Mactung in Canada and a Kazakh joint venture on what its US sponsor, Cove Kaz Capital , calls the largest known undeveloped tungsten resource, about 1.4 Mt of WO₃ (about 1.1 Mt W). Conversion is being rebuilt in parallel — Global Tungsten & Powders’ oxide expansion in Pennsylvania, US-funded processing at Elmet — because a mine without a non-Chinese converter only adds to China’s feed.

Inside China, the direction is the reverse: quotas held flat or trimmed, concentrate imports rising, and exports rationed by licence. S&P Global estimates that without further mine additions, the gap between ex-China APT capacity and ex-China demand grows to about 16 kt WO₃ (about 13 kt W) by 2030. The honest scenario frame is conditional: if licences stay tight and the 2027 US defence rule creates a durable non-Chinese demand tier, the two-tier market persists and the export premium holds; if new mines, scrap and any easing of licences arrive together, the export price falls back toward S&P Global’s sustaining price (Section 4.2) — still well above the 2015–2024 average.

Figure 13. Planned full-rate capacity at four non-China projects (kt W a year)

Source: Bakuta per a Guosen Securities estimate of 10,000 t of 65% concentrate a year at full rate, with ore capacity per Chinatungsten Online , September 2025; Sangdong Phase II per Almonty , March 2026 (double Phase I’s ~2,300 t WO₃, i.e. ~4,600 t — the release calls these tonnes of concentrate, the October 2025 presentation mtu of WO₃); Hemerdon per Tungsten West’s 2025 development plan (332,000 mtu) and May 2026 funding update ; Pilot Mountain per Guardian’s pre-feasibility study (1,990 t WO₃). Figures are company targets (Bakuta’s a broker estimate) converted at 0.793 t W per t WO₃, not forecasts; Bakuta’s includes the ~2.6 kt W it already produced in 2025. Together the four would add roughly 10 kt W a year of new supply against the ~18 kt W mined outside China in 2025.

Table 23. Tungsten supply, demand and policy outlook

Source: USGS Mineral Commodity Summaries 2026 ; S&P Global , August 2026; ITIA ; quotas as in Table 14; DFARS 252.225-7052 . Directional entries are scenario judgements, not forecasts; the 2025 and 2026 quota figures are first batches only; S&P Global’s WO₃ figures are converted at 0.793 t W per t WO₃.

5.3 Catalysts to watch

The near-term watch-list is dominated by Beijing: MOFCOM’s licensing decisions and the authorised-exporter list, the Ministry of Natural Resources’ quota batches, and — the single best real-time gauge of both — the gap between the Chinese domestic and Rotterdam APT prices. After that, watch the ramp-ups outside China: Sangdong’s first full year, Bakuta’s expansion and Hemerdon’s commissioning, each of which will show whether new supply arrives on schedule. On the demand side, watch defence procurement and stockpiling — the 1 January 2027 DFARS deadline, US Defense Logistics Agency purchases, the EU’s first joint stockpile — alongside manufacturing indicators for the carbide cycle. What would confirm the bull case: licences held tight into a defence-driven demand tier while new mines slip. What would break it: new supply, recycled scrap and any easing in Beijing arriving at the same time.

Table 24. Tungsten catalyst calendar

Source: MOFCOM exporter list, December 2025; DFARS 252.225-7052 ; company reporting as cited in Table 15 and Figure 13; USGS and ITIA calendars, 2026.

6. Summary

Tungsten is the metal that cuts the others. Its extreme hardness and heat resistance make it indispensable in cemented carbide, which takes about 64% of demand, and in steels, heavy alloys and wire, with defence a fast-growing and price-insensitive eighth of the market. It is priced without an exchange, through assessed APT prices that averaged about $251/mtu over 2000–2025 in a staircase of policy steps — $223 in 2005, a $431 record in 2011, a $191 trough in 2016, about $318 in 2024 and about $504 in 2025 — and since 2025 a two-tier market separates China’s domestic price from Rotterdam’s. It is mined about 79% in China, from the granite belts of the Nanling Range, with Vietnam, Kazakhstan, Russia and North Korea the only producers of 2 kt or more outside it and South Korea arriving in 2026; consumed at first use mostly in China and at final use across China, Europe and North America; and produced at a flat 78–85 kt a year for a decade, held there by China’s quota. Its balance is roughly even on the best arithmetic, but China’s turn to importing concentrate says its mines no longer cover its processing. Its supply is primary rather than by-product, with recycled scrap supplying about 35% — the price-elastic slice. Its chokepoint is not a strait but conversion — China holds about 85% of APT capacity — and, since February 2025, the export licence. Coordination comes from one state acting as a single seller through mining quotas and export controls, now met by Western procurement rules. The companies split into Chinese integrated majors and a few non-Chinese miners and developers, compared on grade, recovery, cost per mtu, offtake terms and jurisdiction — never market cap. The regime profile is cyclical in demand and political in supply, and the equity amplifier is brutal: a 46% fall in APT in 2014–16 left North American Tungsten’s shareholders with next to nothing. The risks run both ways — tighter controls on one side, new mines and scrap on the other — and the variable to watch is China’s export licensing, with the 2027 US defence sourcing deadline close behind.

To go from this big-picture view to the actual companies — screening tungsten developers and producers alongside their critical-minerals peers by resources, production and cost position — explore Metal Pilot.

7. Vocabulary

Every specialised term used in this report, defined once at first use in the body, collected here for reference.

Table 25. Tungsten vocabulary

Source: definitions follow USGS Minerals Yearbook 2021: Tungsten and ITIA terminology, JORC reserve standards and DFARS 252.225-7052 , 2026.

8. Sources, methodology & disclaimer

8.1 Sources, methodology & data vintage

Agencies & official data: USGS Mineral Commodity Summaries 2026: Tungsten and the 2025 edition for mine production, reserves, US statistics and events; the USGS Minerals Yearbook, Tungsten (2002–2021 editions) for the long-run APT price and production series and unit definitions; the USGS Mineral Industry Surveys for 2025 monthly prices; the USGS Open-File Report 2025-1032 for 2022 production.

Policy documents: MOFCOM Announcement No. 10 of 2025 and the 2026–27 exporter list ; DFARS 252.225-7052 ; USTR on Section 301 tariffs and on the WTO export-restraints case ; Chinese quota notices as listed under Table 14.

Industry & price reporting: ITIA for end uses, recycling and regional consumption; S&P Global Tungsten Market Report (August 2026) for demand, capacity shares, costs and the ex-China gap; Fastmarkets and Argus for price assessments and trade flows; Project Blue as reported by Reuters ; Guosen Securities and China Galaxy Securities for Chinese consumption and company capacities.

Company filings & statements: Almonty Industries, EQ Resources, Masan High-Tech Materials, Jiaxin International, Xiamen Tungsten, Zhangyuan Tungsten, Tungsten West, Guardian Metal Resources, Group 6 Metals, Trinity Metals and Plansee, as linked beneath Tables 5, 15 and 19.

Methodology: volumes are in tonnes of contained tungsten (t W), converting WO₃ and 65% concentrate at 0.793 t W per t WO₃; prices are US dollars per mtu of WO₃. The APT series (2000–2025) uses annual averages, never spot snapshots, on the basis changes noted under Table 3; the two 2026 price references are dated snapshots. Chinese production statistics are revised heavily between USGS editions; each year uses the latest vintage. No agency publishes an audited global tungsten balance, country-level consumption outside China, or ranked exporter and importer tables, so three artifacts this guide series normally carries are adapted: the balance is read through a derived supply-and-demand reconciliation, published estimates on labelled bases and China’s trade position (Section 2.4); regional consumption uses the ITIA’s first-use and final-use shares (Table 7); and Table 13 carries trade roles and volumes in place of separate exporter and importer tables. Company and mine outputs mix capacity, design and actual bases as labelled; correlations are computed and unstable; the cost curve is stylised. Reserves, resources, balances and forecasts are estimates, not measured facts; where sources conflict, the more primary and more recent figure is used and the discrepancy is stated.

Data as of: 22 September 2026. Intended update cadence: annually, after the USGS Mineral Commodity Summaries (January/February) and the ITIA’s annual conference (autumn).

8.2 Disclaimer & disclosure

This report is for informational purposes only and is not investment advice, a recommendation, or an offer to buy or sell any security or commodity. Tungsten prices are volatile and, since 2025, heavily shaped by government policy; the figures here are estimates as of the stated date that will change, and reserves, balances, correlations and regime characterisations are estimates and historical observations that may not persist. Do your own research and consult a licensed financial adviser before acting. This report was prepared with the assistance of AI; its figures were sourced from the references above and reviewed, but readers should verify any number before relying on it. The author holds no position disclosed as a conflict in respect of the companies named.