Reviewed August 2026 against World Nuclear Association production data and mining sector production reports.

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Chile produced 64,100 tonnes of lithium in 2025, according to mining sector production reports, while Kazakhstan produced 25,839 tonnes of uranium in 2025, per the World Nuclear Association — the two countries anchor opposite ends of the critical minerals supply chain.

Why These Two Minerals Move Markets

Lithium and uranium sit at opposite ends of the energy supply chain — one stores power, the other generates it — but both are tracked the same way: by tonnes produced, by country, updated on a lag of months to a year. The short answer to “who produces the most” is this: for lithium, Australia and Chile lead by volume, with Argentina scaling up fast in the Lithium Triangle; for uranium, Kazakhstan produces more than the next several countries combined, with Canada and Namibia the clear second tier.

What follows are the specific tonnage figures currently published by named sources, the periods they cover, and — where a number isn’t published yet — exactly where to look for it instead of a guess dressed up as a fact.

What This Page Covers

• Lithium production by country, with confirmed 2025 tonnage for Chile and Argentina and spot pricing through May 2026.
• Uranium production by country, with World Nuclear Association figures for 2024 (final) and 2025 (Kazakhstan confirmed), plus spot price movement into August 2026.
• Palladium production — what’s actually published for the current period versus what search results are recycling from older data.
• A durable method for pulling updated figures yourself once these numbers age out.

Largest Lithium Producers, Ranked

Two countries account for most of the world’s mined lithium: Chile and Argentina, both drawing from brine deposits in the “Lithium Triangle” that also includes Bolivia. Chile produced 64,100 tonnes of lithium in 2025, according to mining sector production reports covering the country’s Salar de Atacama operations. Argentina produced 23,000 tonnes LCE (lithium carbonate equivalent) in 2025, per mining industry reporting that also noted the country’s stated goal of raising output by 75% during the year.

Australia’s spodumene mines, led by operations in Western Australia including the Greenbushes deposit, are consistently cited by USGS and industry trackers as the largest single national source of mined lithium by volume, though a directly comparable current-year tonnage figure to set against Chile’s and Argentina’s numbers above was not available in the sources gathered for this review — see the note on tracking updated figures below.

1. Chile: Lithium From the Salt Flats

• Chile produced 64,100 tonnes of lithium in 2025, according to mining sector production reports on the country’s operations in the Atacama Desert.
• Output comes from brine extraction at the Salar de Atacama, where operators pump lithium-rich brine to the surface and evaporate it in ponds rather than mining hard rock.
• Water use is the sector’s defining constraint: the Atacama is one of the driest places on Earth, and every tonne of lithium carbonate extracted competes with regional water demand, which is why extraction-technique refinements are the recurring theme in operator disclosures.

Chile’s brine-based output feeds battery manufacturing that increasingly supplies equipment used in smart agriculture machinery — the same lithium-ion cells that power EVs also power electric farm equipment and grid-storage batteries used for irrigation pumping.

2. Argentina: The Lithium Triangle’s Fastest Mover

• Argentina produced 23,000 tonnes LCE in 2025, according to mining industry production reporting.
• The same reporting cited an Argentine government target to boost lithium production by 75% during 2025, tied to streamlined investment rules for new brine projects and explicit confidence that trade tensions elsewhere would not disrupt the buildout.
• Argentina, Chile, and Bolivia form the “Lithium Triangle,” a geological belt of high-altitude salt flats that together hold a large share of the world’s known lithium brine resources — Bolivia’s production is not covered in the sources reviewed here.

With a 75% growth target set against a 2025 base, Argentina’s trajectory matters more than its current tonnage: a country adding capacity that fast can reorder the rankings within a couple of production cycles, which is exactly the kind of shift a snapshot number misses and a stated growth target catches.

3. Australia: The Spodumene Giant

• Australia’s Greenbushes mine in Western Australia remains the industry’s standard reference point for large-scale spodumene (hard-rock) lithium mining, feeding both domestic and export battery supply chains.
• Unlike Chile’s and Argentina’s brine operations, Australian production is hard-rock mining followed by concentration into spodumene concentrate, which is then converted to lithium carbonate or hydroxide — often overseas.
• A verified current-year tonnage figure for Australia was not in the sources gathered for this review. The US Geological Survey’s annual Mineral Commodity Summaries (published each January, free to download) is the standard source for country-level lithium production comparisons and is the first place to check for an updated Australian figure.

4. China: Processing Power More Than Mining Volume

• China’s competitive advantage in lithium is concentrated in refining and battery manufacturing rather than mine output — the country converts lithium concentrate and brine sourced globally into carbonate, hydroxide, and finished battery cells at a scale no other country matches.
• That processing capacity feeds batteries used across electric vehicles, agricultural machinery, and grid infrastructure.
• A verified current-year mined-tonnage figure for China was not available in the sources reviewed for this article; USGS Mineral Commodity Summaries breaks out mine production separately from refining capacity and is the source to check for both.

5. Lithium Prices: The Number Behind the Rankings

• Battery-grade lithium carbonate spot prices, delivered CIF Asia, ranged from $20,000 to $26,000 per tonne as of May 2026, according to market pricing services tracking the battery-materials trade.
• The same reporting flagged forecasts that prices could reach as high as $28,000 per tonne, driven by demand forecasts tied to EV and grid-storage battery manufacturing — that figure is a forecast, not a settled spot price, so treat it as directional rather than a number to plan around.
• Because lithium carbonate is a globally traded commodity, this price band applies regardless of which country supplied the underlying brine or ore — Chilean, Argentine, or Australian material converges on roughly the same converted-product price once it reaches battery manufacturers.

Every noteworthy lithium producer outside the top three — Brazil expanding hard-rock exploration, and Zimbabwe and Portugal adding smaller-scale output — sells into this same global carbonate/hydroxide price, which is why the price band above matters more to a buyer than any single country’s tonnage.

Largest Uranium Producers, Ranked

Uranium production is far more concentrated than lithium. The World Nuclear Association, the standard reference for country-level uranium output, put Kazakhstan at 25,839 tonnes U in 2025 — up from 23,270 tonnes U in 2024 — a single country producing more than every other uranium miner combined. Canada followed with 14,309 tonnes U in 2024, Namibia with 7,333 tonnes U in 2024, and Australia with 4,598 tonnes U in 2024.

1. Kazakhstan: The Dominant Producer by a Wide Margin

• Kazakhstan produced 25,839 tonnes U in 2025, up from 23,270 tonnes U in 2024 — an increase of roughly 11% year over year, according to the World Nuclear Association’s country-by-country uranium production tracker.
• Production relies on in-situ leaching (ISL), where a leaching solution is pumped directly into underground ore bodies and the uranium-bearing liquid is pumped back out — a method that avoids the open-pit or underground excavation used elsewhere and scales output faster than conventional mining.
• The World Nuclear Association’s dataset is the authoritative source for this comparison: it is updated as national figures are confirmed, with full-year country breakdowns typically finalized roughly a year after the production period closes.

2. Canada: High-Grade Ore From the Athabasca Basin

• Canada produced 14,309 tonnes U in 2024, according to the World Nuclear Association, putting it second worldwide and roughly 61% of Kazakhstan’s 2024 output.
• Production is centered on the Athabasca Basin in Saskatchewan, home to some of the highest-grade uranium ore deposits mined anywhere — grade is what lets Canadian output compete on cost despite conventional underground mining methods rather than ISL.
• Canadian uranium exports serve nuclear utilities under some of the most rigorous regulatory and environmental oversight regimes in the sector, a distinction that matters to buyers weighing supply-chain risk.

3. Namibia: Africa’s Largest Uranium Source

• Namibia produced 7,333 tonnes U in 2024, per the World Nuclear Association, ranking third globally.
• Output is concentrated at the Husab and Rossing mines, both open-pit operations, which together anchor uranium as one of Namibia’s largest export earners.
• At 7,333 tonnes, Namibia’s 2024 output was roughly 51% of Canada’s and 32% of Kazakhstan’s for the same year — a useful check on any claim that Namibia is closing the gap with the top two.

4. Australia: Large Reserves, Smaller Current Output

• Australia produced 4,598 tonnes U in 2024, according to the World Nuclear Association — fourth globally, and well below its reserve base would suggest.
• Australia holds some of the world’s largest identified uranium reserves, but output lags Kazakhstan, Canada, and Namibia because of state-level mining restrictions and slower approval timelines for new projects.
• That gap between reserves and current production is the single most important fact for anyone forecasting Australia’s future rank: reserve size alone does not predict near-term tonnage.

5. Uranium Prices: What’s Driving Renewed Interest

• Spot uranium (U3O8) was priced at $86.48 per pound on August 8, 2026, according to market pricing data — up from $69.71 per pound in January 2026, a rise of roughly 24% over about seven months.
• That price move sits behind renewed exploration and expansion interest across all four ranked producers above; a sustained price above $80/lb changes the economics of marginal deposits that were uneconomic at 2026’s opening price.
• Uranium pricing data is published continuously by commodity pricing services and is the fastest-moving number in this article — check it directly rather than relying on any static figure, including the ones above, if you’re making a timing decision.

Russia and Uzbekistan round out the next tier of producers, with Russia’s output managed primarily through state-owned entities and Uzbekistan expanding ISL capacity, though current tonnage for either was not in the sources reviewed for this article — the World Nuclear Association tracker linked above covers both.

Largest Palladium Producers: What’s Confirmed and What Isn’t

Palladium production is dominated by two countries — Russia and South Africa — but a verified, sourced current-period breakdown was not available among the materials gathered for this review. Search results referencing “largest palladium producers” frequently recycle a Russia-and-South-Africa-tied-at-roughly-84-metric-tonnes figure from 2025 industry summaries, but that number did not carry a citation solid enough to reprint here as fact, and no USGS, Statistics Canada, or equivalent government figure for the current period was found.

Rather than repeat an unsourced number, here’s how to get a verified one: the USGS Mineral Commodity Summaries (published every January, free PDF) breaks out platinum-group-metal production by country, including palladium, sourced from national statistical agencies. For real-time market context, palladium spot pricing is published continuously by the same commodity pricing services used for uranium above. If you need a citable palladium tonnage figure, pull it directly from that January USGS release rather than a secondary summary — it’s the authoritative source and it’s free.

Comparison Table: Lithium vs. Uranium Output and Price

Two price references worth pinning next to this table: battery-grade lithium carbonate ran $20,000–$26,000/tonne CIF Asia in May 2026, and spot uranium U3O8 moved from $69.71/lb in January 2026 to $86.48/lb on August 8, 2026. Neither lithium’s nor uranium’s country rankings above are static — the method for refreshing them is the same in both cases: go to the primary tracker (World Nuclear Association for uranium, USGS Mineral Commodity Summaries for lithium and palladium) rather than a secondary aggregator.

Calculator: Lithium Carbonate Shipment Value

Use the spot price range cited above to estimate what a given tonnage of battery-grade lithium carbonate is worth at today’s low, mid, or high market price.

Assumes CIF Asia battery-grade lithium carbonate pricing as reported for May 2026; excludes freight, insurance, financing, taxes, and any quality or contract discounts/premiums applied by individual buyers. Actual contract prices commonly differ from spot references. Custom price, if entered, overrides the dropdown scenario.

Where Lithium and Uranium Meet Agriculture and Infrastructure

Neither mineral stays confined to the sector it’s best known for. Lithium batteries and uranium-fueled electricity both show up downstream in farming and rural infrastructure in ways that shape demand beyond EVs and reactors.

Lithium’s Reach Into Farm Equipment and Energy Storage

• Lithium-ion batteries power precision farming equipment — drones, smart irrigation pumps, and automated tractors — supporting resource-efficient agriculture in regions where diesel logistics are costly or unreliable.
• Farm-scale battery storage backs up cold storage for perishable produce and keeps operations running through grid interruptions in rural areas.
• Distributed lithium-ion storage is part of what makes off-grid agricultural electrification and sustainable farming practices viable in areas without reliable grid connections.

For a closer look at how satellite-driven monitoring supports large-scale precision agriculture, see Farmonaut’s Large Scale Farm Management Platform.

Uranium’s Reach Into Rural Electricity and Irrigation

• Nuclear power fueled by uranium supplies baseload electricity that runs energy-intensive agricultural mechanization and regional grid infrastructure.
• Stable nuclear-sourced electricity underpins irrigation pumping, rural electrification, and cold-chain logistics tied to food security in the producing countries above and their export markets.
• Beyond agriculture, uranium-fueled electricity also supports hospital infrastructure and water desalination in regions with limited alternative baseload capacity.

To improve transparency across agricultural or mineral supply chains, see Farmonaut’s Blockchain-Based Traceability Solutions.

A Note on Climate Policy and Mineral Demand

Both minerals’ demand curves are shaped by decarbonization policy as much as by industrial demand directly — a link explored further in Farmonaut’s coverage of agriculture’s relationship to climate change and adaptation. Emissions monitoring tools like Farmonaut’s Carbon Footprinting Platform help producers in both sectors track and report the compliance data that increasingly accompanies mineral supply contracts.

Farmonaut’s Role: Monitoring Production Regions

Farmonaut provides satellite-based monitoring for agriculture, mining, infrastructure, and defense intelligence via web, mobile apps, and APIs — used by operators in and around the same regions covered above, from Western Australia’s mining districts to the agricultural land surrounding Kazakhstan’s ISL uranium operations.

• Satellite Monitoring: Tracks mining-adjacent land use, crop health, and soil conditions near extraction sites, helping producers document regulatory compliance and environmental impact over time.
• AI-Based Advisory: Farmonaut’s Jeevn AI delivers resource management and operational planning support relevant to land use around mineral extraction and agricultural operations alike.
• Blockchain Traceability: Farmonaut’s traceability technology helps producers document supply chain origin, relevant to buyers increasingly asking where battery-grade lithium or reactor-grade uranium actually originated.
• Environmental Compliance: The carbon footprinting platform supports emissions monitoring and reporting for operations near mineral extraction sites.
• Fleet & Resource Management: Fleet management tools help operators managing machinery and logistics across large mining or agricultural land holdings.
• Financing Support: Farmonaut supports financial institutions verifying land and asset conditions for risk assessment in agriculture and mining-adjacent lending.

Unlock Real-Time Insights With the Farmonaut API

• The satellite API supports data integration across agriculture, mining, and infrastructure use cases.
• Developers can review the API Developer Documentation for platform capabilities and integration examples.

Farmonaut Subscription Plans

How to Track These Rankings Going Forward

These rankings shift on two different clocks: prices move weekly, and production tonnage is reconciled annually with a roughly year-long publication lag. Treat them accordingly, and use this checklist rather than any single number on this page as the durable reference:

• For uranium production by country: go directly to the World Nuclear Association’s uranium production tracker. It publishes final annual figures with roughly a one-year lag — 2024 figures were final at the time of this review, and 2025 was only partially confirmed, with Kazakhstan the sole country with a released 2025 number.
• For lithium and palladium production by country: check the USGS Mineral Commodity Summaries, published each January as a free PDF. It’s the standard reference for both metals’ country-level mine production and is updated annually.
• For current lithium and uranium prices: use a live commodity pricing service rather than any static figure in this article — spot prices for both moved meaningfully within the first eight months of 2026 alone.
• For US and UK domestic context: the U.S. Geological Survey and the UK’s national statistics bodies do not currently break out significant domestic lithium mine production, since North American and UK output remains a small fraction of global supply concentrated in Chile, Argentina, and Australia — if a domestic-production figure is central to your use case, confirm directly with USGS rather than assuming a number exists.

The pattern that holds regardless of which year you’re reading this: Kazakhstan’s ISL cost advantage keeps it structurally ahead in uranium, and the brine economics of the Atacama and Argentine salt flats keep South America structurally ahead in lithium tonnage, even as exact figures shift year to year. Watch price, not just rank — a price move like uranium’s climb from $69.71/lb to $86.48/lb between January and August 2026 changes project economics faster than any tonnage ranking does.

Frequently Asked Questions

Further reading:

• precision farming

Conclusion

The country rankings behind “largest lithium producers” and “largest uranium producers” are not fixed facts — they’re annual snapshots with a publication lag, sitting on top of prices that move week to week. As of the most recent confirmed data: Chile (64,100 tonnes, 2025) and Argentina (23,000 tonnes LCE, 2025) lead lithium’s most current verified figures, while Kazakhstan (25,839 tonnes U, 2025), Canada (14,309 tonnes U, 2024), Namibia (7,333 tonnes U, 2024), and Australia (4,598 tonnes U, 2024) lead uranium. Palladium’s country rankings remain best sourced directly from USGS rather than repeated secondary figures.

Use the World Nuclear Association and USGS Mineral Commodity Summaries links above as your standing reference points rather than this page’s numbers alone — that’s the method that keeps working after these specific tonnages are superseded. Where production data intersects with land use, monitoring platforms like Farmonaut’s help producers and buyers alike document what’s actually happening on the ground.