World lithium production 2025
Lithium is the lightest metal in the periodic table and the central input in lithium-ion batteries that power electric vehicles, grid-scale energy storage and consumer electronics. After a decade of explosive demand growth, 2024 brought the first meaningful output contraction in the industry's modern history — driven by a price collapse, not a demand reversal. This article presents the most complete, up-to-date picture of mine-level production by country, supported by data from USGS, IEA and the World Bank, supplemented with analysis of market structure, reserve adequacy and the path ahead.
All figures are based on published official datasets. Values are rounded; minor revisions are expected as national statistics agencies finalize their 2024 returns.
Global lithium production at a glance, 2024
Methodology
Table 1. Lithium mine production by country, 2024
Global lithium mine output in 2024 is estimated at 180,000 metric tons of lithium content, representing a modest decline of approximately 2.2% compared with the 184,000 mt recorded in 2023 — the first year-on-year contraction since 2012. The retreat was concentrated almost entirely in Australia, where several large hard-rock operations suspended or curtailed production amid prices that had fallen below the cash costs of many spodumene mines. All other major producers maintained or grew output.
Global total (2024): 180,000 mt Li content. Share column = country output / 180,000 × 100.
Global total (2024): 180,000 mt Li | Source: USGS Mineral Commodity Summaries 2025
| # | Country | 2024 Production (mt Li) | YoY % | Region | Income group |
|---|---|---|---|---|---|
| 1 | Australia | 72,000 | −16.3% | Oceania | High income |
| 2 | Chile | 46,000 | +4.5% | Americas | High income |
| 3 | China | 36,000 | +9.1% | Asia | Upper-middle |
| 4 | Argentina | 11,000 | +14.6% | Americas | Upper-middle |
| 5 | Brazil | 5,500 | +12.2% | Americas | Upper-middle |
| 6 | Canada | 3,800 | +11.8% | Americas | High income |
| 7 | Zimbabwe | 3,300 | +10.0% | Africa | Lower-middle |
| 8 | United States | 1,000 | +25.0% | Americas | High income |
| 9 | Portugal | 600 | +20.0% | Europe | High income |
| 10 | Czech Republic | 220 | +4.8% | Europe | High income |
Chart 1. Lithium mine production by country, 2024 (mt Li content)
The chart below illustrates the profound concentration of global lithium supply. Australia, Chile and China together accounted for over 85% of all mine output in 2024, a structural feature that has persisted throughout the past decade despite the rapid diversification of downstream demand across Asia, Europe and North America.
Values are metric tons of lithium content. Australia's output declined sharply in 2024 as producers curtailed spodumene operations in response to falling spot prices. Source: USGS MCS 2025.
Chart 2. Production vs. known reserves by country, 2024
The scatter plot maps each producing country's 2024 mine output (horizontal axis) against its known lithium reserves (vertical axis). Countries in the upper-right quadrant combine high output with large reserve bases — the strongest position in simple supply terms. Countries with large reserves but low production, such as Bolivia, are not plotted (output is negligible despite resources of ~23 million mt).
Production in metric tons Li content (USGS MCS 2025). Reserves in metric tons Li content (USGS MCS 2025). Axes are logarithmic to accommodate the wide range of values. The reserve-to-production ratio varies significantly: Chile's reserves could sustain current output for over 200 years at 2024 rates.
Insights: what the 2024 data tells us about the lithium market
1. The first output contraction in a decade — and why it matters
From 2013 to 2023, global lithium mine production grew every single year without exception, compounding at roughly 22% per annum. The 2024 contraction — modest in aggregate terms, around −2% — marks an important market turning point rather than a crisis. The mechanism was straightforward: prices collapsed from over $79,000 per metric ton of lithium carbonate equivalent in late 2022 to below $13,000 by early 2024, a level at which several Australian hard-rock mines operated at or below cash breakeven. Albemarle's decision to suspend the Kemerton lithium hydroxide plant and Arcadium's curtailments at Mt Cattlin are the clearest examples of this.
Crucially, demand for lithium did not contract. Battery-grade lithium consumption continued to grow, driven by record EV sales in China, Europe and the United States. The price collapse was instead a supply-side overhang: 2021–2023 saw extraordinarily rapid capacity additions in response to the 2022 price spike, with Chinese lepidolite processing capacity expanding far faster than battery demand could absorb it. The result was a textbook commodity overshoot.
2. Geographic concentration remains the defining structural risk
Three countries — Australia, Chile and China — contributed 85.6% of all lithium mine output in 2024. This figure has been remarkably stable for a decade and is high even by the standards of other critical minerals. For comparison, the top-3 concentration for nickel is approximately 55%; for cobalt around 75%. Lithium's concentration is not primarily a geological constraint: the mineral is more evenly distributed globally than, say, platinum or rare earths. It is instead a function of cost structures, environmental permitting timelines and capital availability. Hard-rock spodumene processing has a learning curve advantage built up over decades in Australia; brine operations in the Atacama are the lowest-cost deposits on Earth.
The strategic implication is clear. Any supply disruption in Australia or Chile — whether from policy changes, labor action, extreme weather or prolonged low prices — would reverberate through global battery supply chains within 12–18 months. This is why the United States, the European Union, Japan and South Korea have all launched formal critical mineral strategies aimed at diversifying upstream lithium sources.
3. Emerging producers are growing fast from a small base
Argentina's 14.6% production growth in 2024 is significant. The country's Salta, Jujuy and Catamarca provinces host brine operations with economics comparable to Chilean assets, and several new projects are advancing toward commercial production: Livent's Fenix expansion, Allkem's Olaroz Stage 2 and Lithium Americas' Pastos Grandes. Argentina's advantage over Chile is regulatory — it has no state monopoly on lithium extraction, making it attractive to foreign capital. Brazil's growth (12.2%) is concentrated in hard-rock operations in Minas Gerais, building on decades of tantalum and niobium mining experience.
Zimbabwe's 10% expansion is Africa's most striking lithium story. The Arcadia deposit near Harare, now operated by Huayou Cobalt, represents the continent's largest hard-rock lithium project. Output is exported primarily as spodumene concentrate to Chinese processing facilities, raising legitimate questions about value capture within Zimbabwe itself — a pattern common in African critical mineral supply chains.
4. China's production growth masks its real position in the value chain
Reporting China's mine output as 36,000 mt Li understates its actual influence on the lithium market. China controls approximately 85% of global lithium chemical refining capacity and over 75% of global battery cell manufacturing. Much of Australia's and Zimbabwe's spodumene concentrate — and increasingly Argentina's lithium carbonate — flows to Chinese smelters before re-entering the global market as battery-grade lithium hydroxide or carbonate. Mine production statistics therefore capture only the first step of a supply chain that is overwhelmingly Chinese from refining onwards. This structural dependency is what Western policymakers describe as the "battery supply chain vulnerability."
5. The price cycle signals a looming deficit, not an abundance
The 2023–2024 price collapse has already had its intended market effect: it has delayed or cancelled projects with higher costs, reduced exploration spending and pushed some producers into care-and-maintenance. Meanwhile, EV adoption forecasts for 2025–2030 remain robust. The IMF and IEA both project that lithium demand could reach 500,000–600,000 mt Li by 2030 — roughly three times 2024 output. This arithmetic implies that, absent a dramatic acceleration in either new project approvals or lithium recycling, the market will shift from structural surplus to deficit by 2026–2027. That cyclical tightening is likely to push prices higher — which will, in turn, restart projects that were shelved in 2024.
What the lithium production ranking means — depending on who you are
This ranking is more than a list of mining volumes. It also helps show geopolitical exposure, energy-transition risk and where future capacity may emerge. Here is how to read it in different contexts:
- For investors: The top-3 concentration means that country-level risk in Australia and Chile directly affects global lithium prices. Projects in Argentina and Canada offer diversification but come with longer development timelines and higher capital requirements. Lithium recycling companies are likely undervalued in a market still focused on primary supply.
- For policymakers: Economies importing battery-grade lithium chemicals almost entirely from China face a structural dependency comparable to pre-2022 European natural gas reliance on Russia. Diversification requires investment not only in mining but in the refining and processing steps that happen after the mine.
- For EV buyers and fleet managers: The current low price environment is largely a temporary overhang, not a structural shift. Battery cost reductions in 2023–2025 reflect this surplus. Buyers locking in multi-year battery supply agreements now are likely to benefit from relatively favorable pricing before the anticipated 2026–2027 tightening.
- For researchers and students: The lithium market is one of the clearest contemporary examples of commodity super-cycle dynamics applied to a critical mineral with asymmetric geopolitical consequences. It illustrates how price signals alone are insufficient to coordinate the long lead-times involved in mine development.
- For residents of producing countries: Lithium royalties and corporate taxes represent a significant potential revenue stream, but one that is highly price-sensitive. At $15,000/mt LCE, fiscal revenues are modest; at $40,000/mt, they are transformative. Countries that negotiate contracts during downturns — as Chile's CODELCO is doing with SQM — are likely to capture more of the upside in the next cycle.
Frequently asked questions about lithium production
The table reports metric tons of lithium content (mt Li), the elemental form. This is the USGS standard. To convert to lithium carbonate equivalent (LCE), multiply by 5.323. To convert to lithium hydroxide equivalent (LHE), multiply by approximately 4.48. Media reports often use LCE or LHE, which makes the headline numbers appear much larger — global production of 180,000 mt Li is equivalent to roughly 958,000 mt LCE.
Australian lithium comes overwhelmingly from hard-rock spodumene mining, which has higher cash costs than South American brine operations. When spot lithium carbonate prices fell from roughly $79,000/mt in late 2022 to below $13,000/mt in early 2024, the operating margins of several Australian projects turned negative. Albemarle, Arcadium Lithium and others suspended or reduced operations rather than continue producing at a loss. This is a normal market response, not a sign of resource depletion.
The Lithium Triangle refers to the high-altitude salt flats (salares) spanning the borders of Chile, Argentina and Bolivia, which collectively hold over half of the world's known lithium reserves. Chile's Atacama Desert contains the highest-concentration brines on Earth, giving Chilean producers such as SQM and Albemarle some of the lowest production costs globally. Argentina's northern provinces are rapidly developing similar assets. Bolivia holds the largest single resource (Salar de Uyuni), but political constraints and lack of infrastructure have delayed commercial-scale production.
Geological resources are not the binding constraint — the world has sufficient lithium in the ground to supply EV batteries for many decades. The challenge is the speed at which those resources can be converted into production: new mines typically take 7–15 years from discovery to first output, and permitting, financing and infrastructure requirements add further delays. Most supply models project a deficit emerging around 2026–2028 unless current project pipelines accelerate. Recycling of end-of-life batteries, expected to contribute meaningfully from the late 2020s, is an important but not yet sufficient buffer.
The environmental footprint varies enormously by extraction method. Brine extraction in the Atacama has well-documented effects on hydrological systems in one of Earth's driest regions, including potential impacts on flamingo habitats and indigenous communities that depend on the same water sources. Hard-rock spodumene mining produces large volumes of waste rock and tailings but occurs in less ecologically sensitive areas. A full lifecycle assessment consistently shows that, even accounting for mining impacts, an EV charged on average grid electricity produces significantly fewer lifecycle emissions than an equivalent petrol or diesel vehicle. The environmental calculus is nuanced, not binary.
Bolivia holds the world's largest lithium resources — estimated at 23 million metric tons — concentrated in the vast Salar de Uyuni. However, the country produced negligible commercial quantities in 2024. State control under YLB (Bolivia's state lithium company), difficult terrain, lack of infrastructure and challenging brine chemistry (higher magnesium content than Atacama brines) have repeatedly delayed projects. Partnerships with Chinese and European firms are ongoing, but a timeline to meaningful production remains uncertain.
The USGS Mineral Commodity Summaries are the most widely cited global reference, but they are based on a combination of company reports, national statistics and expert estimates rather than direct measurement. For smaller producers such as Czech Republic and Portugal, figures are estimates with relatively wide uncertainty bands. China's data include some processing of imported concentrate, which complicates direct comparisons with mine-only output elsewhere. For formal research, figures should be cross-checked against national geological surveys and individual company disclosures.
Policy takeaways: how to act on the lithium data
The production ranking is a starting point, not an endpoint. Sound policy responses require looking beyond mining volumes to the full supply chain, the price cycle and the distributional consequences of a rapid energy transition. Key conclusions:
- Supply diversification is urgent but slow. Western economies aiming to reduce reliance on Australian and Chilean spodumene — and especially on Chinese refining — must fund project development, streamline permitting and accept that new supply will not arrive on the short timelines often assumed in policy plans.
- Refining capacity is the true chokepoint. Mine production numbers do not capture China's dominance in lithium chemicals processing. Governments seeking supply security should invest in domestic or allied-nation refining, not just upstream mining rights.
- Price volatility distorts investment signals. The 2022 price spike triggered over-investment; the 2024 price crash is now triggering under-investment. Policy instruments — long-term offtake guarantees, strategic reserves, floor-price mechanisms — can smooth this cycle and reduce the risk of boom-bust patterns that slow the energy transition overall.
- Recycling must be scaled faster. Battery recycling currently supplies less than 5% of lithium demand. Regulatory frameworks mandating recycling content thresholds, paired with investment in hydrometallurgical recovery technologies, can materially reduce the dependence on primary mining over a 10–15 year horizon.
- Resource-rich developing countries need better deals. Zimbabwe, Argentina and future African producers risk reproducing colonial-era resource extraction patterns — exporting raw or barely processed material and capturing little value. Beneficiation policies, stronger royalty frameworks and technology transfer requirements are legitimate tools, but must be designed carefully to avoid deterring investment.
- Demand-side measures complement supply-side investment. Battery efficiency improvements, sodium-ion alternatives for short-range vehicles and weight reduction in EV design all reduce the amount of lithium required per unit of transport capacity. These are underweighted in most critical mineral strategies.
Primary data sources and technical references
All numerical data in this article come from publicly available official international and government datasets. Values are rounded for readability. For formal research or statistical work, always consult the original databases.
The primary source for all production and reserve figures in this article. Published February 2025. Contains 2024 preliminary production estimates and 2024 reserve assessments by country.
https://pubs.usgs.gov/periodicals/mcs2025/mcs2025-lithium.pdfComprehensive analysis of lithium supply, demand and energy-transition scenarios to 2030 and 2050. Provides the demand projections used in the Insights section.
https://www.iea.org/reports/global-critical-minerals-outlook-2024Flagship IEA report on the mineral requirements for the clean energy transition, including lithium demand scenarios under different EV uptake trajectories.
https://www.iea.org/reports/the-role-of-critical-minerals-in-clean-energy-transitionsHistorical and current lithium carbonate spot price series, used as the reference for the price trajectory analysis in the Insights section.
https://www.worldbank.org/en/research/commodity-marketsOfficial Canadian government overview of global and domestic lithium production, reserves and applications. Used for cross-checking Canadian production data.
https://natural-resources.canada.ca/our-natural-resources/minerals-mining/minerals-metals-facts/lithium-facts/24009Used for macroeconomic context and GDP income group classifications referenced in the production table.
https://www.imf.org/en/publications/weoLong-run historical production time series used for putting the 2024 contraction into the broader 2013–2024 growth trajectory.
https://ourworldindata.org/grapher/lithium-production
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