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Ranked: The World’s Biggest Natural Gas Producers

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The U.S. has pulled far ahead as the world’s largest natural gas producer, accounting for a quarter of global supply in 2024.

This chart ranks the top gas-producing countries using the latest available data from the U.S. Energy Information Administration, showing how output is concentrated among a handful of players that anchor global energy markets.

That dominance is becoming more important as disruptions in the Middle East tighten supply and shift trade flows toward large, stable producers like the United States.

The U.S. is the World’s Largest Natural Gas Producer

The U.S. isn’t just the top producer. It operates at a completely different scale.

In 2024, it produced 37,751 billion cubic feet of natural gas, more than 1.6x Russia and nearly equal to the combined output of Iran and China. No other country comes close. The gap between the U.S. and Russia alone is larger than the total output of most top-10 producers.

The data table below shows the ranking of natural gas production by country in 2024 in billion cubic feet:

After the top four, production drops off sharply, with no country exceeding 7,500 billion cubic feet. Canada and Qatar lead the second tier, followed by a mix of LNG exporters and regional suppliers. This steep decline underscores how concentrated global supply is at the very top.

Together, those countries form the core of the global gas supply system, spanning North America, Eurasia, the Middle East, and key LNG-exporting hubs.

America’s Shale Helped Redraw the Production Map

U.S. natural gas output has roughly tripled since 2005 as hydraulic fracturing unlocked shale formations that were previously uneconomical. This surge helps explain why the U.S. stands so far ahead of other producers and why it has become central to both pipeline and LNG flows.

Recent tensions in the Middle East have disrupted natural gas infrastructure and shipping routes, particularly around the Strait of Hormuz, a key chokepoint for global energy trade.

With flows constrained, global markets are leaning more heavily on large, stable producers. This dynamic further amplifies the role of the U.S., which leads both in natural gas output and LNG export capacity.

As supply risks persist, this concentration is becoming more consequential. Countries with large, stable production, especially the U.S., are playing a growing role in balancing global energy markets and meeting LNG demand.

Learn More on the Voronoi App

If you enjoyed today’s post, check out U.S. Natural Gas Trade with North America (1985-2024) on Voronoi.

Charted: The Rise of Silicon in EV Batteries

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Electric vehicles rely heavily on lithium-ion batteries, and the materials used inside them are evolving rapidly. For years, graphite has dominated battery anodes—the negative electrode that stores lithium during charging.

However, silicon is emerging as a powerful alternative. This infographic charts the projected rise of silicon-containing anodes in EV batteries through 2035.

The data for this visualization comes from Benchmark Mineral Intelligence. It tracks the weighted supply of anode materials in gigawatt-hours (GWh) of battery capacity, representing the amount of EV battery use supported by each material type.

Graphite Still Dominates Today

Graphite remains the backbone of lithium-ion battery anodes. In 2022, synthetic graphite alone accounted for roughly 76% of global anode capacity, while natural graphite made up another 18.6%.

This dominance stems from graphite’s stability, relatively low cost, and established supply chains. Manufacturers have spent decades optimizing graphite-based batteries, making them reliable for mass EV production.

However, graphite has a major limitation: it stores relatively little lithium compared to emerging alternatives.

Why Silicon Is So Promising

Silicon can theoretically store about 10 times more lithium than graphite. This property allows batteries with silicon-enhanced anodes to pack more energy into the same physical space.

In practical terms, this could significantly extend EV range without increasing battery size. For example, an EV that previously covered 480 km on a single charge could reach 640 km—or even 800 km—using a battery pack of the same size and weight.

Because silicon expands significantly during charging cycles, engineers are developing hybrid approaches. These include graphite–silicon composites and engineered silicon materials that balance higher capacity with structural stability.

Silicon’s Share Could Reach 20% by 2035

Forecasts suggest silicon will steadily gain traction over the next decade. Graphite–silicon composite anodes are projected to rise from 5% of battery capacity in 2022 to 17.5% by 2035.

Meanwhile, fully engineered silicon anodes could expand from almost zero share to about 3% over the same period.

Learn More on the Voronoi App

To learn more about this topic, check out this graphic on the projected battery mineral deficit by 2034.