Battery manufacturing has expanded rapidly, but nameplate capacity, actual production, demand and deployment are different measures. The statistics below cover global and regional battery manufacturing, EV demand, chemistry choices, material inputs and U.S. lead-acid recycling, with measurement periods and scenario limits stated explicitly.
Key Battery Manufacturing Statistics
The most broadly useful battery manufacturing figures include:
- In 2024, global battery cell manufacturing capacity exceeded 3 TWh per year after growing almost 30% worldwide.
- In 2024, global battery manufacturing capacity was about three times combined EV and battery-storage demand worldwide.
- In 2023, global battery manufacturing reached 2.5 TWh and capacity additions reached 780 GWh worldwide.
- In 2023, global EV battery manufacturing capacity was around 2.2 TWh versus approximately 750 GWh of demand worldwide.
- If announced projects are completed on time, global battery manufacturing capacity could exceed 9 TWh per year by 2030.
- In 2024, China produced 80% of the world’s battery cells.
- In 2024, China held about 85% of global battery manufacturing capacity.
- In 2024, global EV battery demand was about 1 TWh.
- Under the IEA Stated Policies Scenario, global EV battery demand is projected above 3 TWh in 2030.
- In 2024, China represented 60% of global battery demand.
- In 2024, LFP batteries made up nearly half of the global EV battery market.
- In 2024, batteries accounted for 87% of estimated global lithium end use.
- In 2024, worldwide lithium production excluding U.S. output increased 18% to about 240,000 metric tons.
- In 2018, U.S. automobile, truck and motorcycle lead-acid battery generation was 2.9 million U.S. tons.
- In 2018, the EPA estimated a 99% recycling rate for lead and polypropylene battery casings in the United States.
- New U.S.-made lead-acid batteries contained over 80% recycled material in a 2025 study cited by the EPA.
Contents
- Global battery manufacturing capacity and production
- Battery manufacturing geography, ownership and investment
- EV battery demand and manufacturing outlook
- Battery chemistry and market statistics
- Battery materials and manufacturing inputs
- Automotive battery recycling and circular manufacturing
Global Battery Manufacturing Capacity and Production Statistics
The IEA reported that global battery cell manufacturing capacity grew almost 30% in 2024 to more than 3 TWh per year. This is nameplate cell capacity, so it describes potential annual output rather than realized production or deployment. Electric vehicle batteries – Global EV Outlook 2025
In 2024, global capacity was about three times combined EV and battery-storage demand. Earlier IEA reporting put global battery manufacturing at 2.5 TWh in 2023, with 780 GWh of capacity added from 2022; that addition was reported as more than 25% higher than the amount added in 2022. Outlook for battery and energy demand – Global EV Outlook 2024
| Measure | Period | Global figure | Definition or limitation |
|---|---|---|---|
| Battery manufacturing | 2023 | 2.5 TWh | Production estimate |
| Capacity added | 2023 | 780 GWh | Addition, not necessarily utilized output |
| EV battery capacity | 2023 | 2.2 TWh | Nameplate capacity |
| EV battery demand | 2023 | Approximately 750 GWh | Deployment-demand measure |
A 50 GWh facility illustrates the scale of cell plants: the IEA estimates that it can produce up to 10 million cylindrical cells per day, or hundreds of thousands of prismatic cells per day. The exact prismatic count varies with cell format and energy rating, and the example describes maximum design output rather than an observed average.
If every announced project is completed on time, global manufacturing capacity could exceed 9 TWh per year by 2030. About 70% of that announced 2030 capacity pipeline was already operational or committed when the IEA assessed it; committed means under construction or at final investment decision under that report’s definition. Outlook for battery and energy demand – Global EV Outlook 2024
The U.S. Department of Energy reported a U.S. cell-manufacturing pipeline exceeding 1,100 GWh per year as of December 2024. Depending on assumed battery size and vehicle mix, that pipeline could supply roughly 11–17 million light-duty EVs annually. 2021–2024 Four-Year Review of Supply Chains for the Advanced Batteries Sector
Battery Manufacturing Geography, Ownership and Investment Trends
China dominated both production and nameplate capacity in 2024. Chinese producers’ ownership share is attributed by producer headquarters under the IEA methodology, and cell production should not be confused with complete battery-pack assembly.
| Geography or ownership measure | Period | Statistic |
|---|---|---|
| China’s share of global cell production | 2024 | 80% |
| China’s share of global manufacturing capacity | 2024 | About 85% |
| Chinese producers’ share of global capacity | 2024 | More than 75% |
| U.S. manufacturing-capacity growth | 2024 | Almost 50% |
| EU manufacturing-capacity growth | 2024 | 10% |
Korean companies accounted for nearly 70% of U.S. capacity growth in 2024, with the IEA associating that expansion with tax-credit incentives. In the same assessment, Korean manufacturers had more than 400 GWh of overseas capacity, compared with about 60 GWh for Japanese manufacturers and about 30 GWh for Chinese manufacturers. Electric vehicle batteries – Global EV Outlook 2025
Announced projects imply further geographic change, but these are forecasts rather than observed output. Korean manufacturers’ announced overseas capacity could exceed 1.1 TWh outside South Korea by 2030, 85% above announced overseas Chinese capacity; that comparison is based on projects, not production.
Under a committed-project scenario, China’s capacity would increase by nearly 60%, global capacity would reach about 6.5 TWh by 2030, and China’s share could fall from 85% in 2024 to about two-thirds. Including all announcements would lift possible global capacity above 9 TWh, while Chinese producers’ share of EU capacity could rise from under 10% in 2024 to above 30% by 2030. Electric vehicle batteries – Global EV Outlook 2025
EV Battery Demand and Manufacturing Outlook
Global EV battery demand was about 1 TWh in 2024. The IEA projects demand above 3 TWh in 2030 under its Stated Policies Scenario, which depends on stated policies and EV adoption rather than representing a guaranteed outcome. Electric vehicle batteries – Global EV Outlook 2025
| Market or segment | 2024 | 2030 outlook |
|---|---|---|
| China’s share of global battery demand | 60% | Just under 50% |
| U.S. share of global battery demand | About 13% | Below 10% |
| Emerging and developing economies excluding China | Nearly 5% | 10% |
| Electric trucks’ share of EV battery demand | Nearly 3% | More than 8% |
These shares describe battery demand, not manufacturing capacity. Electric trucks therefore represented nearly 3% of global EV battery demand in 2024 and could exceed 8% by 2030 under the same scenario.
Battery Chemistry and EV Manufacturing Market Statistics
Lithium iron phosphate, or LFP, accounted for nearly half of the global EV battery market in 2024. Its role varied sharply by market: LFP met nearly three-quarters of China’s domestic battery demand, represented below 10% of U.S. EV battery use, and exceeded 10% of the EU EV market. Electric vehicle batteries – Global EV Outlook 2025
LFP battery share exceeded 50% in Southeast Asia, Brazil and India in 2024. EU LFP adoption grew about 90% for the second consecutive year, although the base share remained above 10% of the EU EV market.
Supply chains also differed by production location. Three-quarters of U.S. EVs equipped with LFP batteries were produced domestically in 2024, while nearly two-thirds of EU EVs equipped with LFP batteries were imported from China.
Tesla accounted for 85% of LFP-battery-powered EVs produced in the United States in 2024 and almost half of LFP-battery-powered EVs sold in the EU. These figures concern LFP-powered EVs specifically, not total EV production or sales.
Battery Materials and Manufacturing Inputs
Battery production depends on mineral supply as well as cell plants. USGS estimated that batteries accounted for 87% of global lithium end use in 2024, while worldwide lithium production excluding U.S. output increased 18% to about 240,000 metric tons; these figures refer to lithium content and end-use estimates, not finished battery materials. Mineral Commodity Summaries 2025
The U.S. lead supply picture is strongly connected to lead-acid battery manufacturing. In 2024, U.S. lead-acid batteries represented an estimated 86% of reported U.S. lead consumption, U.S. mine lead in concentrates was estimated at 300,000 metric tons of lead content, and secondary-refinery old-scrap lead production was estimated at 1.0 million metric tons of lead content.
U.S. net import reliance for refined lead was 28% of apparent consumption in 2024. This is a supply indicator for refined metal, not a measure of battery imports. Mineral Commodity Summaries 2025
Automotive Battery Recycling and Circular Manufacturing Statistics
EPA municipal-solid-waste accounting estimated U.S. automobile, truck and motorcycle lead-acid battery generation at 2.9 million U.S. tons in 2018. The category covers vehicle lead-acid batteries, not lithium-ion batteries. Durable Goods: Product-Specific Data
EPA estimated a 99% recycling rate for lead and polypropylene battery casings in 2018. Its table recorded 30,000 tons of lead-acid batteries landfilled, which EPA described as less than 1% of the category; the recovered-material definition includes recovered electrolytes and other removed materials.
A 2025 Battery Council International study cited by EPA found that new U.S.-made lead-acid batteries contain over 80% recycled material. That figure applies to new U.S.-made lead-acid batteries and should not be generalized to lithium-ion batteries. Battery Collection in Action Case Study: The Lead-Acid Battery Collection Network