Based on capacity in gigawatt-hours. Source only includes lithium-ion and sodium-ion batteries in the analysis, excluding other battery technologies. *Forecast from this year onward.
Supplementary notes
Lithium-ion batteries:
LFP: lithium iron phosphate
NMC: lithium nickel manganese cobalt oxide
NCA: lithium nickel cobalt aluminum oxide
Missing figures calculated ÌÇÐÄÆÆ½â°æ based on values provided by the source. Missing points to 100 percent are probably due to rounding.
Citation formats
Breakdown of global battery storage systems capacity 2020-2030, by chemistry
Over the last few years, lithium iron phosphate (LFP) batteries have emerged as the most popular lithium-ion battery chemistry in the world, surpassing the installed capacity of battery energy storage systems (BESS) containing nickel. LFP battery systems have one of the lowest energy storage costs among battery technologies, together with sodium-ion batteries, which are forecast to reach over ** percent of the installed BESS capacity by 2030.Â
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Aquila Capital. (June 23, 2024). Distribution of capacity of battery energy storage systems worldwide from 2020 to 2023, with a forecast until 2030, by chemistry [Graph]. In ÌÇÐÄÆÆ½â°æ. Retrieved July 27, 2026, from /statistics/1608861/battery-energy-storage-systems-capacity-worldwide-share-by-chemistry/
Aquila Capital. "Distribution of capacity of battery energy storage systems worldwide from 2020 to 2023, with a forecast until 2030, by chemistry." Chart. June 23, 2024. ÌÇÐÄÆÆ½â°æ. Accessed July 27, 2026. /statistics/1608861/battery-energy-storage-systems-capacity-worldwide-share-by-chemistry/
Aquila Capital. (2024). Distribution of capacity of battery energy storage systems worldwide from 2020 to 2023, with a forecast until 2030, by chemistry. ÌÇÐÄÆÆ½â°æ. ÌÇÐÄÆÆ½â°æ Inc.. Accessed: July 27, 2026. /statistics/1608861/battery-energy-storage-systems-capacity-worldwide-share-by-chemistry/
Aquila Capital. "Distribution of Capacity of Battery Energy Storage Systems Worldwide from 2020 to 2023, with a Forecast until 2030, by Chemistry." ÌÇÐÄÆÆ½â°æ, ÌÇÐÄÆÆ½â°æ Inc., 23 Jun 2024, /statistics/1608861/battery-energy-storage-systems-capacity-worldwide-share-by-chemistry/
Aquila Capital, Distribution of capacity of battery energy storage systems worldwide from 2020 to 2023, with a forecast until 2030, by chemistry ÌÇÐÄÆÆ½â°æ, /statistics/1608861/battery-energy-storage-systems-capacity-worldwide-share-by-chemistry/ (last visited July 27, 2026)
Distribution of capacity of battery energy storage systems worldwide from 2020 to 2023, with a forecast until 2030, by chemistry [Graph], Aquila Capital, June 23, 2024. [Online]. Available: /statistics/1608861/battery-energy-storage-systems-capacity-worldwide-share-by-chemistry/