| Large-scale electric-vehicle cell makers | Lithium iron phosphate (LFP); nickel-rich ternary chemistries; prismatic, pouch, or cylindrical formats | LFP: approximately 150–200 Wh/kg; nickel-rich cells: approximately 200–300 Wh/kg | Passenger electric vehicles, commercial vehicles, and plug-in hybrid vehicles | High-volume electrode coating, cell assembly, formation, testing, and battery-pack integration | LFP prioritizes cost and thermal stability; nickel-rich chemistries generally offer higher energy density. Actual results depend on cell design and test conditions. |
| Energy-storage-focused cell makers | LFP cells, commonly in large prismatic formats; integrated battery and control systems | Typically around 150–190 Wh/kg for cell products, depending on format and design | Grid-scale storage, renewable-energy projects, commercial buildings, and backup power | Large-format cell production, battery management systems, thermal management, and system-level safety testing | Stationary storage prioritizes service life, safety, and cost per delivered kilowatt-hour over maximum energy density. |
| Commercial-vehicle and industrial battery makers | LFP and, for selected use cases, nickel-based lithium-ion cells | Broadly about 150–250 Wh/kg, varying with chemistry and product format | Electric buses, trucks, forklifts, port equipment, and industrial vehicles | Robust pack design, vibration and environmental testing, high-current delivery, and fleet-service support | Products are designed around duty cycle, operating temperature, charging frequency, and vehicle integration requirements. |
| Consumer-electronics battery makers | Lithium-ion pouch and cylindrical cells, including graphite-based anodes and multiple cathode chemistries | Often approximately 200–300 Wh/kg at cell level, depending on chemistry and format | Smartphones, laptops, tablets, wearables, and other portable devices | Thin-cell manufacturing, precision assembly, compact pack design, and stringent quality control | Compact dimensions and high energy per unit of weight are important; product design must also meet device-specific safety requirements. |
| Emerging sodium-ion battery developers | Sodium-ion cells using sodium-based cathodes and hard-carbon anodes; this is a non-lithium chemistry | Approximately 100–160 Wh/kg for many announced or early commercial cell designs | Stationary storage and selected low-speed or short-range mobility applications | Pilot and commercial-scale cell development, materials processing, and adaptation of lithium-ion production methods | Sodium-ion may reduce dependence on lithium-containing materials, but its energy density and market maturity differ from established lithium-ion products. |