Cell Design and Materials: Sodium-Ion
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- https://www.evlithium.com/LiFePO4-Battery/catl-314ah-lifepo4-battery-cell.html
- https://www.evlithium.com/hot-lithium-battery/210ah-prismatic-sodium-ion-battery-for-sale.html
- https://hcctop.en.made-in-china.com/product/zGAYNPKCYRhp/China-Sodium-Ion-3-1V-240ah-Prismatic-Cells-Battery-3-1V-Sib-Battery-Cell-for-Energy-Storage-Electric-Vehicle.html
- https://autonews.gasgoo.com/new_energy/70039079.html
- https://www.veken-tech.com/cms/en/prod/id/85.html
Text on page 392
Factory Throughput & Cost Effects of Low Wh/L
Reference: Li-ion (LFP) factory with capacity: 10 GWh/yr Produces Na-ion (Layered oxide) with capacity: 7.4 GWh/yr Produces Na-ion (Polyanionic) with capacity: 4.8 GWh/yr
Cell production throughput is unit / yr based Material density (g/cc) and cell VED (Wh/L) directly affect throughput and fixed costs / unit While low energy density does not affect applications such as BESS, its impacts production Innovations to improve g/cc and Wh/L are vital
Na-ion (Polyanion): 155 to 170 Ah 167 to 187 Wh/L 52% throughput penalty
Na-ion (Layered oxide): 210 to 240 Ah 252 to 288 Wh/L 26% throughput penalty
Li-ion (LFP) cell: 314 Ah 390 Wh/L Reference
Extracted from the PDF; charts and images may read imperfectly.
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