VFBATTERY REPORT
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Cell Design and Materials: Li-Ion

Page 300 of 768
Battery Report 2025, page 300: Cell Design and Materials: Li-Ion
Sources and links on page 300 (3)

Links embedded in the original report PDF, including citations and other references. These destinations have not been independently reviewed. Links open in a new tab.

  1. https://docs.google.com/spreadsheets/d/1BmUIc7glVppOUBByrKPAhSImwjPMJMecZis9XyAKiG8/edit?usp=sharing
  2. https://www.ufinebattery.com/blog/lithium-sulfur-battery-vs-lithium-metal-battery-what-is-the-difference/
  3. https://volta.foundation/battery-report-2023
Text on page 300

Chemistry Lithium WH & AH Cost Map - Drive Towards Cheaper Batteries Current market conditions are demanding cheaper batteries for EV’s at the same performance of modern day NMC811 batteries. Cost Drivers (see Costs Section for more information)

Cathode active material (CAM) is major driver, accounting for >~50% of the cell cost

Lithium Hydroxide (LiOH) or Lithium Carbonate (Li2CO3) accounts for > 50% of the CAM cost excluding processing/overhead Enabling Cheaper EVs

LFP is the near-term solution for achieving the lowest lithium cost per kWh

Beyond LFP, manufacturers will need to turn to advanced chemistries, such as lithium-sulfur (LiS), to maintain Cathode cost reductions while improving performance. CELL COST BREAKDOWN

NMC811 COST BREAKDOWN Electrolyte 7%

Manufacturing Overhead 24%

LiOH 66%

LFP COST BREAKDOWN For more details, please visit: Battery Talk: Battery Application Break Down 1/01/2025 (Version 3.0) ***Cost in USD

Anode 12%

Separator 4%

Cathode 51%

Li2CO3 68%

Casing 3% Source: Battery Official,Battery Report 2023 (pg 131), Battery Talk: Battery Application Break Down 12/31/2025 (Version 3.0

Extracted from the PDF; charts and images may read imperfectly.

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