Cell Design and Materials: Alternative Chemistries
Page 408 of 768Sources and links on page 408 (6)
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- https://www.energy.gov/sites/default/files/2024-02/Technology%20Strategy%20Assessment%20-%20Zinc%20Batteries_rev.pdf
- https://www.eose.com/technology/
- https://acrobat.adobe.com/link/review?uri=urn%3Aaaid%3Ascds%3AUS%3A14a31ece-93ec-3c23-b269-5a536c5f9f54
- https://mitsubishicritical.com/resources/blog/the-runaway-review/nickel-zinc/
- https://zincfive.com/news/zincfive-nickel-zinc-battery-technology-achieves-9-4-10-score-in-climate-impact-profile/
- https://www.eose.com/eos-znyth-battery-outperforms-competition-in-sustainability-assessment/
Text on page 408
Zinc Batteries Comparison Safety, sustainability, long storage durations and long battery life are major drivers for growth of zinc battery technologies.
Zinc Ion
Zinc Nickel
Zinc Bromide
Zinc Air
Li-Ion
Commercial Application
Stationary Storage (3-12 hrs)
UPS (<1hr)3
Stationary Storage (3-12 hrs)2
Stationary Storage (24+ hrs)
Electric Vehicles; Stationary Storage (1-4 hrs)
Gravimetric Energy Density (Wh/kg)
Volumetric Energy Density (Wh/L)
Voltage (V)
Cycle Life
DoD Calendar Life Safety Sustainability Assessment Score
100% 15-20 years1
15 years3
20 years2
Non-flammable, not reactive to air or water3 9.4/10
Source: 1 DOE Energy Earthshots Technology Strategy Assessment Zinc Batteries; 2 https://www.eose.com/technology/; 3 Zinc Battery Initiative Presentation; 4 Mitsubishi Electric
15-20 years1
10 Poor Poor
Extracted from the PDF; charts and images may read imperfectly.
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