Science ยท Engineering ยท Future Energy

A clear atlas of lithium battery technology

Explore how lithium batteries emerged, how they work, why chemistries differ, how cells are manufactured, and where battery progress is likely to move next.

Laboratory scene with lithium battery cells and instruments
1991
First mass-market Li-ion cell
7
Major chemistry families covered
12
Reference chapters
3.7 V
Typical nominal Li-ion voltage

Choose a path through the topic

Each page is an encyclopedia chapter with diagrams, tables, and short explanations.

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History

From intercalation research to commercial rechargeable Li-ion batteries.

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How It Works

Follow lithium ions through charge and discharge.

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Chemistries

Compare LFP, NMC, NCA, LCO, LMO, LTO, and lithium-metal.

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Cell Formats

Understand cylindrical, prismatic, pouch, coin cells, modules, and packs.

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Materials

Explore anodes, cathodes, electrolytes, separators, and silicon.

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Manufacturing

See how electrodes become cells and packs.

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Safety

Learn degradation, BMS protection, and thermal runaway basics.

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Applications

Phones, EVs, grid storage, aerospace, medical, and tools.

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Future

Solid-state, recycling, lithium-sulfur, lithium-air, and AI discovery.

Battery progress is cumulative

1970s

Rechargeable lithium concepts

Researchers studied lithium intercalation and high-voltage cathode materials.

1991

Commercial Li-ion arrives

Rechargeable cells moved into portable electronics and changed consumer products.

2010s

EV scale-up

Large-format packs, battery management, and gigafactory manufacturing became central.

2020s

Materials race

Solid-state concepts, silicon-rich anodes, recycling, dry electrodes, and software-defined packs accelerate.