Lithium–carbon monofluoride cell

Example

Use in Lemonergy

Do not carry lithium-ion assumptions into every chemistry.

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Conversion reaction

An electrode reaction in which the host compound is broken down and reformed, as sulfur or a metal fluoride is, rather than lithium slotting into an intact structure. Conversion materials store more charge than intercalation hosts but suffer large volume change and voltage hysteresis.

Lithium–manganese dioxide cell

The most common lithium primary chemistry: a lithium-metal negative, a heat-treated manganese dioxide positive and an organic electrolyte, giving 3 V. It fills CR-coded coin cells such as the CR2032 and cylindrical CR123A camera cells, and loses only about 1 % of its capacity a year in storage.

Lithium–thionyl chloride cell

A 3.6 V primary cell in which liquid thionyl chloride is both the electrolyte solvent and the positive reactant, reduced on a porous carbon electrode. A protective lithium chloride film keeps self-discharge around 1 % a year, so cells run utility meters and trackers for 10–20 years, but it also causes a voltage delay when a load is first applied.

Primary cell

A cell designed to be discharged once and not recharged, such as an alkaline or lithium–manganese dioxide cell. Its reaction is not reversible in practice, unlike the secondary cells this glossary is mostly about.

Specific energy

Stored energy per unit mass, in watt-hours per kilogram. Commercial lithium-ion cells range from about 160 Wh/kg for LFP to around 270 Wh/kg for high-nickel chemistries; at pack level the figure drops by a quarter or more.

References & further reading

Further reading on this topic

These sources provide broader context; they are not presented as citations for every statement in this entry.

1. Promise and reality of post-lithium-ion batteries with high energy densities

   Jang Wook Choi, Doron Aurbach · Nature Reviews Materials · 2016

   Topic background · Post-lithium-ion materials and battery concepts, including practical cell-level limitations; historical 2016 perspective.

2. DOE/EPRI 2013 Electricity Storage Handbook in Collaboration with NRECA

   Sandia National Laboratories · 2013

   Topic background · Storage technologies and grid services. The publisher notes that its historical cost and deployment figures are outdated.