Battery electrolytes: Emissions

Where electrolyte's modest carbon footprint really comes from

Where electrolyte's modest carbon footprint really comes from What this tab covers The greenhouse-gas footprint per tonne, split by lifecycle phase (feedstock, production, movement, use, end of life), the global total, other environmental impacts, levers and low-carbon routes, India's position, and where the investment opportunity lies. Emission intensity 3.50 t CO2e per t range about 2-6 · indicative: about 11% LiPF6 at about 10-20 t CO2e per t plus about 89% carbonate solvents and additives at about 1.5-2.5 t; not published by producers Global emissions per year 8.00 Mt CO2e per year 2025 · about 3.5 t x 2.38 Mt

Per t of blended electrolyte, cradle-to-gate. Intensity: derived (indicative). Global total: derived (indicative).

Share of footprint by lifecycle phase

Feedstock 68% Production / process 26% Movement 6%

Footprint by lifecycle phase

Phase	Intensity	Share	Main sources of emissions	Notes	Source
Feedstock	about 2.4 t CO2e per t	68%	ethylene oxide and methanol for solvents; fluorspar, HF and lithium carbonate for LiPF6	Indicative split	Indicative
Production / process	about 0.9 t CO2e per t	26%	LiPF6 synthesis and drying, solvent distillation, inert blending	Coal-heavy Chinese power	Indicative
Movement	about 0.2 t CO2e per t	6%	drums and ISO tanks to cell plants	Indicative	Indicative
Use	not applicable	–	sealed in cells	Electrolyte fuels fires in thermal runaway	Not applicable
End of life	not published	–	evaporated or burned in pyrometallurgical recycling; some solvent recovery	Fluorine can be released as HF	Indicative

Other environmental impacts

HF and fluoride emissions from LiPF6 plants; solvent VOCs; fluorine release in battery fires and recycling.

Levers to cut emissions

Integrate LiPF6 with low-carbon HF and renewable power
Bio- or CO2-based solvents (EC already uses CO2)
Solvent recovery in recycling
Lower-fluorine salts and additives

India

India's electrolyte footprint is embedded in imported cells; local blends from Neogen are small.

Emission figures are indicative global averages from the life-cycle studies named; actual footprints vary widely by site, energy mix and method.

Low-carbon routes

Route	Intensity	Cost premium	Status	Source
Electrolyte from CO2-derived carbonates and renewable power	not published	not published	EC is made from CO2 and ethylene oxide at scale; full low-carbon chains not found in sources used	Indicative

For a climate investor Electrolyte is a small share of cell cost but a large share of supply risk, because China makes about 93% of it and over 90% of LiPF6. India has the fluorine chemistry base (Navin Fluorine, SRF, GFCL with HF and fluorochemicals) to make LiPF6 and LiFSI near future cell plants. For this to work, Indian cell plants must ramp, fluorspar must be secured (India imports most acidspar) and qualification must be won. The 2025-26 price spike from RMB 49,600/t to above RMB 170,000/t shows the margin swings any entrant must survive. Neogen and GFCL are the named first movers.