Earn with Nexo
General Motors signals potential shift away from LFP batteries in future EVs
GM's battery chief suggests the automaker may abandon lithium iron phosphate cells for vehicles, redirecting its Tennessee plant toward energy storage systems instead.
General Motors built an entire factory around the idea that cheaper lithium iron phosphate batteries would be the future of its electric vehicles. Now the company is reconsidering that bet, with its battery chief suggesting LFP cells might not make it into future GM EVs at all.
Instead, the automaker is pivoting its Spring Hill, Tennessee plant to produce LFP cells for stationary energy storage systems, serving grid infrastructure and data centers rather than the cars and trucks that were the original point of the whole operation.
From EV dreams to grid reality
Ultium Cells, GM’s joint venture with LG Energy Solution, announced plans in July 2025 to produce LFP cells for electric vehicles at the Tennessee facility. Commercial production was targeted for late 2027.
By March 2026, GM confirmed a $70 million investment to retool the Spring Hill plant, but the mission had changed. LFP production would begin in the second quarter of 2026, focused entirely on energy storage systems rather than vehicles.
Roughly 700 workers who had been previously laid off were set to be rehired as part of the transition.
GM Vice President Kurt Kelty, the company’s battery chief, has emphasized the importance of exploring multiple battery chemistries, including high-nickel cells, lithium manganese-rich (LMR) technology, and even sodium-ion alternatives.
Why energy storage is the smarter play
US energy storage system installations reached 57.6 GWh in 2025, a 30% increase compared to the prior year.
Kelty has pointed to LFP’s cost advantages, noting the chemistry could deliver around $6,000 in savings per vehicle on select models.
What this means for investors
By signaling interest in sodium-ion technology alongside high-nickel and LMR cells, GM is essentially saying it wants batteries that push the performance envelope for vehicles while reserving the budget-friendly chemistry for applications where cost-per-kilowatt-hour matters more than energy density.
The $70 million retooling investment is relatively modest by automotive standards. The real question is whether the energy storage market’s 30% annual growth rate sustains long enough to make this pivot look prescient rather than reactive.