Could the key to a dominant Ford future be not electric cars but powering America’s grid? With a move that is calling into question the whole clean energy strategy the company had been pursuing, the automaker is converting the battery factory that the company had built for making batteries for its cars into a stationary battery factory employing licensed lithium iron phosphate battery technology supplied by China’s Contemporary Amperex Technology Co. Ltd. (CATL).
The move is part of a deliberate pivot in the wake of changes in American industrial policy. The Trump administration has significantly rolled back federal support for EVs, starting with cuts to consumer tax credits and followed by sector-specific support through the One Big Beautiful Bill Act (OBBBA). However, importantly, federal support for battery manufacturing continues, on the proviso that battery producers meet tough criteria for “prohibited foreign entities” (PFEs) aimed at ensuring that Chinese influence in American energy infrastructure is repelled. The CATL battery licensing agreement, concluded prior to the imposition of the new conditions, applies because it is grandfathered in, allowing the firm access to federal Section 45X advanced manufacturing credits in return for employing tried-and-true Chinese battery designs.
In terms of technology, NMC chemistry was deliberately chosen over LFP technology. LFP consumer cells have lower kilowatt hour cost, better cyclic durability, and enhanced thermal performance, factors that are essential for stationary storage applications and less important for consumer electronics. In Kentucky, prismatic LFP cells would be manufactured and assembled into BESS modules and then incorporated into DC containers measuring 20 feet with capacities above 5 megawatt hours per unit. These containers would be designed for data center use, substations, and industry.
Ford’s ambitions appear to be sizeable in scale. Production is expected to start in 18 months, with an aim to increase battery production capacity to a minimum of 20GWh in late 2027. This can be expected in line with future energy trends in the U.S., where battery storage capacity in the energy sector can be anticipated to reach a record high of 18.2 GW in 2025 due to an expected integration of solar energy and an increase in electricity demand, anticipated to increase by 12% in 2030, with over a third of it contributed by data centers.
The other area that Ford’s plan incorporates is a residential storage play. In BlueOval Battery Park Michigan, Ford will manufacture smaller amp hour LFP prismatic cells from 2026. The cells will be for powering home energy management and Ford’s new midsize electric truck based on their new Universal EV Platform. By extending their focus from utility scale and then covering residential scale, they will capture a wide range of markets.
Policy environment complexities persist. The OBBBA’s PFE provisions enshrined nuanced “material assistance” thresholds based on direct cost ratios attributed to foreign-controlled concerns. Wenning explains that these laws require a yearly reduction in import ratios to ensure more parts come from native manufacturers. Although CATL licensing exempts them from current strict requirements, any future outgrowths or technology changes may eventually raise stagflation risks. Industry experts say it is true that “a rare comparative advantage may provide a short-term edge on LFP battery-based storage,” but it seems to be short-term before CATL develops native chemistries compatible with U.S. laws on content requirements.
The bigger picture brings into focus the relevance of the Ford pivot. The Solar Energy Industries Association plans for a total of 700 GWh of storage in the U.S. by the year 2030. This is seven times the level of today’s total capacity. This would require aggressive scaling in production, in permitting, in developing a U.S. supply chain each of which could be game-changing for Ford. In addition, a higher level of renewables requires a high level of storage in order to enable the resulting power to be dispatchable. This is just the beginning. Storage would enable hospitals and hyperscale data centers.
“So given the fact that we already had a license to build that technology in the U.S., you can couple that with our manufacturing expertise, with over a century of high-scale manufacturing, it just made an awful lot of sense as a natural adjacency for us,” said Lisa Drake, Vice President of Technology Platform Programs and EV Systems. CEO Jim Farley stated that capital from its money-losing automaker business can be redeployed to “even higher-return growth opportunities” such as energy storage, hybrids, and commercials.
Whether such an shift would assist the U.S. in closing its gap in technologies with China’s battery industry is also unclear. The LFP battery technology licensed to Ford is not CATL’s most up-to-date system, and Ford would have to innovate upon it and similar systems in order to be competitive on a global scale. However, in the immediate future, market demand, government subsidy opportunities, and production readiness certainly put Ford on track to be one of America’s key contributors to its energy storage infrastructure.
