The lithium-iron-phosphate (LFP) battery, now a cornerstone of the EV revolution, surprisingly originated in the United States. Early nickel-manganese-cobalt (NMC) cathodes were developed at Argonne National Laboratory, and the foundational work on LFP batteries was pioneered by John Goodenough at the University of Texas at Austin. This groundbreaking research laid the groundwork for a safer and more cost-effective battery technology.
John Goodenough and Arumugam Manthiram’s landmark papers in 1987 and 1989 detailed iron-based cathodes, solving issues like voltage fade. Goodenough’s 1997 paper further solidified LFP’s potential. Despite these American innovations, the U.S. failed to capitalize on the technology’s long-term potential, focusing instead on short-term gains and batteries requiring less frequent charging.
While the U.S. hesitated, China recognized the immense potential of LFP batteries and aggressively scaled up production. Chinese companies like CATL, BYD, CALB, and Gotion have propelled LFP to dominance, particularly in the EV sector. These batteries are cheaper to produce due to the absence of expensive materials like nickel and cobalt, offering better thermal stability and consistent performance, albeit with lower energy density compared to NMC batteries.
Today, LFP batteries constitute nearly 81% of installed battery production in China, powering EVs with impressive range and fast-charging capabilities. The U.S. now imports LFP technology, using it in entry-level models of Tesla Model 3, Ford Mustang Mach-E, and Rivian R1T and R1S. However, China’s early adoption and scaling have allowed it to become the world’s largest battery maker, with CATL leading the charge.
| Company | Battery Type | Market Share |
|---|---|---|
| CATL | LFP | Leading |
| BYD | LFP | Significant |
| CALB | LFP | Growing |
Nissan faces significant challenges due to a lack of competitive EVs and hybrids, leading to plunging profits and poor sales. CEO Ivan Espinosa is implementing a radical turnaround plan to cut costs and revive the brand. This includes slashing 20,000 jobs, closing seven factories, and reducing engineering costs by 20%. The plan also aims to simplify car parts by 70% and reduce the number of platforms from 13 to seven.
Nissan plans to launch the new-generation Leaf and other models like the next-gen Skyline sedan and a compact Infiniti SUV. However, the success of this rescue plan is uncertain, as it involves global plant closures and production reshuffling to mitigate tariff impacts and rising competition. Only time will tell if Nissan can successfully revive its “heartbeat.”
| Measure | Details | Expected Impact |
|---|---|---|
| Job Cuts | 20,000 jobs | Cost savings |
| Factory Closures | 7 factories | Reduce production footprint |
| Engineering Costs | 20% reduction | Efficiency gains |
Tesla is urging Panasonic to accelerate U.S. production of EV batteries due to the Trump administration’s 25% tariffs on foreign vehicles and parts. Panasonic’s CEO, Yuki Kusumi, mentioned that Tesla, their main customer, is encouraging faster U.S. battery production. Producing batteries in the U.S. could help Tesla’s EVs qualify for significant tax credits.
However, the Trump administration is also considering ending these tax credits as part of its budget cuts, with House Republicans proposing a bill to eliminate the incentives. This situation highlights the complex interplay between trade policies, government incentives, and the strategic decisions of EV manufacturers and their suppliers.
Nissan, an early entrant in the EV market with the Leaf, is set to launch a new, more efficient Leaf model featuring the Tesla-style NACS charging port. This new Leaf, designed as a bulbous SUV, aims to provide a much-needed boost to Nissan’s EV strategy and potentially offer an affordable EV option for American consumers. The question remains: can this new model truly rescue Nissan and restore its position in the competitive EV market?
