40%

Battery share of EV price

Industry analysis

The New Frontier of Fixed Costs

The systemic failures of ultra-cheap internal combustion engine (ICE) cars demonstrate that profitability cannot be sustained when margins are razor-thin and prices are rigid. The global transition to electric vehicles (EVs) promised a renewed path to affordability by eliminating the complex and maintenance-intensive ICE powertrain. However, this shift merely exchanges one set of high fixed costs for another: the high, geopolitically vulnerable cost of the battery.

6x

More minerals used in EVs vs ICE

IEA data

The question of affordability has migrated, not disappeared, and the cost of the EV battery pack currently prevents price parity with ICE vehicles. This battery cost, which accounts for up to 40% of the price of a new EV, introduces severe supply chain vulnerabilities and material cost volatility that establish a new, high structural price floor for mass mobility.

600%

Lithium price surge since 2022

Market data

The Geopolitical Constraints on Affordability

The high upfront cost of EVs is heavily driven by the minerals required for lithium-ion batteries and the concentration of material processing in just a few countries.

$8,255

Average raw material costs per EV (May 2022)

Industry reports

144%

Increase from March 2020

Market analysis

Critical Mineral Volatility

EVs use approximately six times more minerals than conventional vehicles. The four principal minerals—nickel, manganese, cobalt, and lithium—are subject to extreme price volatility. For instance, lithium prices surged over 600% since the beginning of 2022, creating substantial inflation in EV manufacturing costs. The cost increases are significant: average raw material costs for an EV totaled $8,255 per vehicle in May 2022, a 144% increase from March 2020.

75%

China's control of raw materials market

Global supply chain data

The processing facilities for these critical materials are heavily concentrated globally; for example, China controls nearly three-quarters of the raw materials market required for EV batteries. This dependency makes the EV supply chain acutely vulnerable to geopolitical shifts and trade disruptions. Geopolitical crises, such as the conflict in Ukraine, immediately impact the industry by constraining supplies of materials like nickel and neon (used for chip production).

65-70%

Energy density of LFP batteries

Battery technology reports

The Battery Chemistry Cost Substitution

In response to high costs and ethical concerns (cobalt mining is linked to human rights abuses), manufacturers are pursuing new battery chemistries. The shift toward Lithium Ferrous (Iron) Phosphate (LFP) batteries represents a move to lower-cost, safer materials. LFP batteries utilize widely available iron and phosphorus, offering a longer lifespan and greater safety compared to high-cobalt counterparts.

However, this substitution involves a trade-off in performance: LFP batteries provide only 65% to 70% of the energy density of other chemistries, meaning that to achieve equivalent range, the battery must be physically larger and heavier. This increased size and weight can reduce overall EV efficiency and possibly cause faster wear on tires. Furthermore, LFP batteries are still more geared toward entry-level vehicles, ensuring that the highest performance models continue to rely on the most expensive materials.

60-70%

Lower EV maintenance costs

Fleet operator data

$10,000

Annual fuel cost for gas van (100 miles/day)

Industry estimates

$2,000

Annual cost for electric equivalent

Industry estimates

$64,000

Average EV price in US

Market data

$7,500

Tax credits available

Government incentives

The Path to Lower Total Cost of Ownership

Despite the high initial price, EVs offer undeniable advantages in long-term ownership through significantly reduced operational costs. Extracting this low operational cost structure, however, is subject to the TCO Paradox, as consumers frequently focus solely on the high purchase price.

Low Operating and Maintenance Costs

EVs require significantly less maintenance due to fewer moving parts—an EV motor has around 20 moving components, compared to roughly 2,000 in a combustion engine. Overall EV maintenance costs are estimated to be 60% to 70% less than ICE maintenance costs. Fleet operators, for example, save substantially on fuel; a gas-powered delivery van driving 100 miles daily costs over $10,000 annually in fuel, compared to less than $2,000 for an electric equivalent.

However, the high average price of new EVs—over $64,000 in the U.S.—remains cost-prohibitive for many households, regardless of lifetime savings. This gap is expected to be addressed by government policies offering financial incentives, such as tax credits up to $7,500, to offset the initial purchase cost.

50%

Cost reduction from remanufacturing

Battery lifecycle studies

10%

Primary supply reduction from recycling by 2040

Global projections

Lifecycle Management and Resiliency

Achieving sustainable affordability requires reducing dependence on new mining and mitigating battery replacement costs. EV battery lifecycle management, including repair, refurbishment, and recycling, is crucial. Extending the “first life” of a battery through remanufacturing can reduce replacement costs by up to 50% compared to buying a new pack.

Recycling is also gaining importance, as the recovered quantities of minerals like lithium and nickel could reduce primary supply requirements by around 10% by 2040. Global leaders like China are far ahead in recycling capacity. However, the U.S. is investing billions to build a robust domestic supply chain, focusing on new gigafactories and sourcing critical minerals domestically to shore up economic competitiveness and energy independence. Enhanced supply chain visibility, leveraging connected packaging and real-time tracking, is also becoming a necessity to mitigate risks and improve efficiency in the movement of complex, sensitive components globally.

Conclusion: The New Structural Price Floor

The affordable car of the future will be electric, but it will not be cheap by historical standards. The systemic flaws that doomed the ultra-cheap ICE segment—especially financial rigidity and quality compromise—have been replaced by the high fixed cost of the battery and vulnerabilities in the global supply chain.

To ensure widespread EV adoption and truly unlock the long-term TCO benefits, the industry must focus on three strategic areas: aggressively pursuing cost-reducing technologies like LFP, stabilizing the mineral supply through recycling and domestic sourcing, and creating business models that effectively communicate the low long-term operational cost to consumers. EV affordability depends on manufacturers providing transparency and predictability, ensuring that the high price of the new electric vehicle translates into a genuine and reliably low long-term financial burden.