Analysts examining the raw material demands behind worldwide electric vehicle adoption say a complete transition from combustion engines would require unprecedented mining expansion, massive energy consumption, and supply chains heavily dependent on China.
By yourNEWS Media Newsroom
Efforts by governments across the United States and Europe to accelerate the transition from gasoline-powered vehicles to electric vehicles are colliding with growing concerns over mineral shortages, environmental degradation, supply chain concentration, and labor conditions tied to battery production.
In 2024, President Joe Biden announced a target for electric vehicles to account for 56% of all new car sales in the United States by 2032. California Governor Gavin Newsom similarly implemented regulations requiring 35% of new vehicles sold in the state by the 2026 model year to qualify as zero-emissions vehicles, increasing to 68% by 2030 and reaching 100% by 2035.
The European Union approved comparable policies in 2023 prohibiting sales of new vehicles emitting carbon dioxide beginning in 2035, while the United Kingdom announced plans to end sales of new diesel and gasoline vehicles by 2030.
Industry groups have questioned whether such targets are achievable given current infrastructure and mineral supply limitations.
The Alliance for Automotive Innovation stated that reaching 100% zero-emission vehicle sales by 2035 in states following California’s rules “will take a miracle.”
Analysts examining global mineral requirements argue that replacing the world’s estimated 1.5 to 1.6 billion vehicles with battery-powered alternatives would create extraordinary demand for lithium, cobalt, nickel, graphite, manganese, copper, and aluminum.
According to figures cited in the report, a standard 75-kilowatt-hour nickel-manganese-cobalt battery requires approximately 9 kilograms of lithium, 13 kilograms of cobalt, 40 kilograms of nickel, 25 kilograms of manganese, and 66 kilograms of graphite.
Scaled globally, that would require roughly 13.5 million metric tons of lithium, 19.5 million metric tons of cobalt, 60 million metric tons of nickel, 37.5 million metric tons of manganese, and 99 million metric tons of graphite.
The report identified cobalt as the most immediate constraint. The U.S. Geological Survey estimated global cobalt reserves at roughly 11 million metric tons, substantially below the amount needed for a complete worldwide conversion to nickel-manganese-cobalt battery systems.
Lithium reserves were identified as another major pressure point. Estimates cited from Statista placed known reserves at approximately 28 million metric tons, meaning electric vehicle demand alone could consume nearly half of current global reserves before accounting for grid-scale storage systems or consumer electronics.
The report also noted that while graphite and nickel reserves are larger, a worldwide transition would still consume significant portions of available supply.
Manufacturers have increasingly shifted toward lithium iron phosphate, or LFP, battery chemistry, which eliminates cobalt and nickel requirements. According to data cited from Visual Capitalist, LFP batteries increased from 19% of the global market in 2020 to 55% in 2025.
However, the report argued that the shift introduces new geopolitical dependencies because more than 98% of LFP cathode materials and battery cells are produced in China.
China currently dominates large portions of the global processing chain, accounting for nearly two-thirds of lithium processing capacity, 75% of cobalt processing, 95% of manganese processing, and most graphite refining operations, according to data cited from APM Research Lab.
Chinese battery manufacturers also control much of the finished battery market. CATL reportedly held roughly 36% to 38% of the global electric vehicle battery market in 2025, while BYD accounted for approximately 18%.
The report argued that replacing dependence on oil-producing nations with dependence on Chinese mineral processing infrastructure creates a separate strategic vulnerability for Western economies.
Researchers also raised concerns regarding the scale of mining required to support worldwide electric vehicle adoption.
A study cited in the report estimated that producing a single nickel-manganese-cobalt battery may require extraction of between 91 and 607 tonnes of rock. Applying those figures globally could require excavation of hundreds of billions of tonnes of earth.
Lithium extraction was identified as especially water-intensive. According to estimates cited from the Institute for Energy Research, lithium production may consume approximately 500,000 gallons of water per metric ton.
The report stated that mining operations in Chile’s Salar de Atacama have already consumed large portions of regional water supplies, while lithium extraction in South America’s so-called Lithium Triangle could intensify environmental stress across arid ecosystems.
Environmental concerns also extend to cobalt and nickel production.
The report cited estimates from Humanium indicating that approximately 40,000 children are involved in cobalt mining operations in the Democratic Republic of Congo under hazardous conditions involving exposure to toxic substances.
The U.S. Department of Labor previously placed Congolese cobalt ore on its list of goods produced through child labor practices.
Meanwhile, nickel refining growth in Indonesia has increasingly relied on coal-powered industrial operations. The report cited findings from the International Energy Agency showing rising coal demand linked to Indonesia’s rapidly expanding nickel-processing sector.
Critics of aggressive electric vehicle mandates also point to the carbon emissions generated during battery manufacturing itself.
According to analysis cited from McKinsey & Company, producing a 75-kWh battery pack emits more than seven tonnes of carbon dioxide equivalent.
The report estimated that battery-electric vehicles begin production with a larger carbon footprint than comparable internal combustion vehicles, with total manufacturing emissions for a global fleet replacement potentially reaching between 6 and 10.5 billion tonnes of CO2-equivalent before the vehicles are driven.
Supporters of electric vehicles argue those emissions are offset over time through lower operating emissions, particularly as electrical grids transition toward lower-carbon generation.
However, the report argued that grid composition remains a major factor. According to figures cited from DieselNet, approximately 58% of China’s electricity generation in 2025 still came from fossil fuels, with coal accounting for the majority of power generation.
The report concluded that the scale of mineral extraction, processing expansion, infrastructure construction, and geopolitical concentration required for a complete worldwide electric vehicle conversion presents significant material, environmental, and humanitarian challenges that remain unresolved under current supply chain conditions.
Source: The Gateway Pundit
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