Linked from

The 63 pages that link to Electric vehicle, each with the reason it gives.

• Electric motorRelated: Traction motors turn stored electrical energy into vehicle motion.

• Direct currentRelated: Vehicle batteries store DC, which power electronics adapt for motors and auxiliaries.

• Energy storageRelated: Its traction battery stores energy for transport and can sometimes return power to the grid.

• Lead–acid batteryRelated: Lead–acid batteries powered early electric vehicles and still serve auxiliary functions in many modern vehicles.

• LithiumRelated: Vehicle electrification is a major driver of demand for lithium-ion batteries.

• Critical mineralsRelated: Batteries, motors, and power electronics give electric vehicles varied mineral needs.

• BatteryRelated: Traction batteries determine an electric vehicle’s range, cost, and charging needs.

• Battery management systemRelated: Traction packs require monitoring across many cells under changing power and temperature demands.

• Power electronicsRelated: Traction inverters and onboard converters control motor power and manage battery charging.

• Road transportRelated: Electrification can reduce tailpipe emissions while shifting energy and infrastructure demands elsewhere.

• Induction motorRelated: Some electric vehicles use induction motors for traction, including early Tesla models.

• Stranded assetRelated: Electric vehicles can reduce demand for oil infrastructure and accelerate the risk of related assets becoming uneconomic.

• Virtual power plantRelated: Charging schedules, and sometimes battery discharge, can make vehicle fleets flexible grid resources.

• Automotive aerodynamicsRelated: Reducing aerodynamic drag can extend an electric vehicle’s driving range.

• Lithium miningRelated: Electric-vehicle adoption is a major driver of projected battery-lithium demand.

• Mercedes-BenzRelated: Battery-electric models now form part of Mercedes-Benz’s product range.

• Rare-earth magnetRelated: Traction motors commonly use rare-earth magnets for high power density.

• Lithium iron phosphate batteryRelated: LFP packs are widely used where durability, cost, and safety matter more than maximum range per unit mass.

• Solid-state batteryRelated: Higher energy density could extend driving range or reduce battery mass.

• DysprosiumRelated: Some traction motors use dysprosium-bearing permanent magnets to withstand operating heat.

• Rechargeable batteryRelated: Traction batteries determine an electric vehicle’s range, cost, and charging needs.

• BusbarRelated: Rigid busbars connect cells, modules, and power electronics in many traction batteries.

• Electric batteryRelated: Traction batteries determine an electric vehicle’s range, power, cost, and charging needs.

• John B. GoodenoughRelated: Lithium-ion batteries made practical range and energy density possible for modern electric cars.

• Akira YoshinoRelated: Lithium-ion batteries became a major energy-storage technology for modern electric vehicles.

• United Parcel ServiceRelated: UPS has adopted electric delivery vehicles to reduce tailpipe emissions and fuel use.

• HatchbackRelated: Electric hatchbacks pair a compact body with battery-powered urban and everyday driving.

• History of the batteryRelated: Battery-powered vehicles appeared early and later became a major driver of storage research.

• M. Stanley WhittinghamRelated: Lithium-ion batteries, whose development Whittingham helped initiate, made long-range electric vehicles more practical.

• Energy engineeringRelated: Vehicle electrification shifts energy demand toward electricity and charging infrastructure.

• History of road transportRelated: Electric propulsion marks a new transition in road vehicle technology and energy use.