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30 models / home charging

EV Charging Cost by Model

Choose an EV, electricity rate, and gasoline benchmark to calculate charging cost per 100 miles, then compare the same assumptions across 30 popular models.

Choose a vehicle and energy prices

Costs update instantly and the model, rate, and comparison assumptions stay in the URL.

¢/kWh
%
$/gal
mpg

Residential energy statement

Instant planning estimate · not a utility invoice

home charging cost
$5.13/100 mi
Vehicle
Tesla Model Y Long Range
Wall energy
31.1 kWh
Gas comparison
$11.67
EV fuel savings
$6.54
Usable battery
75 kWh

EV charging cost by model

Representative 2024–2026 specifications · all costs use 16.48¢/kWh and 10% charging loss

Battery, efficiency, charging cost, and gasoline comparison for 30 electric vehicle models
ModelBatteryRoad efficiencyCost / 100 mivs gas
Acura ZDX A-Spec102 kWh35 kWh/100 mi$6.41save $5.26
Audi Q4 e-tron 5577 kWh36 kWh/100 mi$6.59save $5.07
BMW i4 eDrive4081 kWh29 kWh/100 mi$5.31save $6.36
BMW iX xDrive50105 kWh39 kWh/100 mi$7.14save $4.53
Cadillac Lyriq RWD102 kWh35 kWh/100 mi$6.41save $5.26
Chevrolet Blazer EV RWD102 kWh35 kWh/100 mi$6.41save $5.26
Chevrolet Equinox EV FWD85 kWh30 kWh/100 mi$5.49save $6.17
Chevrolet Silverado EV205 kWh53 kWh/100 mi$9.70save $1.96
Ford F-150 Lightning ER131 kWh48 kWh/100 mi$8.79save $2.88
Ford Mustang Mach-E ER RWD91 kWh31 kWh/100 mi$5.68save $5.99
Genesis Electrified GV7077 kWh39 kWh/100 mi$7.14save $4.53
GMC Hummer EV Pickup205 kWh63 kWh/100 mi$11.54save $0.13
Honda Prologue FWD85 kWh32 kWh/100 mi$5.86save $5.81
Hyundai Ioniq 5 RWD84 kWh28 kWh/100 mi$5.13save $6.54
Hyundai Ioniq 6 SE RWD77 kWh24 kWh/100 mi$4.39save $7.27
Kia EV6 Long Range RWD81 kWh28 kWh/100 mi$5.13save $6.54
Kia EV9 Long Range RWD100 kWh38 kWh/100 mi$6.96save $4.71
Lucid Air Pure84 kWh23 kWh/100 mi$4.21save $7.46
Mercedes-Benz EQE 350+90 kWh32 kWh/100 mi$5.86save $5.81
Nissan Ariya Venture+87 kWh32 kWh/100 mi$5.86save $5.81
Nissan Leaf SV Plus60 kWh30 kWh/100 mi$5.49save $6.17
Polestar 2 Long Range79 kWh27 kWh/100 mi$4.94save $6.72
Porsche Macan Electric96 kWh36 kWh/100 mi$6.59save $5.07
Rivian R1S Dual Large131 kWh43 kWh/100 mi$7.87save $3.79
Subaru Solterra73 kWh36 kWh/100 mi$6.59save $5.07
Tesla Model 3 Long Range75 kWh24 kWh/100 mi$4.39save $7.27
Tesla Model Y Long Range75 kWh28 kWh/100 mi$5.13save $6.54
Toyota bZ4X FWD71 kWh32 kWh/100 mi$5.86save $5.81
Volkswagen ID.4 Pro77 kWh32 kWh/100 mi$5.86save $5.81
Volvo EX30 Single Motor64 kWh28 kWh/100 mi$5.13save $6.54

How EV charging cost by model works

EV charging cost by model starts with efficiency, not battery capacity. Efficiency describes how many kilowatt-hours the vehicle uses to travel 100 miles under a test cycle. Battery capacity says how much energy the pack can hold. A large, efficient sedan can cost less per mile than a smaller but less efficient vehicle even when the sedan has the larger pack.

Cost per 100 mi=road kWh per 100 mi1charging loss×electricity rate\text{Cost per 100 mi} = \frac{\text{road kWh per 100 mi}}{1 - \text{charging loss}} \times \text{electricity rate}
The rate is converted from cents to dollars. Gas cost per 100 miles equals 100 ÷ mpg × dollars per gallon.

The table uses rounded, representative usable battery capacities and combined-driving efficiency figures compiled from 2024–2026 EPA listings and manufacturer specifications. A model name can cover several drivetrains, battery packs, wheel sizes, and model years, so the values are comparison inputs rather than trim-level promises. Choose the closest configuration and substitute observed efficiency from the car for a personal forecast.

Charging loss bridges road energy and household-meter energy. With a 10% loss assumption, a vehicle that uses 27 kWh from its battery over 100 miles draws 30 kWh from the wall: 27 ÷ 0.90. Loss varies with charging power, temperature, battery conditioning, and auxiliary loads. Slow charging can spend a larger share on electronics and thermal management, while DC fast charging can carry different station-side accounting.

Worked example

Take an EV rated at 27 kWh per 100 miles. At 10% charging loss it requires 30 wall kWh. Electricity at 15¢/kWh makes those 100 miles cost $4.50. A gasoline car returning 30 mpg at $3.60 per gallon uses 3.33 gallons and costs $12.00 for the same distance. The energy-only saving is $7.50 per 100 miles, or about $900 over 12,000 miles if prices and efficiency stay unchanged.

How to interpret the model comparison

Use the marginal rate that applies when the car charges. A time-of-use plan may make overnight energy cheaper than the household average. Public charging often has a different per-kWh price and can add session, idle, or parking fees; this page models home charging only. The gasoline comparison is fuel-only and does not claim a total ownership advantage. Purchase price, insurance, tires, maintenance, depreciation, taxes, and charging equipment are outside the formula.

For battery refill cost, multiply usable capacity by the change in state of charge, divide by one minus charging loss, then multiply by the electricity rate. That estimate is separate from cost per mile because two cars with the same pack can travel different distances on a refill. The dedicated EV charging calculator adds state-of-charge and charging-time inputs when a trip or charging session matters more than a cross-model table.

Questions about EV model charging costs

How do I calculate EV charging cost for a specific model?
Divide the model's road efficiency by one minus charging loss, then multiply wall kWh per 100 miles by the electricity price in dollars per kWh.
Does battery size determine charging cost per mile?
No. Efficiency determines energy per mile. Battery capacity mainly affects driving range and the cost of a large refill.
Why does the calculator add charging loss?
EPA-style road efficiency describes energy leaving the battery. The household meter also supplies losses in wiring, power electronics, battery conditioning, and the battery.
Can cold weather change the model table?
Yes. Cabin heating, battery conditioning, dense air, and cold tires can increase consumption, so replace the representative efficiency with seasonal driving data when available.

Sources

  1. U.S. EPA / FuelEconomy.gov — Find and compare cars (2024–2026 model data)Combined electric energy-consumption references; table figures are rounded.
  2. U.S. DOE Alternative Fuels Data Center — Electric vehicle charging (2025)Charging equipment, power, and loss context.
  3. U.S. EIA — Electric Power Monthly, Table 5.6.A (2024 annual)Optional state residential rate defaults.
  4. Vehicle manufacturer specifications (2024–2026)Battery configurations cross-checked against public specification sheets; trims vary.

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