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EV Battery Guide

Free EV Tool

EV Range Calculator

Find out how far your electric car will really go. Pick your EV, set the temperature, speed and load, and get an honest real-world range estimate — not just the lab-tested EPA number.

  • 11 popular EVs
  • Normal / Highway / Winter modes
  • Temperature curve
  • 100% free
1

Your vehicle

Choose a preset, or fine-tune the conditions below.

Drive mode
100%
Scale the mode penalty up or down if your driving is milder or harsher than average.
2

Driving conditions

Weather and speed change EV range more than anything else.

70°F
0°F50°F100°F
65 mph
305585 mph
Climate control (heat / AC) on
Adds about a 6% energy penalty.
3

Load and tires

Weight and rolling resistance quietly eat into range.

0 lb
Tire type
All-season tires typically cost about 3% of range versus eco tires.
Estimated real-world range
–
–
Efficiency –
Battery per 100 mi –
EPA rated range –
Usable battery –
EPA rated–
Your estimate–

Tips to go farther

    Planning estimate only. Real range varies with wind, hills, battery age and driving style.

    What Is an EV Range Calculator?

    An EV range calculator estimates how far your electric car can actually travel on a full charge under real driving conditions. The range number on the window sticker — the EPA rating in the United States — is measured in a laboratory on a dynamometer, with gentle acceleration, no headwind, and the climate control off. Real life is rarely that kind. This calculator starts from each vehicle’s EPA-rated range and usable battery capacity, then adjusts for the factors that matter most: outside temperature, cruising speed, heating and cooling, passenger and cargo weight, tire choice, and drive mode.

    What Affects Electric Car Range the Most?

    Six variables explain almost all of the gap between rated range and real-world range:

    • Temperature. Lithium-ion battery chemistry slows in the cold, and cabin heating is energy-hungry. At 0°F, many EVs deliver only about 70% of their 70°F range. Heat above 90°F also trims range as the battery cooling system works overtime.
    • Speed. Aerodynamic drag rises with the square of speed. Cruising at 80 mph instead of 65 mph can cut range by roughly 10 to 15 percent — the single biggest lever on highway trips.
    • Climate control. Heating the cabin in winter can consume 3 to 5 kW continuously, worth about 6% of range on this calculator’s baseline. Seat heaters use a fraction of that energy.
    • Weight. Every extra 200 lb of passengers and cargo trims roughly 1% of range, mostly in stop-and-go driving.
    • Tires. Low-rolling-resistance eco tires can add 3% versus standard all-season rubber; underinflated tires cost a similar amount.
    • Battery age. Most EV batteries lose 1 to 2% of capacity per year. A five-year-old pack may hold 90 to 95% of its original energy.

    EPA vs WLTP vs Real-World Range

    In the United States, the Environmental Protection Agency (EPA) publishes the official range figure after lab testing with adjustment factors. In Europe, the WLTP cycle is used instead — and WLTP numbers typically run 10 to 20% higher than EPA for the same car because the test cycle is gentler. Neither matches every driver. Independent testing by outlets like Edmunds and real-world owner data consistently show that steady 70-mph highway driving lands 10 to 20% below the EPA figure, while careful city driving with regenerative braking can meet or beat it. Use the EPA number for comparing cars, and a calculator like this one for planning trips.

    How Cold Weather Reduces EV Range

    Winter is the toughest season for electric cars, and drivers in Canada, Norway, and the northern United States feel it most. Three things happen at once: the battery’s internal resistance rises so it delivers less usable energy, the cabin heater draws kilowatts that would otherwise move the car, and cold tires and denser air add drag. The combined effect is commonly a 20 to 40% range loss at 20°F versus 70°F. The fixes are simple: precondition the cabin and battery while still plugged in, use seat heaters instead of blasting hot air, keep the car garaged overnight, and leave a bigger buffer in your charging stops.

    How to Maximize Your EV Range

    1. Slow down on the highway. 65 mph instead of 80 mph is the highest-return change you can make.
    2. Precondition while plugged in. Heat or cool the cabin on wall power, not battery power.
    3. Keep tires at the door-jamb pressure. Check monthly; pressure drops as temperatures fall.
    4. Use eco mode and one-pedal driving. Gentle acceleration and strong regenerative braking stretch every kilowatt-hour.
    5. Travel light. Remove roof boxes and unnecessary cargo before long trips.

    EV Range Calculator FAQs

    It is a planning estimate, typically within 10% of what careful drivers see, because it models the physics that dominate consumption: temperature, speed, climate load, weight and tires. Wind, hills, rain and battery age can still shift the result, so leave a 10 to 15% buffer on unfamiliar routes.

    The EPA test uses moderate speeds, mild temperatures and no climate control. Real driving adds highway speeds, weather, heating or cooling, extra weight and less efficient tires — each taking a slice. At a steady 75 mph in winter, 70 to 80% of the EPA figure is completely normal.

    Typically 20 to 40% at around 20°F compared with 70°F, depending on the model and how much cabin heat you use. Heat-pump-equipped EVs lose less. Preconditioning while plugged in recovers a meaningful part of the loss.

    Yes. Aerodynamic drag grows with the square of speed, and unlike gas cars, EVs have no gears to mask it. Going from 65 to 80 mph raises energy use per mile by roughly 20%, which is why slowing down is the fastest way to extend range on a road trip.

    Less than heating does. AC typically trims 3 to 6% of range, while resistive cabin heating in deep winter can take 10% or more. Pre-cooling while plugged in and using ventilated seats keeps the penalty small.

    EPA is the US standard and WLTP is used in Europe and the UK. WLTP figures usually read 10 to 20% higher for the same vehicle because the test cycle includes slower average speeds. Compare EPA to EPA and WLTP to WLTP — never mix the two.

    Gradually. Most modern EV batteries degrade about 1 to 2% per year and typically retain 90% or more of original capacity after five years. Frequent DC fast charging and spending lots of time at 100% charge can accelerate the loss slightly.

    Efficient sedans like the Tesla Model 3 achieve 4.0 to 4.5 mi/kWh in mild weather. Most crossovers land between 3.0 and 3.7, and large electric trucks sit near 2.0 to 2.5. Higher is better — it means more miles from each kilowatt-hour.

    Drive 65 mph on highways, precondition while plugged in, keep tires properly inflated, use seat heaters instead of cabin heat in winter, remove roof racks and excess cargo, and accelerate gently to maximize regenerative braking.

    More Free EV Tools

    Keep planning your electric drive with our other free calculators and finders.

    All EV Tools Home Charging Cost Calculator EV Charging Time Calculator EV vs Gas Cost Calculator US EV Tax Credit Eligibility Checker Best EV Finder Quiz MSRP Calculator EV Charging Station Locator

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    I've spent 15 years working in EV battery manufacturing and servicing. This site covers everything US EV owners need to know — how batteries work, degrade, charge, and what replacement actually costs.

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    • Home
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      • Battery Basics
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      • EV Charging Time Calculator
      • EV vs Gas Cost Calculator
      • US EV Tax Credit Eligibility Checker
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