EV Range Calculator
Select your EV model and driving conditions to see a real-world range estimate. Compare best-case, typical, and worst-case scenarios — temperature, HVAC load, and speed all matter.
Enter your details to see your results
Vehicle data updated: May 2026(may be outdated)
How This Calculator Works
Choose your EV model or enter EPA range
Select a preset EV model to auto-fill its EPA-rated range, or type a custom EPA range if your vehicle is not listed. Remember: EPA range is a standardized lab estimate — real-world range will differ based on conditions.
Enter the current temperature
Temperature is the single largest real-world range variable. Use the slider to set the ambient temperature. Below -10°C (14°F), lithium-ion chemistry slows significantly and cabin heating draws heavily from the battery pack.
Select your driving style
Choose City (stop-and-go, regenerative braking recovers energy), Mixed (daily blend), or Highway (sustained high speed). Highway driving creates the highest aerodynamic drag penalty — roughly -15% versus the EPA cycle.
See your real-world range estimate
The calculator applies temperature, HVAC, and driving-style losses to produce an adjusted range estimate across three scenarios. Use this to plan trips, set charging stops, and understand when conditions demand a buffer.
Key Factors in Real-World EV Range
Temperature Is the Biggest Factor
Cold weather shrinks lithium-ion capacity and slows ion movement. At -30°C (-22°F) a battery may deliver only 60% of its rated capacity — a 40% range loss. Even a modest -10°C (14°F) day reduces usable range by roughly 20–25%. Heat pumps (available on Tesla, Kia, Hyundai, Volkswagen EVs) cut heating energy use by 2–3×, preserving more range in winter.
HVAC Draws From the Same Battery
Unlike gasoline cars that use waste engine heat for cabin warming, EVs power their HVAC system entirely from the traction battery. A resistive heater can consume 3–5 kW — enough to erase 20–30% of range on a cold commute. Pre-conditioning the cabin while plugged in is the most effective way to limit this loss.
Highway Speed Hits Hard
Aerodynamic drag scales with the square of speed. Driving 70 mph instead of the EPA test cycle average (~40 mph equivalent) increases drag by roughly 35%, costing about 15% of range. City driving with frequent stops actually benefits from regenerative braking, making stop-and-go less punishing than intuition suggests.
EPA Range Is a Best-Case Estimate
The EPA test cycle was designed for consistency, not worst-case accuracy. It does not combine winter temperatures with sustained highway speeds — two conditions that together can cut range by 40–50%. Treat the EPA figure as an upper bound, not a guarantee. This calculator shows you a more realistic range for your specific driving conditions.
Battery Degradation Is Not Included
This calculator assumes a new or like-new battery pack. In practice, lithium-ion capacity fades 1–3% per year under normal use. After 5 years, a well-maintained EV typically retains 85–90% of original range; after 10 years, 75–85%. If your vehicle is older, subtract 5–15% from the estimated range to account for capacity loss.
Frequently Asked Questions
Why is my actual range always less than the EPA rating?
The EPA range is a controlled laboratory estimate — it does not replicate real driving. Three factors account for most of the gap: temperature (cold weather reduces battery chemistry performance and forces the cabin heater to run), HVAC load (heating or cooling the cabin draws 2–5 kW directly from the traction battery), and driving style (sustained highway speeds create far more aerodynamic drag than the EPA test cycle average). Together these can reduce real-world range by 20–50% compared to the EPA figure.
How much range do I lose in winter?
At mild winter temperatures (0°C / 32°F) expect roughly 15–20% range reduction. Below -10°C (14°F) the loss typically reaches 25–35%, and at -20°C (-4°F) or colder it can exceed 40%. The exact amount depends on whether you use the cabin heater, how long you pre-condition while plugged in, and whether your EV has a heat pump. Heat pump–equipped EVs (Tesla Model Y, Kia EV6, Hyundai Ioniq 6) lose roughly half as much range to heating as resistive-heater models.
Does this calculator account for battery aging?
No — the calculation assumes a new battery at full rated capacity. Real-world lithium-ion capacity degrades roughly 1–3% per year under normal charging and driving patterns. After 5 years, subtract about 5–10% from the estimate; after 10 years, subtract 10–20%. Most manufacturers provide a warranty covering at least 70% capacity retention for 8 years or 100,000 miles. If your battery is already degraded, enter a reduced EPA range to get a more accurate real-world result.
How accurate is the EPA range estimate compared to real driving?
The EPA range is a standardized lab estimate using a fixed five-cycle test protocol. In mild weather (60–75°F / 15–24°C) at moderate suburban speeds, most EVs hit roughly 95–105% of the EPA figure — quite accurate. Where it falls short: sustained highway speed (~85% of EPA), winter cold (~70–80% of EPA), and combined winter highway (~60% of EPA). Treat EPA as a best-case ceiling and this calculator as the realistic operating range. The EPA itself acknowledges these limits and is updating test methodology for 2027 model year vehicles.
What is the difference between WLTP and EPA range ratings?
WLTP (Worldwide Harmonised Light Vehicles Test Procedure) is the European range standard; EPA is the US standard. WLTP figures are typically 15–25% higher than EPA for the same vehicle because the WLTP test cycle uses lower average speeds, milder accelerations, and lighter HVAC load. When comparing EVs imported from Europe (Polestar, MG, BYD) you may see WLTP-only ratings on press materials — translate WLTP × 0.80 to estimate the EPA equivalent. This site uses EPA figures throughout because it targets US drivers.
Does highway driving reduce range more than city driving?
Yes — counter to gas-car intuition. Highway driving at sustained 70+ mph creates aerodynamic drag that scales with the square of speed, costing 10–20% of EPA range. City driving, despite frequent stops, actually benefits from regenerative braking that recaptures kinetic energy back into the battery — making stop-and-go traffic roughly EPA-equivalent or slightly better in temperate weather. The reverse holds for gas cars (city is worst, highway is best) because internal combustion is most efficient at steady cruise.
Can I extend my EV range by changing how I drive?
Yes — three habits make a measurable difference. (1) Drive 65 mph instead of 75 mph: saves 8–12% of range due to lower aerodynamic drag. (2) Use Eco mode and one-pedal driving: smooth acceleration and regenerative braking can add 5–10% in mixed conditions. (3) Pre-condition the cabin while plugged in: avoids drawing 3–5 kW from the battery to heat or cool during the first 10 minutes of the drive. Combined, careful drivers consistently hit 110–115% of the EPA estimate in temperate weather.
Does using the air conditioner reduce range as much as the heater?
No — air conditioning is significantly less punishing than cabin heating in most EVs. A typical EV A/C compressor draws 1–2 kW (4–8% of range over a long drive), while a resistive heater draws 3–5 kW (12–25% of range). The reason: A/C uses an efficient vapor-compression cycle, while resistive heaters convert electricity directly into heat. EVs with heat pumps (Tesla Model 3/Y, Kia EV6, Hyundai Ioniq series, Volkswagen ID.4) cut heating energy use by 2–3×, narrowing the gap. In hot southern states, A/C impact is also worse for high-mileage city drivers.
Get Free EV Updates
Monthly EV insights — charging tips, TCO comparisons, and new model analysis. Real data, no spam.