EVRange - EV Range Calculator
Free, independent EV range estimates

About EVRange

EVRange was created to solve one of the biggest pain points for electric vehicle drivers: understanding how far you can actually drive in real-world conditions. We believe that accurate range information empowers drivers to make confident decisions—whether you're planning a road trip, evaluating an EV purchase, or simply trying to understand your daily commute capabilities.

Our Mission

EVRange was created to solve one of the biggest pain points for electric vehicle drivers: understanding how far you can actually drive in real-world conditions. We believe that accurate range information empowers drivers to make confident decisions—whether you're planning a road trip, evaluating an EV purchase, or simply trying to understand your daily commute capabilities.

Who We Are

EVRange is built and maintained by Omar Jlab, an EV owner and independent researcher. After years of watching real-world range fall short of the optimistic figures on manufacturer brochures, he created EVRange to give drivers honest, condition-adjusted estimates. Every model page and article is researched and reviewed personally — cross-checking official WLTP and EPA ratings against published real-world testing before it goes live.

Built by an EV owner who plans real-world range every day — not an anonymous content farm
Every estimate starts from official WLTP/EPA data, then applies transparent, documented adjustment factors
The model database is kept current as new EVs launch and fresh real-world data emerges

How Our Calculator Works

1

WLTP/EPA Baseline Data

We collect official range ratings from manufacturer specifications, WLTP (Worldwide Harmonised Light Vehicles Test Procedure) certifications, and EPA testing when available. These serve as our baseline figures.

2

Scientific Correction Factors

We apply peer-reviewed correction factors from studies by organizations like AAA, Norwegian Automobile Federation (NAF), ADAC, and independent researchers. These factors account for temperature impact on battery chemistry, aerodynamic drag at different speeds, HVAC energy consumption, regenerative braking efficiency, and rolling resistance variations.

3

Personalized Calculation

Your inputs (temperature, speed, driving style, terrain, heating/cooling usage) are combined using weighted algorithms that reflect real-world energy consumption patterns. The result is an estimate tailored to your specific driving scenario.

Our Data Sources

Transparency is important to us. Here's where our data comes from:

Official manufacturer specifications and press releases
WLTP certification documents from European regulatory bodies
EPA Fuel Economy data for US-market vehicles
Published research from AAA, NAF, ADAC, and academic institutions
Real-world testing data from automotive publications like Edmunds, Car and Driver, and What Car?
Aggregated owner reports and community feedback

Our Methodology

Our range calculation model incorporates the following scientific principles:

Temperature Impact

Based on studies showing lithium-ion batteries lose 10-40% capacity in cold conditions. We use temperature coefficients derived from AAA's 2019 cold weather study and NAF's winter range tests.

Speed & Aerodynamics

Air resistance increases with the square of velocity. Using each vehicle's drag coefficient (Cd) and frontal area, we calculate energy consumption at different speeds.

HVAC Consumption

Heating a cabin without engine waste heat requires significant battery power. Heat pumps reduce this impact by 40-60% compared to resistive heating. We model both scenarios.

Driving Style

Aggressive acceleration and hard braking reduce efficiency by 15-25% compared to smooth, eco-conscious driving. Regenerative braking recovery varies by system and driving patterns.

Accuracy & Limitations

Our estimates are designed to give you a realistic picture of achievable range, but they are not guarantees. Real-world range can vary significantly based on factors we cannot model, including:

Individual battery health and degradation state
Tire type, pressure, and condition
Payload weight and cargo
Specific route elevation profile
Traffic conditions and driving patterns
Use of accessories beyond heating/cooling

Always plan trips with a safety margin, especially in cold weather or on unfamiliar routes. Use manufacturer navigation and charging planning tools for critical journeys.

Get in Touch

Have feedback, found an error, or want to suggest a new vehicle? We'd love to hear from you at contact@evrange.app. We typically respond within 48 hours.

contact@evrange.app