The longest-range electric cars available in 2025

The Mercedes EQS and BMW iX xDrive50 lead the 2025 market with EPA-estimated ranges exceeding 400 miles on a single charge. The Mercedes EQS sedan reaches up to 453 miles, while the BMW iX SUV reaches 380 miles. The Tesla Model S Long Range delivers 405 miles, and the Lucid Air offers up to 516 miles — the highest EPA rating among production vehicles currently sold in the United States.

Range varies significantly based on trim level, battery size, drivetrain (single or dual motor), and wheel size. A car's EPA rating assumes mixed highway and city driving under controlled conditions. Real-world range depends on weather, driving habits, terrain, and how much highway versus city driving you do. Cold weather can reduce range by 20 to 40 percent compared to EPA estimates.

The vehicles listed here represent sedans and SUVs from established manufacturers with dealer networks across the country. Availability, pricing, and trim options change throughout the model year, so checking the manufacturer's website or visiting a dealer gives you the current picture for your region.

Key Takeaways

  • The Lucid Air has the highest EPA-estimated range at 516 miles, followed by the Mercedes EQS at 453 miles and the Tesla Model S Long Range at 405 miles.
  • Range depends on battery size, motor configuration, wheel size, and trim level — the same model can vary by 50 miles or more between versions.
  • EPA estimates assume mixed driving; highway driving typically yields better range than city driving, and cold weather reduces range by 20 to 40 percent.
  • Charging infrastructure, charging speed, and your typical driving distance matter more than maximum range for most owners — a 300-mile car works fine if you charge at home and rarely drive more than 200 miles in a day.

How EPA range testing works and why real-world results differ

The EPA tests electric vehicles on a standardized cycle that simulates city and highway driving in controlled conditions — 55 percent city, 45 percent highway, at an average speed of 48 mph. The test occurs at 68 to 86 degrees Fahrenheit and does not account for air conditioning or heating. A vehicle's EPA rating represents the distance it should travel under these specific conditions before the battery reaches zero percent.

Real-world range almost always falls short of EPA estimates because actual driving includes factors the test does not: sustained highway speeds (which increase energy use), cold weather (which reduces battery efficiency), aggressive acceleration, and heating or air conditioning. A car rated at 400 miles might deliver 320 to 360 miles in winter highway driving, or 380 to 420 miles in mild weather on mixed roads.

Owners who charge at home and drive primarily on city streets often see range closer to EPA estimates. Those who rely on fast-charging networks and drive long highway distances typically see 15 to 25 percent less range than the EPA number. Tire pressure, cargo weight, and roof racks also reduce range — each 10 percent increase in weight reduces range by roughly 5 to 7 percent.

Long-range sedans: Mercedes EQS, Tesla Model S, and Lucid Air compared

The Lucid Air (2025 model year) offers the longest EPA range at 516 miles for the Sapphire trim with the extended-range battery. The base Air Pure reaches 420 miles. Lucid has fewer than 100 dealerships in the United States, so service and test drives may require travel. Pricing starts around $69,900 for the Air Pure.

The Mercedes EQS reaches 453 miles (2025 EQS 500+) and combines long range with established dealer support and a luxury interior. The EQS is available as a sedan or SUV (EQS SUV). Pricing begins near $105,000 for the sedan. Mercedes offers a network of service centers and charging partnerships across the country.

The Tesla Model S Long Range delivers 405 miles and starts around $73,000. Tesla's Supercharger network is the largest in North America, which matters if you travel frequently. The Model S is available with single or dual motors; the Long Range uses dual motors. Tesla service is available at company-owned centers and through authorized service partners in most regions.

All three use lithium-ion battery packs and support DC fast charging. Charging time from 10 to 80 percent ranges from 25 to 35 minutes at a 350 kW fast charger, depending on the vehicle and charger output. Home charging on a Level 2 charger (240 volts) takes 8 to 12 hours for a full charge.

Long-range SUVs: BMW iX, Kia EV9, and Genesis GV70 Electrified

The BMW iX xDrive50 reaches 380 miles (2025 model year) and seats five across a spacious interior. The iX combines long range with BMW's dealer network and luxury features. Pricing starts near $87,000. The iX uses a dual-motor setup and supports up to 200 kW DC fast charging.

The Kia EV9, a three-row SUV, reaches 304 miles for the Long Range trim (2025 model). The EV9 seats up to seven and offers better value than luxury competitors — pricing begins around $55,000 for the Long Range. Kia's warranty covers the battery for 10 years or 100,000 miles. The EV9 supports 233 kW DC fast charging, among the fastest in its class.

The Genesis GV70 Electrified (Genesis is Hyundai's luxury brand) reaches 330 miles and starts near $65,000. Genesis offers concierge service and white-glove delivery. The GV70 is a compact luxury SUV with a refined interior and supports 233 kW DC fast charging. Genesis and Kia share battery technology and charging standards.

SUVs typically have lower range than sedans of the same size because of higher weight and aerodynamic drag. A three-row SUV like the EV9 trades some range for passenger and cargo space. If you need seven seats and long range, the EV9 is one of few options; if you need maximum range and can accept five seats, a sedan delivers better efficiency.

How battery size and motor configuration affect range

A larger battery stores more energy and delivers longer range, but adds weight and cost. Most long-range vehicles use batteries between 75 and 112 kilowatt-hours (kWh). The Lucid Air's extended-range battery is 112 kWh; the Tesla Model S Long Range uses approximately 100 kWh; the Mercedes EQS uses approximately 107 kWh. A smaller battery in the same vehicle reduces range by 50 to 100 miles.

Dual-motor vehicles (one motor per axle) deliver all-wheel drive and better traction but consume more energy than single-motor versions. A dual-motor car typically loses 20 to 40 miles of range compared to a single-motor version with the same battery. Larger wheels (20 inches versus 18 inches) also reduce range by 10 to 20 miles because they increase rolling resistance and weight.

Manufacturers publish range for each trim and configuration. The EPA label on the window sticker shows the specific range for that exact vehicle — battery size, motor count, and wheel size all appear on the label. When comparing two vehicles, check that you are comparing the same battery and motor configuration; a base model and a performance model of the same car can differ by 100 miles or more.

Charging speed and real-world charging time for long-range vehicles

DC fast charging (also called Level 3) is the standard for long-distance travel. Most long-range vehicles support 150 to 350 kW charging speeds. The Lucid Air supports up to 350 kW, the Mercedes EQS up to 200 kW, and the Tesla Model S up to 250 kW. Charging speed depends on the charger's output, the vehicle's onboard charger, battery temperature, and state of charge.

Charging from 10 to 80 percent typically takes 25 to 35 minutes at a 350 kW charger. Charging from 80 to 100 percent takes much longer because the battery slows charging to protect itself — most owners stop at 80 percent for daily use and only charge to 100 percent before long trips. A 300-mile trip with one 30-minute charging stop is realistic for most long-range vehicles.

Home charging on a Level 2 charger (240 volts, 7 to 19 kW) adds 25 to 30 miles of range per hour. A full charge overnight is standard for owners with home charging. Public Level 2 chargers (at workplaces, shopping centers, and parking lots) charge more slowly — typically 6 to 10 kW — and are better for topping up during errands than for full charges.

Charging networks vary by region. Tesla's Supercharger network covers most highways and urban areas. Electrify America, EVgo, and ChargePoint operate independent networks. Many vehicles support multiple charging networks through adapters or built-in compatibility. Before buying, check which networks operate in your area and along routes you drive frequently.

When maximum range matters and when it does not

Maximum range matters most if you drive long distances regularly without access to home charging, or if you live in a rural area where charging stations are sparse. A 516-mile range car lets you drive from Boston to Washington, D.C., with one charging stop. A 300-mile car requires two stops on the same trip.

For daily commuting and local driving, maximum range matters less. If you drive 40 miles per day and charge at home overnight, a 300-mile car covers a week of driving on one charge. You will never use the full range. In this scenario, a smaller battery and shorter-range vehicle may offer better value and lower cost.

Climate and terrain affect how much range you actually need. Cold climates reduce range by 20 to 40 percent, so a 400-mile car becomes a 240 to 320-mile car in winter. Mountainous terrain increases energy use on climbs. If you live in a cold region and drive mountain roads, you need more rated range to achieve the same real-world distance.

Charging availability is the real constraint for most owners. If you have home charging and live near public chargers, a 300-mile car works for almost all trips. If you rely entirely on public charging and have limited access, a 400+ mile car reduces the number of charging stops and the time spent charging. Assess your actual driving patterns and charging access before prioritizing maximum range.

Frequently Asked Questions

Do electric cars lose range as the battery ages?

Yes, but slowly. Most manufacturers may provide the battery will retain 70 to 80 percent of its capacity after 8 to 10 years or 100,000 to 120,000 miles. Real-world degradation is typically 2 to 3 percent per year in the first five years, then slower. A car with 405 miles of range might have 390 miles after five years of normal use.

Can I get the EPA range in real driving?

Rarely. EPA estimates assume ideal conditions — mild weather, mixed driving, no air conditioning or heating. Real-world range is usually 10 to 25 percent lower. Drivers who charge at home, drive mostly city streets in mild weather, and avoid highway speeds often come close to EPA estimates. Highway driving and cold weather reduce range significantly.

Is a longer-range car worth the extra cost?

It depends on your driving. If you drive more than 200 miles most days or live far from charging, longer range reduces charging stops and saves time. If you drive under 100 miles daily and charge at home, a shorter-range car costs less and meets your needs. Compare the price difference against how often you actually need the extra range.

What is the difference between EPA range and manufacturer range claims?

EPA range is the official U.S. government test result and appears on the window sticker. Manufacturer claims sometimes use different testing standards (like WLTP in Europe) and often show optimistic results. Always use the EPA number when comparing vehicles sold in the United States.

Can I improve my electric car's range?

Yes, through driving habits. Smooth acceleration, maintaining steady highway speeds under 65 mph, and using regenerative braking (coasting to slow down) all improve range. Keeping tires properly inflated, removing roof racks, and avoiding air conditioning in mild weather also help. In cold weather, preheating the car while plugged in preserves battery energy for driving.