FAQ

An electric car, also called a battery electric vehicle (BEV), runs entirely on electricity stored in a rechargeable traction battery. One or more electric motors drive the wheels, and the battery is replenished by plugging into an external power source. Regenerative braking can recover some energy while the car is slowing down.

A battery-electric car has no gasoline engine and produces no tailpipe emissions. It also avoids engine oil changes and many other combustion-engine maintenance items, although tires, brakes, filters, suspension, and other vehicle systems still need normal care.

A hybrid car, or hybrid electric vehicle (HEV), combines a gasoline engine with one or more electric motors and a small high-voltage battery. The vehicle automatically blends gas and electric power to improve efficiency, and regenerative braking captures energy that would otherwise be lost as heat.

A conventional hybrid does not plug in. Its battery is recharged while driving through regenerative braking and the powertrain. Hybrids generally use less fuel and produce lower tailpipe emissions than comparable gasoline-only vehicles, but the size of the benefit depends on the specific model and how it is driven.

A plug-in hybrid electric vehicle (PHEV) combines a gasoline engine with an electric motor and a larger rechargeable battery that can be plugged into an external power source. Unlike a conventional hybrid, a PHEV can drive a meaningful distance on electricity alone before the gasoline engine is needed.

Many current PHEVs offer roughly 25 to 60 miles of electric-only range, although the exact figure varies by model. Charging regularly is important if you want to maximize electric driving and fuel savings. For longer trips, the gasoline engine provides additional range without requiring a charging stop.

A battery electric vehicle (EV or BEV) runs entirely on electricity and must be plugged in to recharge. A conventional hybrid (HEV) has both a gasoline engine and an electric motor, and it does not need to be plugged in because it recharges its small battery while driving.

A plug-in hybrid (PHEV) sits between the two: it has a gasoline engine plus a larger battery that can be plugged in for electric-only driving. EVs have no tailpipe emissions, while hybrids and PHEVs can produce tailpipe emissions whenever their gasoline engines are running. The best choice depends on your charging access, daily mileage, road-trip needs, budget, and vehicle preferences.

Three common advantages of a conventional hybrid are better fuel economy, lower fuel use and tailpipe emissions than a comparable gasoline-only vehicle, and the convenience of not needing to plug in. Hybrids recover energy through regenerative braking and use an electric motor to reduce how much work the gasoline engine has to do.

They can be especially appealing to drivers who want to reduce fuel consumption but do not have reliable home charging or do not want to plan around charging on longer trips. The actual fuel-economy benefit varies by model and driving conditions, so compare EPA ratings for the vehicles you are considering.

The average price paid for a new EV was $56,238 in June 2026, according to Kelley Blue Book. For comparison, the average transaction price across all new vehicles was $49,758 that month. Those are market averages, not the price of a typical individual EV, and actual prices vary widely by size, brand, range, trim, and incentives.

The former federal new- and used-clean-vehicle purchase credits are not available for vehicles acquired after September 30, 2025. State, utility, manufacturer, lease, and dealer offers can still affect the effective price. When comparing affordability, also include charging, insurance, maintenance, registration, and expected resale value, not just the sticker price.

An electric car can last as long as a comparable gasoline vehicle when it is properly maintained, but there is no single mileage or age that applies to every EV. The traction battery usually loses capacity gradually, while the rest of the vehicle still experiences normal wear to tires, suspension, brakes, electronics, climate-control components, and the body.

Battery condition is an important part of long-term EV value. Several manufacturers provide battery coverage around 8 years or 100,000 miles, and battery lifespan depends on climate, chemistry, thermal management, charging habits, and use. A specific claim such as 5 percent range loss every 100,000 miles is not a reliable universal rule.

No, not for a vehicle acquired after September 30, 2025. The federal New Clean Vehicle Credit of up to $7,500 ended for vehicles acquired after that date. The used and qualified commercial clean-vehicle credits ended on the same acquisition deadline.

A buyer who entered into a binding written contract and made a payment on an eligible vehicle on or before September 30, 2025 may still qualify when the vehicle is later placed in service, subject to the former rules. For a qualifying legacy transaction, Form 8936 and Schedule A are used to claim or reconcile the credit. Check current IRS guidance or a tax professional for your specific filing situation.

No federal clean-vehicle purchase credit is available for a hybrid or plug-in hybrid acquired after September 30, 2025. Conventional hybrids did not qualify for the former federal clean-vehicle credit, and the federal credits that could apply to eligible plug-in hybrids ended for vehicles acquired after that date.

State, local, utility, manufacturer, and dealer incentives may still be available and can vary by location and vehicle. If you acquired an eligible plug-in vehicle on or before September 30, 2025 under the IRS acquisition rules, you may still be able to claim the former credit when the vehicle is placed in service.

For a vehicle acquired after September 30, 2025, no buyer is eligible for the former federal New Clean Vehicle Credit or Previously-Owned Clean Vehicle Credit because those credits ended for new acquisitions.

If you acquired an eligible vehicle on or before September 30, 2025 under the IRS rules and placed it in service later, the former eligibility requirements can still matter. For the new-vehicle credit, the modified adjusted gross income limits were $150,000 for single filers, $225,000 for heads of household, and $300,000 for married couples filing jointly or qualifying surviving spouses, along with vehicle and transaction requirements. Confirm any legacy claim using current IRS guidance.

You can finance an electric, hybrid, plug-in hybrid, or fuel-efficient vehicle much like any other car. Options can include dealership financing, a bank or credit union, or another auto lender. Compare the annual percentage rate, loan term, down payment, total interest, and any manufacturer or dealer offers before choosing a loan.

GreenCars shoppers can browse available cleaner vehicles through the GreenCars Marketplace. At participating Lithia-owned dealerships, Driveway Finance Corporation is one of the financing sources that may be available. Loan approval, rates, and terms depend on the applicant and transaction.

EV charging time depends on the charging level, the vehicle’s maximum charge rate, battery size, starting state of charge, temperature, and the charging curve. As a general guide, Level 1 charging on 120 volts adds about 2 to 5 miles of range per hour, while Level 2 charging on 208 or 240 volts adds about 10 to 30 miles per hour.

DC fast charging is designed for road trips and can add roughly 100 to 200 or more miles in 30 minutes, depending on the EV and charger. Fast-charging speed normally slows as the battery gets fuller, so automakers often quote a 10-to-80-percent time instead of a full 0-to-100-percent charge.

A conventional hybrid does not need to be plugged in. Its small traction battery is recharged while driving through regenerative braking and, when needed, by the gasoline engine.

A plug-in hybrid (PHEV) is different. It has a larger battery and charging port, and it should be plugged in regularly if you want to maximize electric-only driving and reduce gasoline use. Many PHEVs can charge overnight from a 120-volt outlet, while Level 2 charging is faster. If you never plug in a PHEV, it can still drive using gasoline, but you lose much of the efficiency benefit that comes from its electric range.

Home EV charging can use either a standard 120-volt outlet (Level 1) or a 240-volt circuit (Level 2). Level 1 is slow but can work for drivers with low daily mileage. Level 2 is much faster and is the most common choice for regularly charging a battery-electric vehicle at home.

You plug the vehicle into compatible EV supply equipment, and the car manages the charging process. Many owners schedule charging for off-peak utility hours when rates are lower. If a new 240-volt circuit, hardwired charger, or electrical-panel upgrade is needed, use a qualified licensed electrician and follow local permit requirements.

A licensed electrician should handle new 240-volt circuits, hardwired Level 2 EV chargers, electrical-panel upgrades, and other permanent electrical work. The electrician should evaluate available panel capacity, circuit sizing, grounding, charger location, and any permits or inspections required by your local authority.

If you are using a portable Level 1 charger on an existing 120-volt outlet, new electrical work may not be necessary, but the outlet and circuit still need to be in good condition and suitable for continuous charging. Before installation, check your EV’s maximum AC charge rate and local utility programs so you do not pay for more charging capacity than the vehicle or home can use.

Your electric bill will rise by the amount of energy you use to charge at home, multiplied by your utility’s electricity rate. A simple estimate is: monthly miles driven divided by the EV’s miles per kWh, then multiplied by your price per kWh. Real billing can be slightly higher because charging is not 100 percent efficient.

For example, 1,000 miles per month in an EV averaging 3.3 miles per kWh uses about 303 kWh at the battery. At the U.S. residential average of 18.44 cents per kWh in May 2026, that is about $56 before charging losses. Your actual cost can be much higher or lower, and time-of-use or EV-specific utility rates can make overnight charging cheaper.

Use your EV’s navigation system or a charging-station map to find compatible public chargers along your route. The best tools can filter by charging speed, connector type, network, and availability, which matters as North America continues its transition toward SAE J3400/NACS while many CCS-equipped vehicles remain on the road.

The GreenCars charging-station map shows public charging locations and port information. On a road trip, it is smart to check a station’s live status in your vehicle or charging-network app before arriving and to confirm whether your EV needs an approved adapter.

Public EV charging prices vary by network, location, charging speed, membership plan, and local electricity rules. Some stations charge by the kilowatt-hour, while others may add session, parking, or idle fees.

As a general planning range, GreenCars’ charging-cost guide cites roughly $0.20 to $0.40 per kWh for public Level 2 charging and about $0.30 to $0.65 per kWh for DC fast charging. Actual prices can be outside those ranges, so check the station screen or charging-network app before you plug in. Fast charging is usually more expensive than home charging, but it is designed to reduce time on longer trips.

Level 1 and Level 2 describe AC charging power, not connector type. Level 1 uses a standard 120-volt outlet and typically adds about 2 to 5 miles of range per hour. It can be enough for plug-in hybrids or EV drivers with low daily mileage.

Level 2 uses 208- or 240-volt power and typically adds about 10 to 30 miles of range per hour, making it the common choice for routine home and workplace charging. Connector compatibility is a separate issue. In North America, newer vehicles are increasingly adopting SAE J3400/NACS, while J1772, CCS, and approved adapters remain relevant depending on the vehicle and charging location.

Follow the service schedule in your EV’s owner’s manual. There is no universal once-a-year interval for every electric car. EVs do not need engine oil changes, spark plugs, or many other combustion-engine services, but they still need routine inspections and wear-item maintenance.

Common items include tire rotations and pressure checks, brake inspections and brake fluid as specified, cabin air filters, wiper blades and washer fluid, coolant or thermal-system service when the manufacturer requires it, the 12-volt battery, suspension and steering, and recalls or software updates. Service timing varies by model and mileage.

Yes. Cold temperatures can reduce EV driving range and charging performance. Battery chemistry is less efficient when cold, and the vehicle also uses energy to warm the battery and cabin. The size of the range loss varies by vehicle, temperature, speed, trip length, and whether the EV uses a heat pump.

To reduce the impact, precondition the vehicle while it is plugged in, keep tires properly inflated, use seat and steering-wheel heaters when practical, and leave extra range for winter trips. Many modern EVs can also precondition the battery before a fast-charging stop.

Service a hybrid according to its manufacturer’s maintenance schedule, which is usually based on time, mileage, vehicle condition, or a combination of those factors. Because a hybrid still has a gasoline engine, it needs engine oil and filter changes plus other conventional engine services at the specified intervals.

Hybrids also need tire rotations, brake and fluid inspections, cabin filters, suspension checks, and other normal vehicle maintenance. Regenerative braking can reduce friction-brake wear, but tire wear and service costs vary by model and driving conditions, so there is no universal rule that hybrids need tires more often.

Yes, for many routine services, but high-voltage EV work should be handled by a technician with specific electric-vehicle training and the right safety and diagnostic equipment. Tires, wipers, cabin filters, alignments, some brake work, and other conventional items may be handled by a qualified independent shop. Battery packs, high-voltage cables, power electronics, and some software or warranty repairs may require an EV specialist or dealership.

Before booking service, ask whether the shop works on your make and model and whether its technicians are trained for high-voltage systems. NHTSA specifically recommends a qualified technician with EV-specific high-voltage training for electric and hybrid vehicle service.

Usually not. Hybrids still need many of the same engine and chassis services as gasoline vehicles, but regenerative braking can reduce brake-pad wear and the high-voltage hybrid system does not require routine maintenance like engine oil changes.

Maintenance costs and intervals vary by model, so the owner’s manual is the best source for a specific vehicle. Tire wear should be judged by the vehicle, tire type, alignment, driving style, and load rather than assuming every hybrid wears tires faster.

Modern EV batteries are designed to last many years, and gradual capacity loss is more common than sudden failure. The U.S. Alternative Fuels Data Center notes that several manufacturers offer battery warranties around 8 years or 100,000 miles, while predictive modeling estimates today’s batteries may last about 12 to 15 years in moderate climates and 8 to 12 years in extreme climates.

Actual battery life depends on chemistry, thermal management, climate, charging patterns, mileage, and how the vehicle is used. If you are buying used, check the remaining battery warranty and, when available, the battery’s state of health rather than relying on mileage alone.

There is no single EV battery replacement price because the cost depends on battery size, vehicle model, labor, parts availability, and whether the repair requires a full pack or only serviceable modules or components. Recurrent’s cross-model research estimates that out-of-warranty full battery replacements commonly fall around $5,000 to $16,000, although some model-specific quotes can be higher.

Full battery replacement is not routine maintenance, and many battery defects or excessive capacity-loss issues may be covered by the manufacturer’s battery warranty. Before assuming a full pack is needed, get a diagnosis and a VIN-specific estimate from a qualified EV service provider.

Yes. A conventional hybrid or plug-in hybrid still has a gasoline engine, so it needs engine oil and filter changes at the intervals specified by the manufacturer. The exact schedule can vary by model, mileage, operating conditions, and the vehicle’s oil-life monitoring system.

Hybrids also need routine tire, brake, fluid, filter, and other inspections. Regenerative braking can reduce friction-brake wear, but it does not eliminate normal maintenance.

EVs still need routine maintenance even though they eliminate many engine-related services. The items to watch most often include tires and tire pressure, brakes and brake fluid as specified, cabin air filters, wipers and washer fluid, steering and suspension, the 12-volt battery, and any battery or power-electronics coolant service required by the manufacturer.

Tire wear can be faster on some EVs because of vehicle weight, torque, tire choice, and driving style, but it is not universal. Regenerative braking often reduces brake-pad wear, although the friction brakes still need inspection and can be affected by corrosion when used less frequently. Always follow the maintenance schedule for the specific vehicle.

EVs generally have lower scheduled maintenance costs than comparable gasoline vehicles because they do not need engine oil changes, spark plugs, timing belts, or many other combustion-engine services. A U.S. Department of Energy analysis estimated scheduled maintenance at 6.1 cents per mile for battery-electric vehicles versus 10.1 cents per mile for conventional gasoline vehicles, about 40 percent lower in that model.

That does not mean every EV repair is inexpensive. Tires, suspension, collision repairs, electronics, and out-of-warranty battery or power-electronics work can still be costly. Actual ownership cost depends on the specific vehicle, insurance, local labor rates, and how the car is driven.