2019 Subaru WRX
4D Sedan 6sp
•
39,000 miles
Cottonwood, AZ
$9,000
2019 Subaru WRX
Premium
•
41,900 miles
Winnsboro, TX
$17,500
2015 Subaru WRX
Limited
•
87,543 miles
Stow, MA
$17,999
2020 Subaru WRX
Premium
•
55,000 miles
Clover, SC
$18,000
2016 Subaru WRX
STi Limited
•
24,789 miles
Montgomery Village, MD
$17,830
2016 Subaru WRX
STI Series.H
•
52,200 miles
Apex, NC
$40,000
Types of Electric Vehicles
There are four main categories of electric vehicles, classified by powertrain type:
- Battery electric vehicles (BEVs). BEVs, also called all-electric vehicles, run entirely on electricity stored in rechargeable batteries. They have no gasoline engine and produce zero driving emissions. Popular BEV models include the Tesla Model 3 and Nissan Leaf.
- Plug-in hybrid electric vehicles (PHEVs). PHEVs combine an electric motor and rechargeable battery with a gasoline engine. They operate on battery power until depleted then switch to the gas engine. PHEVs include the Chevrolet Volt and BMW i8.
- Hybrid electric vehicles (HEVs). HEVs utilize both an internal combustion engine and one or more electric motors powered by a non-plug-in battery. The battery charges through regenerative braking and the gas engine. The Toyota Prius is a well-known HEV.
- Fuel cell electric vehicles (FCEVs). FCEVs generate electricity for propulsion via an onboard fuel cell powered by hydrogen. A hydrogen fuel cell vehicle emits only water vapor. FCEVs include models such as the Toyota Mirai.
Usually, when people discuss electric vehicle options, they’re referring to BEVs. Hybrids are not true electric vehicles, since they still have an internal combustion engine. Hydrogen fuel cell vehicles currently represent a very small portion of the overall EV market.
Some models are available in more than one EV type. For example, the Kia Niro offers multiple electrified powertrains. The Niro is available as a hybrid (HEV), a plug-in hybrid (PHEV), and a fully electric vehicle (EV), catering to a range of consumer preferences and needs.
Advantages of Electric Cars
Electric vehicles have pros and cons, but in general offer performance, economic, and convenience advantages over traditional gasoline-powered vehicles.
EV Economic Savings
EVs save drivers money in two key areas: fuel and maintenance.
- Electricity prices equate to only $1–2 per gallon gasoline equivalent, meaning that EV owners can save an average of $700 per year over owning an internal combustion vehicle.
- With no oil changes or exhaust systems to repair, total maintenance costs can be up to 40% less over the vehicle’s life.
Environmental Impact of Electric Cars
EVs have a mixed environmental impact when compared to their internal combustion counterparts. The net effect seems to be positive, but it’s a good idea to weigh all the following factors.
Environmental Positives
- EVs produce zero tailpipe emissions, which means they do not emit pollutants such as nitrogen oxides, particulate matter, and other pollutants that contribute to smog and health issues.
- Efficient electric motors convert over 77% of electrical energy into driving power, much higher than a gas engine’s efficiency.
- Even when accounting for the emissions from electricity generation, EVs typically have a smaller carbon footprint than gasoline cars. This is because electric motors are more efficient than internal combustion engines, and the electricity grid is increasingly being powered by renewable energy sources.
- By reducing reliance on petroleum, EVs can contribute to national energy security. The United States, for example, still imports a significant amount of petroleum, and EVs can help reduce this dependency.
- As the electricity grid becomes cleaner with more renewable energy sources, the life cycle emissions of EVs will continue to decrease, making them even more environmentally friendly over time.
Environmental Negatives
- The manufacturing process of EVs, especially the production of lithium-ion batteries, can be emissions-intensive due to the energy required to extract and process raw materials like lithium, cobalt, and nickel.
- The environmental benefits of EVs can vary depending on the source of electricity used to charge them. In regions where electricity is generated from fossil fuels, especially coal, the life cycle emissions advantage of EVs may not be as strong.
- The initial environmental footprint of EV production is greater than that of gasoline cars, primarily due to battery production. Concerns about the environmental impact of mining for battery materials and the end-of-life disposal or recycling of batteries are significant.
- The extraction of minerals required for EV batteries can have environmental impacts, including habitat disruption and pollution. However, the demand for these minerals is still less than the demand for fossil fuels.
EV Performance Benefits
Electric vehicles offer several key performance advantages over traditional internal combustion engine (ICE) vehicles:
- EVs provide full torque instantly, delivering faster acceleration from 0 mph than ICE vehicles. Their simpler electric motors can utilize 100% of their power immediately.
- EVs convert over 77% of electrical energy from the grid to power the wheels. ICE vehicles only convert 12–30% of gasoline’s energy into driving power.
- EV batteries lower the car’s center of gravity, enabling better weight distribution, cornering, and rollover prevention.
- Electric motors produce little noise, eliminating the need for loud mufflers and enabling a quieter, more serene ride.
- The simpler drivetrain of EVs requires less routine maintenance such as oil changes. Regenerative braking also reduces wear on brakes.
- EVs do not store flammable gasoline internally and their stability reduces rollover risk.
EV Convenience
EV owners can conveniently plug in and charge at home nightly. Pre-conditioning warms or cools the interior before driving while still plugged in. Their exceptionally quiet motors contribute to peaceful neighborhoods without engine noise.
EV Future Trends
Here are some trends we can look forward to in the near future with electric cars.
- Mass adoption and market diversity: as costs decrease, EVs are becoming affordable for more consumers globally. EVs could constitute a large portion of new car sales by 2030, potentially surpassing internal combustion engines in some regions. The EV market revenue is projected to reach $623 billion worldwide by 2024, with a steady 9.8% annual growth expected through 2028.
- Advancements in battery technology: developments in solid-state, silicon anode, and lithium-sulfur batteries aim to improve density, lifespan, sustainability, and charging speed. Battery recycling is also being explored.
- Greater diversity: the number of EV models available has surpassed 500 in 2022, up from below 450 in 2021, providing more consumer choice. This trend is expected to accelerate.
- Technological innovations: vehicle-to-grid connectivity, advanced driver assistance systems, innovative motors, and other emerging technologies will make EVs increasingly attractive to consumers.
- Improving prices: falling battery materials costs could improve EV profit margins and consumer affordability over time.
- Increasing efficiency and range: over the past decade, average EV efficiency has increased by 15% and the range has doubled. We can expect both efficiency and range to continue to increase.
- Innovations in charging: future innovations such as wireless charging and ultrafast charging will enhance the EV experience.
Electric Vehicle Brands
New EV brands continue to emerge, and traditional car brands continue to enter the EV market. Here are the brands that manufacture electric vehicles.
Brands That Make Electric Vehicles Only
- Tesla
- Lucid
- Rivian
- Canoo
- Lordstown
- Nikola (heavy-duty EVs)
- Workhorse
- Karma
Brands That Make Both Internal Combustion and Electric Vehicles
- Ford
- General Motors
- Hyundai
- Kia
- Volkswagen
- Audi
- Porsche
- Nissan
- BMW
- Mercedes-Benz
What are the Best Electric Vehicles on the Market?
The following electric vehicles are frequently cited as best in class in the electric vehicle market.
- Tesla Model 3: Tesla’s Model 3 is often praised for its long range, high performance, and access to Tesla’s extensive Supercharger network. It offers a good balance of range, charging speed, and overall efficiency.
- Hyundai Ioniq 5: Hyundai’s Ioniq 5 has been recognized for its ultra-fast charging capabilities and distinctive design. It also offers a spacious interior and advanced technology features.
- Kia EV6: The Kia EV6 shares its platform with the Ioniq 5 and is praised for its performance, range, and charging speed. It has a sporty design and a high-quality interior. The Kia EV6 Wind is a popular trim.
- Ford Mustang Mach-E: The Mustang Mach-E combines the iconic Mustang brand with electric performance. It has been noted for its driving dynamics, range options, and user-friendly technology.
- Audi e-tron: the Audi e-tron offers a premium interior, advanced technology, and a smooth ride. It’s a luxury SUV that provides a balance of performance and comfort.
- Volkswagen ID.4: the ID.4 is Volkswagen’s entry into the electric SUV market, offering a practical range, spacious interior, and intuitive infotainment system. It’s designed to be a family-friendly electric vehicle.
- Chevrolet Bolt: the Chevy Bolt is an affordable option in the EV market, offering a competitive range and a compact size that’s ideal for city driving.
- Nissan Leaf: the Nissan Leaf is one of the world’s best-selling electric cars, known for its affordability and reliability. It’s a good entry-level option for those new to electric vehicles.
- Lucid Air: Lucid Motors’ Air is a luxury electric sedan that boasts impressive range and performance figures, along with a high-quality, tech-forward interior.
- Rivian R1T: Rivian’s R1T is an all-electric pickup truck that offers off-road capability, innovative storage solutions, and a range suitable for long trips.
What are the most affordable electric cars?
Budget electric cars start in the high-$20K range (new) and go up from there. Here are the new MSRP prices for some of the more affordable EVs on the market:
- Nissan Leaf: starts around $27,400; the longest-range affordable EV at almost 150 miles per charge and includes basic autonomous driving aids.
- Chevrolet Bolt EV: starts around $31,500; spacious subcompact hatchback with 250+ mile range and DC fast charging capable.
- Mini Cooper Electric: starts around $33,900; iconic compact model with zippy handling and 114-mile range.
- Kia Niro EV: starts around $39,500; 201 horsepower crossover SUV with 239 miles of range.
- Mazda MX-30: starts around $34,000; stylish subcompact crossover with a 100-mile range and unique suicide door design.
How Many Miles Per Charge Can An Electric Vehicle Go?
Electric vehicles offer driving ranges spanning 100 to more than 500 miles per charge. Range varies based on vehicle type, battery size, efficiency, and conditions. Let’s look at some specifics
Range of Compact EVs
- Chevrolet Bolt EV: 259 miles
- Hyundai Kona Electric: 258 miles
- Mini Electric: Offers a real-world range of between 100 and 120 miles
- Peugeot e-208: 200 miles o
Range of Electric SUVs
- Tesla Model X: 348 miles
- BMW iX: 324 miles
Range of Subcompact Electric SUVs
- Hyundai Kona Electric: 258 miles
- Kia Niro EV: up to 253 miles
Range of Electric Sedans
- Tesla Model 3: Up to 358 miles
- Hyundai Ioniq 6: 361 miles
Range of Electric Luxury Sedans
- Lucid Air: 516 miles (highest-range EV on the market)
- Mercedes-Benz EQS: 405 miles
Range of Electric Pickup Trucks
- Rivian R1T: 328 miles
- GMC Hummer EV: 329 miles
- Tesla Cybertruck: estimated 250–340 miles
How to Make Your Home EV-Ready
If you’re going to be an electric vehicle owner, you’ll need to make your home charging-ready. Key steps include the following:
Home Charging Infrastructure
Install a home EV charger, also called an Electric Vehicle Supply Equipment (EVSE), for convenient overnight charging. The EVSE gets mounted in a garage, carport, or outdoor area based on home layout and charger weatherproof rating.
EV chargers range from $350–$700 depending on charging speed, connector type, and smart features. Certified electrician installation runs $500–$2,500 for the approximately 3-hour process.
Electrical Service Checks
Your existing electrical service must be assessed to see if it is adequate for the added EV charging load. Homes with under 100-amp panels may need to be upgraded to larger capacity electrical service. This can cost $3,000 or more.
Smart Energy Management
EV chargers allow connecting the vehicle to the electrical grid via smart charging capabilities. This allows homeowners to control charging times to optimize electricity costs and battery health. Energy management platforms provide battery and charging insights.
Choosing the Right EV Charger
- Home electrical panel capacity: an electrician should evaluate the panel capacity by completing a load calculation to determine available space for an EV charger. Homes with 200A+ panels often have sufficient room, while 100A panels frequently need upgrading to accommodate higher amperage EVSE units.
- Your car’s onboard charger size compatibility: your car’s charger electricity acceptance rate, ranging from 3.6kW to 19.2kW, must align with the amperage of your home’s EVSE charger. For example, an 11.5kW onboard charger matches well with a 48A home EVSE charger.
- Compatible charger selection: basing the EVSE selection on the vehicle’s onboard charger size enables optimal charging. The charger electricity output calculated from voltage and amperage should meet the vehicle’s input rating. Charger capacity varies among models. Make sure your system is aligned. Examples:
- Toyota RAV4 Prime: 3.3kW
- Lucid Air: 19.2kW
- Volvo XC90: 3.7kW
- Lexus RZ 450e: 6.6kW
- Tesla Model Y: 11.5kW.
Once the right charger amperage is determined based on the home’s electrical capacity and the electric vehicle’s maximum onboard charging rate, select an appropriate Level 2 wall-mounted charger. Consider the following factors:
- Charging connector type (J1772, NACS, Tesla) to match the vehicle’s charge port. Adapters allow flexibility across standards.
- Hardwired or plug-connected installation depending on the situation.
- Smart capabilities like charge scheduling, power sharing, and connectivity preferences.
- The vehicle’s charge port type—J1772 and Tesla being common up until recently versus the newly emerging NACS standard—should be matched by the EVSE unit or an adapter used if there’s incompatibility.
When installing a Level 2 charger, you’ll need to decide between hardwiring it to your home’s power supply or using a plug-in attachment. Here are the pros and cons of each:
- Hardwired home EV chargers get permanently connected to your home’s electrical wiring by an electrician. No plug is used that can be unplugged; the wiring is directly integrated. Hardwiring usually costs less money and lets more power flow for faster charging. But it means that the charger stays fixed in that location.
- Plug-in home EV chargers use an attached cable and standardized “NEMA” plug, like those powering appliances or dryers. The plug lets you conveniently disconnect and potentially move the charger. However, a plug connection may restrict electricity capacity compared to direct hardwiring.
Here are some well-respected home charging stations. Do your research to ensure compatibility with your EV.
- ChargePoint Home Flex: offers up to 50 amps of power and can deliver a range of 37 miles per hour of charging. It’s also WiFi-enabled, allowing you to control and schedule charging from your phone.
- JuiceBox 40: provides 40 amps of power and can deliver a range of 30 miles per hour of charging. It also has WiFi connectivity for remote control and scheduling.
- Siemens VersiCharge: offers 30 amps of power and can deliver a range of 22 miles per hour of charging. It’s not WiFi-enabled, but it does have a delay function that allows you to schedule charging.
- Bosch Power Max 2: provides 40 amps of power and can deliver a range of 30 miles per hour of charging. It doesn’t have WiFi connectivity, but it does have a compact design and is relatively affordable.
- Tesla Wall Connector: offers up to 48 amps of power and can deliver a range of 44 miles per hour of charging. Only compatible with Tesla vehicles.
Where is the Best Place to Buy an Electric Car?
If you’re planning to buy an electric car, you have the following options:
- Buy a new EV from a dealership: for brands that use the dealership model, such as Ford, Nissan, and GM
- Buy a new EV directly from the manufacturer: for brands that use the direct-to-consumer model, such as Tesla, Polestar, and Rivian
- Buy a used EV from a dealer
- Buy a used electric vehicle from a private seller
If you’re buying new and know which vehicle you want, your choice is made. You’ll be buying from a dealership or directly from the manufacturer—depending on your chosen brand’s distribution model.
If you’re buying used, you’re usually better off buying from a private seller. Here at PrivateAuto, we make the private-party transaction easy and secure. Skip the dealer documentation fee and markup and get more EV for your buck when you transact peer-to-peer on PrivateAuto.
From instant payments to secure communications, we give you the power to drive the deal on your terms. That’s why we’re the best place to buy a used car (including an electric car) online.
We have a wide selection of non-electric vehicles for sale as well. Browse our full selection of vehicles for sale by owner.
Where is the Best Place to Sell My Electric Car?
If you want to sell your electric car, you can get way more for it by going directly to a private buyer than you could with a dealer trade-in.
Dealers have to buy low so they can mark your car up and make a profit. When you sell directly to the end user, you capture that extra profit.
PrivateAuto gives you dealer-like convenience in the palm of your hand, so you can sell your EV on your terms.
- Never give out your contact info
- Steer clear of car scams with identity verification
- Act as your own escrow service with our escrow-like safeguards
- Get paid instantly, up to $1M, with no transfer fees
Even better, you can list your car on other marketplaces. If you find a buyer, you can use our DealNow feature to invite the buyer to a fast-tracked dealflow that gives you all the advantages of our transactional infrastructure.
Create your listing on PrivateAuto now and see how easy selling your EV can be.
Electric Vehicle FAQ
Is the Mercedes-Benz EQS a good car?
The Mercedes-Benz EQS is an all-electric large luxury sedan available in several variations, including the 450+, 450 4Matic, 580 4Matic, and AMG EQS.
Positioned as the electric equivalent to the iconic Mercedes-Benz S-Class, the EQS offers a luxurious experience with features like a 56-inch Hyperscreen, LED lighting, air suspension, and a panoramic roof. It also has Level 3 autonomous driving capability, indicating a focus on advanced technology integration.
The EQS faces challenges in the competitive luxury EV segment. Mercedes-Benz has reported dropping sales, describing pricing competition and supply chain issues as making the EV market difficult. Compared to rivals like the Tesla Model S, the EQS wins praise for its cabin quality and amenities but may not match acceleration and efficiency.
Dealer feedback and sales challenges suggest Mercedes-Benz has an opportunity to adjust its EV strategy to compete better as the market evolves.
Overall, as a fusion of traditional Mercedes opulence with electric drivetrain benefits, the EQS advances luxury EV expectations.
What is “range anxiety”?
“Range anxiety” is a commonly used term that refers to the concern electric vehicle drivers may have about the driving range their vehicles can achieve on a single charge. It stems from worries that an EV might not have enough battery capacity to comfortably complete journeys between charges.
Range anxiety has been one of the major consumer adoption barriers hindering faster mainstream acceptance of electric cars historically. Early EVs often only offered around 100 miles of range, which limited their capability for longer trips and made drivers nervous about suddenly losing charge mid-journey. Even though ranges have vastly improved to 200+ miles in newer models, range anxiety persists among some drivers.
Other factors tied to range anxiety include the availability of public charging stations for topping up if needed, charging times to replenish battery capacity, and access to home charging that allows starting every trip with a “full tank.” Uncertainty around these aspects can heighten anxieties and discourage EV purchases.
However, studies show most daily driving falls well within modern EV ranges. Technology improvements continue extending capacities, fast charging offerings grow, and new ownership models like battery swapping emerge. These assure drivers that running out of charge will become decreasingly likely.
Is the Hyundai Kona Electric a good EV?
The Hyundai Kona Electric is an all-electric compact crossover SUV that was introduced in 2018. Here are some key details about it:
– Available in standard and long-range battery options, providing 258 miles or 300 miles of range per charge respectively. Uses a 201-horsepower electric motor.
– Uses a fast charging capability to charge to 80% in under an hour with a compatible DC fast charging station.
– Well-equipped compact crossover with features like a 10.25-inch touchscreen display, Apple CarPlay/Android Auto, multi-zone climate control, and power driver’s seat.
– Rated at 120 MPGe combined by EPA for high energy efficiency. Provides smooth, quick acceleration.
– Hyundai warranty covers 10 years/100,000 miles for the electric powertrain and 5 years/60,000 for the vehicle overall.
The Kona Electric has earned strong reviews from automotive critics and buyers alike for its long driving range, peppy performance, feature content, technology, and warranty value as an accessible mid-priced all-electric crossover.
While not luxurious, the combination of daily usability and electric power at a reasonable cost has made the practical Kona Electric a compelling option in the compact crossover EV segment. If you’re looking for something affordable, reliable, and well-designed, the Kona Electric might be a good option for your next vehicle purchase.
How long do electric cars last?
Electric cars can last just as long, if not longer, than gas-powered cars with proper care and maintenance.
– EV drivetrains are less complex than gas engines with far fewer moving parts. This allows them to last quite a long time, with some EV batteries warrantied to 180,000– 200,000 miles.
– Most industry experts estimate today’s EVs will reliably operate for 150,000 miles or more as battery technology continues improving over time. High mileage Teslas have exceeded 200,000 and even 300,000 miles driven.
– Battery capacity diminishes slowly with each charge cycle, typically dropping less than 20% after over 100,000 miles if charging habits are well managed. Less range is the primary impact rather than function.
– Other EV components, such as motors and inverters, require little maintenance and hold up well over time. Regenerative braking also reduces wear on braking systems.
– Improvements in battery durability, charging cycles, and materials promise to lengthen EV lifespans further as the technology evolves.
With proactive care, EVs can potentially operate reliably for over a decade if not longer. Advances will continue to extend capabilities and value over their lifetime as well.
Do electric cars need oil changes?
Electric cars do not require oil changes like diesel or gasoline vehicles do. This is because they do not have any internal combustion engine components that need engine oil.
Here are some of the ways in which EVs differ from gasoline-powered vehicles in the maintenance department:
1. No engine oil: an EV’s electric motor does not require lubricating engine oil which needs to be periodically changed. The motor uses magnetism to operate with far fewer moving parts.
2. Fewer fluids: beyond basics like brake fluid, windshield washer fluid, or coolant, EVs don’t have engine oil, transmission fluid, or other lubricants that degrade over time and driving distances.
3. Reduced maintenance: with fewer mechanical moving components prone to friction, electric cars typically have drastically lower periodic maintenance needs, require fewer repairs over time, and can operate reliably with less upkeep.
Electric cars still require tire rotations, brake pad replacements, HVAC air filters, plus battery and electrical system inspections based on manufacturer guidelines. But eliminating oil changes plus other engine system services significantly saves on both cost and headaches over time.
Do electric cars need to warm up?
Electric cars do not need to warm up before driving like internal combustion engine vehicles. There are a few reasons electric vehicles can operate normally without an initial warm-up period:
1. No engine temperature: electric motors don’t rely on engine operating temperature or oil viscosity like gas and diesel engines. They use electromagnetic force to turn the wheels, so heating isn’t required.
2. Instant torque: the instant torque provided by electric motors allows EVs to accelerate smoothly from startup, unlike a cold gas engine.
3. Preheating capability: some EVs do have a preheating function to warm the battery and cabin before driving while still plugged in, but this isn’t mandatory.
Why does rain affect EV range?
Rain can slightly reduce an electric vehicle’s range due to increased rolling resistance on wet roads. A thin layer of water creates more “drag” between the tires and the road, making the vehicle work harder and consume more energy. Headlights, wipers, climate controls, and other features needed while driving in rain also use extra electricity.
Do electric cars struggle in the cold?
Electric vehicles can struggle in cold weather primarily due to reduced battery efficiency and increased heating demands. Frigid temperatures slow the battery’s chemical reactions, diminishing the range by 20% at freezing and up to 40% below that. Cabin heating also drains substantial energy. Accessories like wipers and headlights sap additional power.
Furthermore, charging an EV battery can take up to 3 times longer in the cold. Consistent extreme cold may damage batteries over time, although thermal management systems in many EVs help regulate temperatures.
EV owners should plan for more frequent charging and avoid extremely low charge levels in winter. Helpful strategies include battery preconditioning and using seat warmers over blast heat.
While inconveniences exist, automakers continue improving EV cold weather capabilities through better insulation, efficient heat pumps, and battery thermal controls. Overall, EVs remain reliable transportation options even in colder regions, albeit with some temporary range and charging sacrifices.
How much does it cost to charge an electric vehicle?
The cost to charge an electric vehicle depends on 2 primary factors:
- Electricity rates. Home charging costs are tied to local residential electricity rates, which average $0.13 per kWh nationally. Many utilities offer lower nighttime rates to incentivize off-peak EV charging. Public charging stations charge higher rates.
- Battery capacity. A larger battery capacity means more required electricity to replenish a full charge. A Ford F-150 Lightning with 98 kWh capacity costs more per full charge than a 75 kWh Tesla Model Y.
A full EV charge can range from a few dollars to $20 or more. Even on the higher end, electricity remains cheaper than fueling a comparable gas vehicle.
What are the best electric pickup trucks?
Here are the best electric pickup trucks on the market today:
- Ford F-150 Lightning Platinum. This truck has a towing capacity of 10,000 lbs, a bed size of 65.2 inches in width and 67.1 inches in length, 580 horsepower, and a range of 300 miles.
- Rivian R1T Adventure: can tow up to 11,000 lbs, has a bed size of 51.1 inches in width and 54 inches in length, 533 horsepower, and a range of 270 miles.
- GMC Hummer EV Pickup: this truck can tow 7,500 lbs, has a bed size of 60.1 inches in width and 60 inches in length, 1,000 horsepower, and a range of 381 miles. It also has vehicle-to-home (V2H) capabilities with additional equipment.
- Tesla Cybertruck AWD: the Cybertruck AWD has a towing capacity of 11,000 lbs, a bed size of 51 inches in width and 72.8 inches in length, 600 horsepower, and a range of 340 miles.
- Chevy Silverado EV: can tow up to 10,000 lbs, has 660 horsepower, and a projected range of 400 miles. The bed size and V2H capabilities are yet to be announced.
Which electric car provides the best value for price?
While value is somewhat subjective, the following cars are top contenders for the best-value electric vehicle.
– Nissan Leaf has a range of up to 215 miles, a relaxed ride, and ProPilot assist. Base pricing (new) begins at under $28,000. The Leaf’s simplicity also means fewer things to break over time.
– Kia Niro EV: this functional small SUV provides 239 miles of range, a nicely appointed interior full of tech, and 201 horsepower starting around $40,000. The great warranty and build quality enhance the value.
– The Chevrolet Bolt EUV offers 250 miles of range, adaptive cruise control, and 57 cubic feet of cargo room, the slightly larger Bolt EUV offers a lot for under $34,000 before potential tax credits.
– Hyundai Kona Electric has 258 miles of range and fast charging abilities The 258 horsepower performance model is a steal at around $35K.
– Ford Mustang Mach-E: while higher trims get pricey fast, the standard Mach-E still provides exciting performance, neat tech features via Sync 4A, and style at a reasonable $47,000 sticker price.
– The Hyundai Ioniq 5 AWD SEL has a horsepower of 320 HP and a range of 260 miles. It retails in the mid-$50K range new, depending on options.
The best value EV for you will depend on your specific needs, budget, and preferences—in addition to factors such as driving habits, lifestyle, and charging capabilities.
How long does it take to charge an electric car?
The time it takes to charge an electric car varies from less than an hour to 40 (or even more) hours, depending on the type of charging station, the car’s battery, and other factors.
There are three types of charging stations.
Level 1 Charging
Level 1 uses a standard 3-prong 120V household outlet that provides between 1.4 to 1.9 kilowatts of power. It adds about 2 to 5 miles of driving range per hour of charging time. Fully recharging an electric vehicle battery from empty takes between 12-36+ hours using Level 1. This very slow method is best for overnight charging at home when you don’t drive often or far.
Level 2 Charging
Level 2 requires installing a dedicated 240V charger (often called an EVSE), which supplies higher amperage electricity. Level 2 adds back around 10 to 20 miles of range per hour charged. Most electric vehicles can fully recharge their battery pack overnight in about 8 to 12 hours using a typical Level 2 charger. This is the most convenient for home charging to fill back up cheaply after daily driving
DC Fast Charging
DC fast charging stations feed 480V (or higher) power directly into the electric vehicle battery via DC electricity. Fast chargers can add 60 to 100+ miles of range in just 15 to 45 minutes of charging. They can charge an electric car battery pack to 80% full in around 30 to 90 minutes. Fast charging makes occasional long-distance road trip driving very feasible and not much more inconvenient than a gas car.