You don’t have to spend one hundred grand to purchase an electric vehicle with great range in 2022. EVs aren’t cheap, but with fuel savings taken into account, the electric lifestyle starts to sound a lot more appealing. There’s a saying in electric mobility: range is king. That’s especially true for frequent road-trippers and those who live in one of America’s remaining charging deserts. These are the electric vehicles with the most range in 2022.
Note: We’ve decided to place an emphasis on affordable electric vehicles with the most range. Affordability is a moving target in 2022’s crazy auto market, but in the realm of EVs, we’ve defined ‘affordable’ as EVs under $65,000. If you’re in the market for luxury, we’ve got those covered too.
Electric Cars With the Best Range
Tesla Model 3 Long Range (Dual Motor)
Range: 358 miles
Price: $57,190 with destination
Max charging speed: 250 kW (20-80% in 20 minutes, adding 214 miles of range)
0-60 mph (fun factor):
Federal EV tax credit qualification: No, credits were exhausted. Learn about EV incentives here.
See our full review of the 2022 Tesla Model 3 Long Range here.
Polestar 2 Front-Wheel Drive
Range: 270 miles
Price: $49,800 with destination
Max charging speed: 250 kW (20-80% in 20 minutes, adding 214 miles of range)
0-60 mph (fun factor): 6.8 seconds
Federal EV tax credit qualification: Yes, learn more about EV incentives here.
There are now three electric pickup trucks on American roads, but buying one is easier said than done. Everyone wants one, and wait lists extend months and in some cases, years. We’ve decided to include electric trucks that are not yet available for purchase, so long as specs have been released and reservations or orders can be placed today.
Ford F-150 Lightning XLT Extended Range
Range: 320 miles
Price: $72,474
Max charging speed: 130 kW (15-80% in 40 minutes)
0-60 mph (fun factor): estimated 4.5 seconds
Federal EV tax credit qualification: Yes, learn more about EV incentives here.
What does the future hold? Not necessarily more range, surprisingly. Many auto analysts expect range for relatively affordable EVs to settle in around the 250-350 mile range. Why? Battery shortages loom on the horizon. Raw materials are in high demand, and there are only so many places on Earth to get lithium, cobalt and other materials.
Should you buy an EV now or wait? If you can find what you want for MSRP or very close to it, it just might be the right time to buy or lease. All signs point towards higher EV prices for 2023 and 2024 model years.
Q4 2023 Update: Sales and market share numbers are in. See the latest U.S. EV market share numbers below.
As electric cars, trucks and SUVs continue to enter the mainstream in 2024, the tug-of-war between EV startups and legacy giants is heating up. Will Tesla hold its lead, or will Ford, General Motors and the rest catch up? Bookmark this page for the latest quarterly and monthly sales and market share updates for electric vehicles in the United States.
Q4 2023 Electric Vehicle Market Share and Sales (U.S.)
As automaker stats trickle in, here are some notable numbers announced so far:
Fully-electric vehicles (BEVs) had 8.1% market share in Q4 2023. This is a new all-time record. One year prior in Q4 2022, EV market share was 6.5%.
1,189,051 electric vehicles were sold in the United States in 2023, the first time the figure has exceeded one million.
Kelley Blue Book estimates that Tesla‘s US sales totaled 161,000 in Q4 2023.
Tesla’s share of the EV market held steady at 50%, but is down significantly from 60% in Q1 2023, and down from 79% market share in 2020.
Ford sold nearly 26,000 electric vehicles in Q3 2023. The F-150 Lightning is the best-selling electric truck in America.
Hyundai-Kia have caught up to Ford, and is nearly tied for second place in U.S. EV market share.
In the fourth quarter of 2023, fully-electric vehicles (BEVs) jumped to a new record at 8.1% of new sales market share in the United States. Of the 3.8 million light-duty vehicles sold in America in Q4, 317,168 were fully-electric, according to data from Kelley Blue Book.
EV sales in Q4 2023 increased by 40% year over year.
In the previous quarter (Q3 2023), Cox Automotive estimates that 313,013 EVs were sold in America.
Take a look at the steady growth in EV market share in 2022 and 2023:
Q1 2022
Q2 2022
Q3 2022
Q4 2022
Q1 2023
Q2 2023
Q3 2023
Q4 2023
Battery Electric Vehicles (BEV)
5.3%
5.6%
6.1%
6.5%
7.3%
7.2%
7.9%
8.1%
Electrified (Hybrid + PHEV + BEV)
12.4%
12.6%
12.1%
13.0%
14.5%
16.0%
17.7%
TBD
According to analyses by Cox Automotive, Tesla sales accounted for 55% of all EVs sold in the US in 2023, down from 62% in 2022. At the start of the year in Q1 2022, Tesla had a 75% EV market share in America. Now, Tesla is down to 50% of EV market share.
Ford and Hyundai Motor Group are in a close fight for second place. Hyundai’s EV sales have fare outpaced Kia’s over the course of 2023, much to the success of the IONIQ 5 and IONIQ 6. Ford’s EV sales slipped in early 2023, and were overtaken by GM somewhat unexpectedly. In late 2023, Ford came roaring back with healthy sales of the F-150 Lightning and Mustang Mach-E.
5.8% of the new cars Americans bought were fully electric in 2022, up from 3.2% in 2021.
Total EV sales topped 800,000 in 2022. For comparison, 471,426 fully-electric vehicles were sold to American car buyers in 2021. The total represents a 71% increase in fully-electric vehicle sales in one year.
Electrified powertrains continue to see rapid growth.
Check back for the latest data once Q1 2024 numbers are released. Additional data and insights will be added to this ‘living’ page.
My very own Hyundai IONIQ 5 has a special trick up its sleeve. In fact, even Tesla can’t claim it. In 2022, very few electric cars are engineered with 800-volt architecture. While still an outlier, all signs point towards an auto industry heading in the direction of faster charging, better efficiency, and smaller battery sizes – all of which are unlocked by promising 800-volt electrical systems in EVs.
800-Volt Electric Powertrains Bring Faster Charging and Engineering Benefits
The mass adoption of electric vehicles largely depends on the ability to find real solutions for a few ownership challenges for today’s EV drivers:
Charging is too slow
Range is not enough
Batteries are too expensive to replace
Most electric vehicles in 2022 are built on 400-volt systems, but these systems have limits. Indeed, some automakers are quite happy with their 400-volt EV platforms. Tesla manages to find other ways of mastering efficiency and power delivery, and has not mentioned plans for a voltage upgrade. One BMW senior engineer called settling with a 400-volt platform the “best compromise”, but not everyone agrees.
800-volt systems can deliver double the power through the same current, or if desired, the same power through half the current. The result is roughly 50% faster charging for the same battery size. As a result, batteries can be made smaller and overall weight is reduced, increasing efficiency and ideally lowering the cost of the vehicle.
Would a car need a massive battery with a 500-mile range if it can charge a smaller battery that’s good for 250 miles in just 15 minutes? What is that smaller battery was A LOT cheaper?
Which Electric Vehicles Use 800-Volt Architecture?
In 2022, just a few electric vehicles use 800-volt systems for power delivery and charging.
Of particular interest is the different paths taken by Ford and GM for their upcoming electric trucks. The F-150 Lightning is built on 400-volt architecture, while the Chevrolet Silverado EV is jumping to 800-volt architecture, and the result is much faster charging speeds for the Chevy. Will this matter to consumers, or will brand loyalty win out?
Why doesn’t Tesla use 800-volt charging? We’re not sure, but clearly they’ve found success with their existing 400-volt architecture.
Solid-State Batteries Approach Production
Fortunately, a whole host of solutions are uniting to offer a better way forward for EVs. And it’s not all about charging speeds. Solid-state batteries are finally approaching real-world usability following decades of research and development. For the better part of the last decade, $100 per kilowatt-hour was the affordability target for battery development. That goal was reached, but the latest raw material shortages are sending prices back up, and electric car prices have gone up accordingly. The U.S. Department of Energy thinks that $60 per kilowatt-hour is within reach, however it’s increasingly looking like solid-state batteries may offer the only path to such low-cost batteries.
Toyota says it will be the first to bring a solid-state battery into a production vehicle. In typical Toyota fashion, their solid-state battery will debut in a hybrid powertrain rather than a full battery-electric vehicle. It looks like the world will see what solid-state battery chemistry is capable of in 2025.
Innovation Continues at Lightning Speed
Faster charging, better range, and (hopefully) lower prices are promised time and time again with every new EV model announcement. 800-volt architecture and solid-state batteries are the headlining developments that automakers are working on behind the scenes. We didn’t even touch on new battery chemistries, manufacturing methods, and electric motor breakthroughs in the works. We’ll have to save that for another day, as there’s always something new to talk about in the EV space.
But the promise of faster charging and energy-dense batteries begs the question: would you take faster charging over more range? It’s looking like that will be the EV debate of the decade. What are your thoughts? Let us know in a comment or over at the CarEdge Community Forum. What matters most when you head out on a journey?
Imagine using your vehicle as a backup generator for your home, or even to help a stranded motorist reach their destination. Electric vehicles claim just 5% of new vehicle market share in America, however record gas prices are spurring renewed interest in the EV lifestyle. One of the most sought-after features of electric vehicles is bidirectional charging. Also known as vehicle-to-load, or V2L, tomorrow’s cars literally have the power to do so much more than drive us around. Here’s everything you need to know about bidirectional charging in electric vehicles.
V2G, V2L & V2H: The Types of Bidirectional Charging Capability
During typical use, electric cars draw electricity from the grid, and then consume that energy to power their electric motors. What if you could reverse the flow of electricity back into the grid? Better yet, imagine making money doing it. The future of mobility is about to get weird. Cars are already becoming rolling computers, so it only makes sense that they are capable of revolutionizing the world beyond the driver’s seat.
What is bidirectional charging?
Simply put, bidirectional charging is the ability for electrical current to flow in both directions: from the grid to the vehicle (to charge the battery pack), and also from the car to the grid, another car, or household appliances.
How does bidirectional charging work?
When an electric vehicle is charged, alternating current (AC) from the grid is converted to direct current (DC) using the car’s built-in converter. To send electricity out of the battery pack and back into the grid or into another electronic device, electricity must first convert back to AC. This is done using an inverter. Vehicles that are manufactured with an inverter are already equipped with the hardware needed for bidirectional charging.
Vehicle to grid (V2G) capability enables an electric car to return electricity to the grid. V2G can help supply energy at times of peak grid demand. In most of the world, electricity demand peaks during the afternoon and early evening. Peak demand causes demand charges, which are higher rates for usage.
Vehicle to grid capability offers a way around demand charges, to the benefit of consumers and grid operators alike. The vehicle’s owner avoids demand charges or even sells electricity to the grid, and the grid gains a new source of electricity when it’s needed the most.
Although V2G is still in its infancy, the technology opens up the possibility of future revenue streams for everyday EV drivers and even automakers. Imagine if your car could make you money while it’s parked in the garage. Rental and ride-hailing fleets could double the revenue from their autonomous vehicles by serving as power suppliers to the grid. It’s a game changing option that is coming to cars in the near future.
Vehicle-to-Load (V2L)
V2L allows an electric vehicle’s battery pack to power appliances such as power tools, a coffee machine, cooking equipment, laptops, or even a party. More importantly, vehicle-to-load capability serves as the ideal emergency power source during times of need, such as following a natural disaster or power outage. Some cars, such as the 2022 Hyundai IONIQ 5, can output 3.6 kilowatts via V2L functionality. That is a LOT of power, surely enough to power an entire campsite or family-sized outdoor event.
Vehicle-to-Home (V2H)
Naturally, one of the first uses of bidirectional charging that comes to mind is powering one’s home during a power outage. Indeed, vehicle-to-home (V2H) power supply is under development, and it’s even featured in a few of today’s production EVs. It’s important to note that accessories and professional installation of associated hardware are required before any EV can power an entire home. Still, it looks like V2H capability is a real option for EV shoppers to consider in 2022. More on today’s V2H EVs below.
Does Bidirectional Charging Harm the Battery?
The short answer is that it depends on the battery chemistry. One of the latest battery chemistry types to be employed in EVs is lithium-iron-phosphate batteries, or LFP. LFP batteries quickly rose to prominence due to their remarkable ability to withstand the stresses of repeated charging cycles without severe battery degradation.
Other battery chemistries lose range over time as the battery is charged and discharged (referred to as a charging cycle). Even charging to 100% too often can reduce the life of some battery types. LFP batteries are the perfect companion for bidirectional charging, especially vehicle-to-grid. They handle frequent charging and discharging like a champ.
Other battery types in development are engineered with bidirectional charging capability in mind. Ford’s partnership with SK Innovation resulted in a more environmentally-friendly battery chemistry suitable for the frequent charge cycles of bidirectional charging.
Our EV extended warranty provides peace of mind. Batteries and other electrical components are covered! Get a quote for your EV today.
For the time being, no Tesla models are capable of bidirectional charging. It’s possible (even likely) that all 2022 Tesla models have the necessary hardware for V2G or V2L, or V2H. However, Tesla has alternative motives for delaying bidirectional charging rollout for as long as possible. If Tesla vehicles became V2H-capable, they would render the $10,500 Tesla Powerwall home battery obsolete!
A few curious Tesla owners have inquired about modifying their cars to become capable of bidirectional charging. The response from Tesla was a warning that doing so would void the vehicle’s battery warranty. So for now, don’t expect Tesla EVs to power your home or appliances.
Ford Intelligent Backup Power: F-150 Lightning
Ford’s F-150 Lightning is widely marketed as the answer to power grid anxieties. Ford Intelligent Backup Power is an available accessory to the popular F-150 Lightning electric truck. With 200,000 reservations in the books, the Lightning is already sold out through 2023.
The F-150 Lightning contains unique battery chemistry that strengthens charging cycle durability while also requiring fewer rare earth metals. Ford’s partner, SK Innovation, has developed a new battery cathode that uses 90% nickel, and 5% each of manganese and cobalt. The new battery chemistry also reduces the harmful environmental and ethical impacts of cobalt mining.
Ford’s engineers designed the new electric F-150 with V2H in mind. In the electric truck segment that’s rapidly gaining steam, automakers are looking for bold ways to make their truck a compelling buy.
“F-150 Lightning with available Ford Intelligent Backup Power can provide power and security during an electrical outage – the first electric truck in the U.S. to offer this capability; in the future, new features will offer additional ways to manage energy use and potentially save on energy costs.”
Ford touts high power output and energy storage capabilities
“The F-150 Lightning extended-range battery system can store 131 kilowatt-hours of energy and deliver up to 9.6 kilowatts of power in a cleaner, quieter, more efficient way versus gasoline-powered generators, and with greater capacity than many wall battery units. F-150 Lightning can also offer lower-cost energy storage in a product customers already own – their truck.”
How long should an electric truck be able to power an entire home? 12 hours? Three days? Ford says that depending on power demand, some homes could be powered for seven days with the F-150 Lightning’s extended range battery.
“With Ford Intelligent Backup Power and the Home Integration System, F-150 Lightning automatically kicks in to power your home if the grid goes down. Once power is restored, the system automatically reverts back to utility power. Based on an average U.S. home at 30 kilowatt-hours of use per day, F-150 Lightning with extended-range battery provides full home power for up to three days, or as long as 10 days when used in conjunction with solar power or rationing.”
Bidirectional charging is yet another way that the electrification of the auto industry is transforming vehicle ownership. In five years (or less), trucks will be judged for how many days they can power your home, and crossovers will be expected to power household appliances with ease.
The fact that vehicle-to-home capability relies on the professional installation of accessories sold separately seems to fly under the radar for many. While vehicle-to-load may become a standard feature that we all take for granted in a decade’s time, retrofitting a home for V2H power will remain a lofty expense for the foreseeable future.
What do you think about bidirectional charging? Do you plan to power your home with your car in the future? Let us know what you think about automaker’s bold plans for EVs in the comments below, or share your thoughts with the CarEdge Community at caredge.kinsta.cloud.
Electric car maintenance is just one of many “new” experiences you’ll encounter when you buy your first EV. Instead of spending $50 at a gas station in a five-minute fill up, EV drivers plug in at home and spend $5 for an overnight charge. On the other hand, road trips require more planning and flexibility with an EV, at least until chargers are more common (and it looks like that will be soon).
Another adjustment for drivers making the switch concerns maintenance and routine care. Electric car maintenance is not the kind of project you can do in your home garage using tutorial videos. It’s important to start by addressing a common EV ownership myth: electric cars are not maintenance-free. Of course, no mode of transportation is maintenance-free. Even riding a bicycle requires routine and unexpected work to keep the tires in motion and in good working condition. Fortunately, fewer moving parts should mean less maintenance overall. Is that always the case?
In this electric car maintenance guide, we’ll explain routine EV maintenance, and how often you should expect to make a service center visit.
What’s Similar About Electric Car Maintenance?
The takeaway is that although electric cars require less maintenance, they do still need attention every once in a while. Just like a traditional internal combustion engine vehicle, EVs need:
Tires monitoring and replacement
The car’s 12 Volt battery may need replacing (it powers smaller electronics)
HVAC maintenance
Brake maintenance
Cabin air filter replacement
What’s Different About Electric Car Maintenance?
Here’s the honest truth about EV maintenance needs:
Pros
No oil changes
Fewer moving parts means less likelihood of mechanical failure
No timing belts, radiator fluids or fuel filters
Brakes wear slowly due to regenerative braking
Cons
Faster tire wear
Don’t risk working on electrical components at home
Any battery or electric motor work will need to be done at the automaker’s service center
Electric Car Routine Maintenance
The past decade of electric vehicle sales has shown that the vast majority of fully-electric models require less maintenance than combustion counterparts. So much so that automakers promote maintenance cost savings in their marketing campaigns for the dozens of EVs coming out in 2022.
EVs have a higher upfront cost, so it’s important to find ways of making up for the difference with fuel savings and today’s focus: electric car maintenance.
Here’s what you can expect when transitioning to a fully-electric vehicle.
Tires
Electric vehicles are very heavy. Popular electric crossovers like the Volkswagen ID.4 and Tesla Model Y weigh as much as a heavy-duty pickup truck. Tires undergo greater wear and tear on an electric vehicle everytime the car accelerates or slows to a stop. Many EV owners report needing new tires every 20,000 miles or so.
Some EV owners choose to spend extra on tires that are rated as energy efficient. It’s not required, but EV-friendly tires can extend range by up to 5%. Regular tire pressure should be checked and adjusted often (at least once a month) to ensure proper inflation.
12 Volt Battery
Believe it or not, today’s electric vehicles still require the same kind of 12 volt battery that you’ll find under the hood of most combustion vehicles. Why? The massive battery pack under the floor of the car is engineered to be optimized for delivering power to the electric motors. The electronics and comfort features in the cabin and lights around the vehicle are all powered by a separate, smaller 12 volt battery. So yes, your state-of-the-art electric vehicle may need a new bulky battery in a few years.
In case you’re wondering, the massive battery pack that is sealed under the floor of the vehicle is meant to last for hundreds of thousands of miles without issue. Automaker vehicle warranties cover the battery for up to 10 years and 100,000 miles.
Perhaps the worst thing that could go wrong with an electric vehicle is needing a new lithium-ion battery pack outside of warranty coverage. A full battery replacement costs anywhere from $5,000 to $15,000, depending on the model.
Brakes
Most modern electric vehicles have regenerative braking, which harnesses the electric motor to slow the vehicle while adding charge to the battery pack. Regenerative braking not only extends range, it greatly reduces wear and tear on the brakes. Tesla’s have been known to go many years without any brake maintenance because of regenerative braking. A few EVs, such as the Volkswagen ID.4, even use old-fashioned drum brakes in the rear due to the greatly reduced use of electric vehicles brakes. Still, brakes will need to be checked during scheduled maintenance. Safety first!
Fluids
As explained above, brakes on an electric vehicle typically avoid the usual wear and tear of combustion cars due to the help of regenerative braking. Still, brake fluid should be checked during scheduled maintenance. Some EV models require battery coolant fluid exchanges at some point, albeit quite infrequently. HVAC refrigerants also need checking and top-offs as needed. Don’t forget about the windshield wiper fluid.
Filters
I’ve been a passenger in more than one smelly Tesla. I repeat, electric cars are NOT maintenance-free! They have cabin filters just like every other car. Failing to change the cabin filter at regular intervals also irritates allergies and permits air pollution into the cabin.
Examples of Electric Vehicle Maintenance Schedules
The service manual for the best-selling electric crossover is short and sweet.
“Your vehicle should generally be serviced on an as-needed basis. However, Tesla recommends the following maintenance items and intervals, as applicable to your vehicle, to ensure continued reliability and efficiency of your Model Y.
Brake fluid health check every 2 years (replace if necessary) or, if the vehicle is used for towing, replace the brake fluid every 2 years.
A/C desiccant bag replacement every 4 years.
Cabin air filter replacement every 2 years (or 3 years for HEPA filter, if equipped).
Clean and lubricate brake calipers every year or 12,500 miles (20,000 km) if in an area where roads are salted during winter
Rotate tires every 6,000 miles (10,000 km) or if tread depth difference is 1.5 mm or greater, whichever comes first”
Ford recommends more frequent inspections, but the story is the same.
“Every 12 months or 10,000 miles:
Rotate tires, inspect tire wear
Perform multi-point inspection (recommended)
Inspect brake components
Check the cooling system
Inspect half-shaft boots and suspension components
Inspect wheels for defects
Every 3 years:
Change brake fluid
Every 20,000 miles:
Replace cabin air filter
10 years or 150,000 miles:
Replace transmission fluid
200,000 miles:
Replace battery coolant
CarEdge’s Take
It’s easy to forget that electric vehicles have now been on roads for over a decade. Tesla has sold 2 million vehicles and counting, and legacy automakers are gaining ground. What does this all mean for our understanding of electric vehicle maintenance through a consumer lens? With billions of miles driven, we’re finally starting to get some idea of the reliability of electric vehicles.
There are many examples of electric vehicles that have gone hundreds of thousands of miles while following the maintenance schedules we’ve outlined here. EV skepticism is understandable; it’s a whole new vehicle ownership experience. However, frugal car buyers would be mistaken to overlook the maintenance and fuel savings that electric vehicles offer for most consumers.
Detailed cost of ownership analyses show that despite the differences in MSRP, in the end, owners spend about the same amount of money in five years of Tesla Model 3 ownership as they would owning a $25,000 Toyota Camry for the same period. How so? Fuel and maintenance savings add up quicker the more you drive and the longer you own the car.
How will dealership service center revenue streams adapt to the decreased maintenance needs of electric vehicles? Will dealers be getting in on the software-by-subscription game? Or will dealers put up a fight to preserve their wallets?
There remain many unknowns and this time of rapid change in the automotive industry. Your consumer advocates here at CarEdge are helping thousands of car buyers navigate the reinvented auto industry that’s emerging in the post-pandemic world. Stay tuned, we’ll figure it out together.
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