Every Electric Vehicle Available in the USA 

Updated October 2026 

Electric vehicle shoppers in the United States have more choices than ever. Today’s EV market includes affordable cars and crossovers starting below $30,000, long-range sedans capable of traveling more than 500 miles, three-row family SUVs, high-performance luxury vehicles, electric pickup trucks and full-size SUVs. 

This 2026 EV Buyers Guide is designed to help consumers compare the battery-electric vehicles currently available for sale in the United States. 

It includes current 2026 models, newer 2027 models that have already reached the U.S. market, and selected vehicles that remain available as new dealer inventory. 

As of September 30, 2026, Electric Compare tracked 83 U.S.-market EV models and 253 individual trims, with a median starting MSRP of approximately $62,400. 

This guide focuses exclusively on fully electric battery-electric vehicles, or BEVs. Plug-in hybrids and conventional hybrids are not included. 

 

2026 Electric Vehicle Comparison 

The table below provides a quick way to compare electric vehicles currently available in the United States. 

Because specifications can vary considerably between trims, the figures generally represent either the starting model, the longest-range configuration, or a range covering the major configurations available. 

MSRP: Manufacturer’s suggested retail price before destination charges, taxes, registration, options and incentives. 

EPA Range: Maximum available EPA-estimated range unless otherwise noted. 

Battery: Approximate gross or usable battery capacity depending on the information published by the manufacturer. 

DC Fast Charging: Approximate maximum charging power under ideal conditions. 

10 to 80%: Approximate manufacturer or commonly reported DC fast-charging time under favorable conditions. Charging times vary based on battery temperature, charger output and state of charge. 

Connector: Native U.S. fast-charging connector on current models. Some CCS vehicles can also access compatible Tesla Superchargers with an approved NACS adapter. 

 

Audi 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Audi Q4 e-tron	Compact luxury SUV	$50,600	288 mi	82 kWh	175 kW	~28 min	CCS	282 to 335 hp	5
Audi Q6 e-tron	Luxury SUV	$64,500	310 mi	~100 kWh	270 kW	~21 min	NACS/CCS depending on configuration	Up to 456 hp	5
Audi SQ6 e-tron	Performance SUV	$73,200	285 mi	~100 kWh	270 kW	~21 min	NACS/CCS	509 hp	5
Audi A6 Sportback e-tron	Luxury liftback	$66,700	392 mi	~100 kWh	270 kW	~21 min	NACS/CCS	375 to 456 hp	5
Audi S6 Sportback e-tron	Performance liftback	$79,600	324 mi	~100 kWh	270 kW	~21 min	NACS/CCS	543 hp	5
Audi e-tron GT	Performance sedan	$106,500	300 mi	~105 kWh	320 kW	~18 min	CCS	670 to 912 hp	5

Audi’s newer PPE-platform vehicles, including the Q6 e-tron and A6 e-tron, combine 800-volt electrical architecture with very fast DC charging. Current U.S. pricing places the A6 Sportback e-tron at $66,700 with as much as 392 miles of EPA-rated range. 

 

BMW 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
BMW i4	Luxury liftback	$57,900	333 mi	~84 kWh	205 kW	~30 min	CCS	335 to 593 hp	5
BMW i5	Luxury sedan	$67,100	310 mi	~84 kWh	205 kW	~30 min	CCS	335 to 593 hp	5
BMW i7	Full-size luxury sedan	$105,700	314 mi	~105 kWh	195 kW	~34 min	CCS	449 to 650 hp	5
BMW iX	Luxury SUV	$75,150	364 mi	~100 to 109 kWh	Up to 195 kW	~35 min	CCS	402 to 650 hp	5
BMW iX3	Luxury SUV	$61,500	434 mi	~109 kWh	Up to 400 kW	~21 min	NACS	463 hp	5

The new-generation iX3 is especially significant because it introduces BMW’s Neue Klasse EV architecture. Current U.S. data lists the iX3 50 xDrive with approximately 434 miles of EPA range. 

The previous-generation iX remains available primarily from dealer inventory. 

 

Cadillac 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Cadillac OPTIQ	Compact luxury SUV	$50,900	317 mi	~85 kWh	~150 kW	~30 min	NACS	315 to 519 hp	5
Cadillac LYRIQ	Luxury SUV	$59,400	326 mi	~102 kWh	~190 kW	~30 min	NACS	365 to 515 hp	5
Cadillac LYRIQ-V	Performance SUV	$78,700	285 mi	~102 kWh	~190 kW	~30 min	NACS	615 hp	5
Cadillac VISTIQ	Three-row luxury SUV	$77,500	300 mi	~102 kWh	~190 kW	~30 min	NACS	615 hp	7
Cadillac Escalade IQ	Full-size luxury SUV	$127,405	460 mi	~205 kWh	Up to 350 kW	~30 min	NACS	750 hp	7
Cadillac Escalade IQL	Extended luxury SUV	$130,405	460 mi	~205 kWh	Up to 350 kW	~30 min	NACS	750 hp	7
Cadillac CELESTIQ	Ultra-luxury sedan	$414,855	303 mi	~111 kWh	~200 kW	~30 min	CCS/NACS access	655 hp	4

The Escalade IQ and extended Escalade IQL are among the longest-range large electric SUVs available in the United States, with EPA estimates reaching approximately 460 miles. 

 

Chevrolet 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Chevrolet Bolt	Small crossover	$27,600	262 mi	~65 kWh	~150 kW	~30 min	NACS	210 hp	5
Chevrolet Equinox EV	Compact SUV	$34,995	319 mi	~85 kWh	~150 kW	~30 min	NACS	220 to 300 hp	5
Chevrolet Blazer EV	Midsize SUV	$44,700	312 mi	~85 to 102 kWh	Up to ~190 kW	~30 min	NACS	220 to 615 hp	5
Chevrolet Silverado EV	Full-size pickup	$53,200	493 mi	~119 to 205 kWh	Up to 350 kW	~30 min	NACS	510 to 725 hp	5

The 2027 Chevrolet Bolt currently starts at $27,600 before destination, making it one of the lowest-priced new EVs available in America. The Silverado EV can reach an EPA-rated 493 miles in its Max Range configuration. 

 

Dodge 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Dodge Charger Daytona	Performance coupe/sedan	$72,495	267 mi	~101 kWh	~183 kW	~28 min	CCS	670 hp	5

The Charger Daytona emphasizes acceleration and performance rather than maximum efficiency. 

 

Fiat 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Fiat 500e	City hatchback	$35,700	149 mi	42 kWh	85 kW	~35 min	CCS	117 hp	4

The 500e is designed primarily for urban use. Its compact dimensions and 149-mile EPA range make it better suited to local driving than frequent long-distance travel. 

 

Ford 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Ford Mustang Mach-E	Electric SUV	$37,795	300 mi	~73 to 91 kWh	Up to ~150 kW	~30 to 36 min	NACS	266 to 480 hp	5
Ford F-150 Lightning	Full-size pickup	$63,345	300 mi	~98 to 131 kWh	Up to ~155 kW	~32 to 41 min	NACS/CCS depending on vehicle	Up to 580 hp	5

The Mustang Mach-E continues as Ford’s main consumer EV. New F-150 Lightning availability is increasingly concentrated in remaining dealer inventory. 

 

Genesis 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Genesis GV60	Compact luxury SUV	$52,525	306 mi	~84 kWh	~235 kW	~18 min	NACS	225 to 483 hp	5
Genesis GV60 Magma	Performance SUV	$69,950	222 mi	~84 kWh	~235 kW	~18 min	NACS	641 hp	5
Genesis Electrified GV70	Luxury SUV	$58,500	263 mi	~84 kWh	~240 kW	~18 min	NACS	483 hp	5

Genesis benefits from the Hyundai Motor Group’s fast-charging architecture, which allows very short charging stops when connected to a compatible high-power charger. Current GV60 models range from 225 hp to 641 hp in the Magma version. 

 

GMC 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
GMC Sierra EV	Full-size pickup	$62,400	390 mi	~119 to 205 kWh	Up to 350 kW	~30 min	NACS	605 to 645+ hp	5
GMC Hummer EV Pickup	Off-road pickup	$97,200	363 mi	~170 to 205 kWh	Up to 350 kW	~30 to 40 min	CCS/NACS access	570 to 1,000 hp	5
GMC Hummer EV SUV	Off-road SUV	$97,200	319 mi	~170 kWh	Up to 300 kW	~30 to 40 min	CCS/NACS access	570 to 830 hp	5

The Hummer EV models combine very large battery packs with unusually high output, while the Sierra EV follows a more conventional full-size pickup format. 

 

Honda 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Honda Prologue	Midsize SUV	$39,900	308 mi	~85 kWh	~150 kW	~35 min	CCS	220 to 300 hp	5

The Prologue remains available primarily through existing dealer inventory. Current listings show a starting price of $39,900 and EPA range as high as 308 miles. 

 

Hyundai 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Hyundai IONIQ 5	Compact SUV	$35,250	318 mi	~63 to 84 kWh	Up to ~260 kW	~20 min	NACS	168 to 320 hp	5
Hyundai IONIQ 5 N	Performance SUV	$59,900	221 mi	84 kWh	~260 kW	~20 min	NACS	641 hp	5
Hyundai IONIQ 9	Three-row SUV	$58,955	335 mi	~110 kWh	~350 kW	~24 min	NACS	215 to 422 hp	6 or 7

The IONIQ 5’s high-voltage architecture allows very rapid DC charging. The larger IONIQ 9 provides three-row seating and an EPA range of as much as 335 miles. 

 

Jeep 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Jeep Recon	Off-road SUV	~$65,000	222 mi	~100 kWh	~200 kW	~30 min	CCS/NACS access	670 hp	5
Jeep Wagoneer S	Midsize SUV	$65,200	294 mi	~100 kWh	~200 kW	~28 min	CCS	500 to 600 hp	5

The Recon is designed around off-road capability, while the Wagoneer S has a more road-oriented crossover design. 

 

Kia 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Kia EV3	Subcompact SUV	$29,890	321 mi	~58 to 81 kWh	~128 kW	~30 min	NACS	201 to 288 hp	5
Kia EV6	Electric crossover	$37,900	319 mi	~63 to 84 kWh	Up to ~260 kW	~20 min	NACS	167 to 641+ hp	5
Kia EV9	Three-row SUV	$54,900	305 mi	76.1 or 99.8 kWh	Up to ~235 kW	~24 min	NACS	201 to 379+ hp	6 or 7
Kia Niro EV	Compact crossover	$39,700	253 mi	64.8 kWh	~85 kW	~43 min	CCS	201 hp	5

The EV3 introduces a much lower entry point to Kia’s dedicated EV lineup. Current pricing begins at $29,890, while the long-range versions are rated at up to 321 miles. 

The EV6 and EV9 use 800-volt-class charging architecture. A 2026 EV9 with the 99.8 kWh battery supports NACS fast charging and provides six or seven seats depending on configuration. 

 

Lexus 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Lexus RZ	Luxury SUV	$46,000	301 mi	~77 kWh	~150 kW	~30 min	NACS	221 to 402 hp	5
Lexus ES Electric	Luxury sedan	$47,610	307 mi	~77 kWh	~150 kW	~30 min	NACS	221 to 338 hp	5

The battery-electric ES expands Lexus into the electric sedan market with rear-wheel-drive and all-wheel-drive variants. 

 

Lucid 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Lucid Air	Luxury sedan	$70,900	512 mi	~84 to 118 kWh	Up to ~300 kW	~20 min	NACS/CCS depending on model	430 to 1,234 hp	5
Lucid Gravity	Three-row luxury SUV	$79,900	450 mi	~90 to 123 kWh	Up to ~400 kW	~20 min	NACS	560 to 1,070 hp	Up to 7

The Lucid Air Grand Touring is rated at approximately 512 miles of EPA range, placing it at the top end of the current U.S. passenger EV market for driving range. 

The Gravity combines three-row capability with up to approximately 450 miles of EPA range. 

 

Maserati 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Maserati Grecale Folgore	Luxury SUV	$97,000	268 mi	~105 kWh	~150 kW	~30 min	CCS	550 hp	5
Maserati GranTurismo Folgore	Grand touring coupe	$141,995	242 mi	~92.5 kWh	Up to ~270 kW	~18 min	CCS	818 hp	4
Maserati GranCabrio Folgore	Convertible	$152,195	248 mi	~92.5 kWh	Up to ~270 kW	~18 min	CCS	818 hp	4

Maserati uses the Folgore name for its fully electric performance vehicles. 

 

Mercedes-Benz 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Mercedes-Benz CLA Electric	Luxury sedan	$47,950	374 mi	~85 kWh	Up to ~320 kW	~22 min	NACS	268 to 349 hp	5
Mercedes-Benz EQE	Luxury sedan	$64,950	308 mi	~90 to 96 kWh	~170 kW	~32 min	CCS	315+ hp	5
Mercedes-Benz EQE SUV	Luxury SUV	$64,950	302 mi	~90 to 96 kWh	~170 kW	~32 min	CCS	315 to 617 hp	5
Mercedes-Benz EQS	Full-size luxury sedan	$99,900	390 mi	~118 kWh	~200 kW	~31 min	CCS	355 to 536+ hp	5
Mercedes-Benz EQS SUV	Full-size luxury SUV	$89,950	317 mi	~118 kWh	~200 kW	~31 min	CCS	355 to 536 hp	Up to 7
Mercedes-Benz G 580 with EQ Technology	Luxury off-road SUV	$180,800	239 mi	~116 kWh	~200 kW	~32 min	CCS	579 hp	5

The newer electric CLA uses a more advanced high-voltage architecture than Mercedes’ earlier EQ models and offers up to approximately 374 miles of EPA range. 

 

MINI 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
MINI Countryman SE ALL4	Compact SUV	$45,200	216 mi	~66 kWh	~130 kW	~30 min	CCS	308 hp	5

The electric Countryman provides all-wheel drive and more interior space than previous MINI EVs. 

 

Nissan 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Nissan LEAF	Compact crossover	$29,990	303 mi	~75 kWh	Up to ~150 kW	~35 min	NACS	174 to 214 hp	5

The redesigned LEAF is considerably different from the earlier hatchback. Current U.S. pricing starts at $29,990, and the S+ version is rated at approximately 303 miles of EPA range. 

 

Polestar 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Polestar 3	Luxury SUV	$66,100	350 mi	~111 kWh	Up to ~250 kW	~30 min	CCS/NACS access	329 to 671 hp	5
Polestar 4	Luxury crossover	$56,400	310 mi	~100 kWh	~200 kW	~30 min	CCS/NACS access	272 to 544 hp	5

Current U.S. examples are primarily available from existing inventory. 

 

Porsche 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Porsche Taycan	Performance sedan	$111,900	295 mi	~89 to 105 kWh	Up to 320 kW	~18 min	CCS	402 to 1,019 hp	4 or 5
Porsche Taycan Cross Turismo	Performance wagon	$114,250	277 mi	~105 kWh	Up to 320 kW	~18 min	CCS	429 to 537+ hp	5
Porsche Macan Electric	Luxury SUV	$80,300	309 mi	100 kWh	Up to 270 kW	~21 min	CCS	335 to 630 hp	5
Porsche Cayenne Electric	Luxury SUV	$109,000	317 mi	~113 kWh	Up to ~400 kW	~16 min	NACS/CCS	435 to 1,139 hp	5
Porsche Cayenne Coupe Electric	Luxury coupe SUV	$113,800	339 mi	~113 kWh	Up to ~400 kW	~16 min	NACS/CCS	435 to 1,139 hp	5

Porsche places particular emphasis on high-voltage battery architecture and sustained fast-charging performance. Current listings include Taycan variants exceeding 1,000 hp and the newer electric Cayenne family. 

 

Rivian 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Rivian R2	Midsize SUV	$57,990	335 mi	~90 to 100 kWh	~220+ kW	~30 min	NACS	Up to 656 hp	5
Rivian R1T	Electric pickup	$79,990	420 mi	Multiple battery sizes	Up to ~300 kW	~30 min	NACS	533 to 1,025 hp	5
Rivian R1S	Three-row SUV	$83,990	410 mi	Multiple battery sizes	Up to ~300 kW	~30 min	NACS	533 to 1,025 hp	7

The R1T is available with as much as approximately 420 miles of EPA range, while the R1S reaches approximately 410 miles in its long-range configuration. 

 

Rolls-Royce 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Rolls-Royce Spectre	Ultra-luxury coupe	~$395,000	277 mi	~102 kWh	~195 kW	~34 min	CCS	577 hp	4
Rolls-Royce Black Badge Spectre	Ultra-luxury coupe	~$465,000	251 mi	~102 kWh	~195 kW	~34 min	CCS	659 hp	4

The Spectre places greater emphasis on refinement, power delivery and luxury than maximum range or charging speed. 

 

Subaru 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Subaru Solterra	Compact SUV	$38,495	288 mi	~74.7 kWh	~150 kW	~28 min	NACS	233 to 338 hp	5
Subaru Trailseeker	Midsize SUV	$39,995	281 mi	~75 kWh	~150 kW	~28 min	NACS	375 hp	5
Subaru Uncharted	Compact SUV	$34,995	308 mi	~57.7 to 77 kWh	~150 kW	~28 min	NACS	221 to 338 hp	5

Subaru’s electric lineup has expanded from a single model to multiple crossovers covering different sizes and price points. 

 

Tesla 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Tesla Model 3	Sedan	$36,990	363 mi	~60 to 79 kWh	Up to 250 kW	~25 to 30 min	NACS	~271 to 510 hp	5
Tesla Model Y	SUV	$39,990	357 mi	~60 to 79 kWh	Up to 250 kW	~25 to 30 min	NACS	~283 to 510 hp	5
Tesla Model Y L	Three-row SUV	$61,990	328 mi	~82 kWh	Up to 250 kW	~25 to 30 min	NACS	~496 hp	6
Tesla Cybertruck	Pickup	$69,990	335 mi	~123 kWh	Up to ~325 kW	~30 min	NACS	~600 to 845 hp	5

The Model 3 is available with an EPA estimate as high as 363 miles, while the Model Y reaches approximately 357 miles depending on configuration. Current pricing starts at $36,990 for the Model 3 and $39,990 for the Model Y. 

The Cybertruck starts at $69,990 in AWD form, with the Cyberbeast offering up to 845 hp in current published data. 

 

Toyota 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Toyota bZ	Compact SUV	$34,980	314 mi	~57.7 to 74.7 kWh	~150 kW	~28 min	NACS	168 to 338 hp	5
Toyota C-HR Electric	Compact crossover	$37,080	287 mi	~74.7 kWh	~150 kW	~28 min	NACS	338 hp	5
Toyota bZ Woodland	Adventure SUV	$45,380	281 mi	~74.7 kWh	~150 kW	~28 min	NACS	375 hp	5

Toyota’s newer battery-electric models have substantially improved range and charging capability compared with the company’s earlier U.S. EV offerings. 

 

VinFast 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
VinFast VF 8	Midsize SUV	$39,900	256 mi	~87.7 kWh	~160 kW	~31 min	CCS	349 to 402 hp	5
VinFast VF 9	Three-row SUV	$69,800	330 mi	~123 kWh	~250 kW	~35 min	CCS	402 hp	7

The larger VF 9 provides three-row seating and up to approximately 330 miles of EPA range. 

 

Volkswagen 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Volkswagen ID.4	Compact SUV	$45,095	291 mi	~82 kWh	Up to ~175 kW	~28 min	CCS	282 to 335 hp	5
Volkswagen ID. Buzz	Electric van	$59,995	234 mi	~91 kWh	~200 kW	~26 min	CCS	282+ hp	6 or 7

Current examples of both models are increasingly concentrated in remaining dealer inventory. 

The ID. Buzz is one of the few fully electric passenger vans sold in the United States and offers genuine three-row passenger capacity. 

 

Volvo 

Model	Type	Starting MSRP	Max EPA Range	Battery	Max DC Charging	Approx. 10 to 80%	Connector	Horsepower	Seats
Volvo EX30	Subcompact SUV	$38,950	261 mi	~69 kWh	~175 kW	~27 min	NACS/CCS depending on inventory	272 to 422 hp	5
Volvo EX40	Compact SUV	$55,150	296 mi	~82 kWh	~205 kW	~28 min	CCS	238 to 402 hp	5
Volvo EX60	Midsize SUV	$58,400	322 mi	Multiple battery sizes	Up to ~370 kW	~20 min	NACS	315 to 455+ hp	5
Volvo EX90	Three-row luxury SUV	$78,090	298 mi	~111 kWh	Up to ~250 kW	~30 min	NACS/CCS depending on model	329 to 510+ hp	7

The EX60 represents Volvo’s newer generation of dedicated EV architecture and is currently listed with as much as 322 miles of EPA range. 

 

Understanding EV Range 

EPA-estimated range is one of the most important specifications when comparing electric vehicles, but it should not be considered in isolation. 

For general reference: 

EPA Range	Typical Use
Under 200 miles	Primarily city and local use
200 to 250 miles	Commuting and moderate regional driving
250 to 300 miles	Suitable for most everyday users
300 to 350 miles	Strong combination of daily and road-trip capability
350 to 400 miles	Excellent long-distance capability
400+ miles	Among the longest-range EVs available

Actual range can vary substantially depending on: 

• Highway speed 

• Outside temperature 

• Heating and air conditioning use 

• Terrain 

• Driving style 

• Wheel and tire selection 

• Passenger and cargo load 

• Battery temperature 

• Towing 

• Headwinds 

A vehicle rated for 300 miles by the EPA should not automatically be expected to travel exactly 300 miles during every highway trip. 

 

Battery Size Does Not Tell the Whole Story 

It is tempting to assume that an EV with a larger battery will automatically have more range. 

That is not necessarily true. 

Two EVs with similarly sized batteries can have very different ranges because of differences in: 

• Vehicle weight 

• Aerodynamics 

• Motor efficiency 

• Tires 

• Software 

• Thermal management 

• Power electronics 

• Drivetrain configuration 

For example, an efficient electric sedan may achieve significantly more range from a 100 kWh battery than a large pickup or off-road SUV using a similar amount of stored energy. 

Efficiency matters just as much as battery capacity. 

 

Understanding DC Fast Charging 

Public DC fast charging is particularly important for drivers who take long trips. 

The figure commonly advertised by manufacturers is peak charging power, expressed in kilowatts. 

Common charging levels include: 

Peak DC Charging	General Classification
50 to 100 kW	Relatively slow by current standards
100 to 150 kW	Moderate
150 to 200 kW	Fast
200 to 300 kW	Very fast
300+ kW	Among the fastest current EV systems

Peak charging power, however, is only one measurement. 

An EV may reach its peak charging rate for only a short portion of the session. The vehicle’s charging curve determines how much power it can maintain as the battery fills. 

That is why a manufacturer’s estimated 10 to 80 percent charging time can often be more useful than the maximum kW figure. 

 

Why 10 to 80 Percent Charging Time Matters 

EV manufacturers frequently quote charging times from approximately 10 percent to 80 percent rather than from empty to 100 percent. 

There is a reason. 

Lithium-ion batteries can usually accept much higher charging power when their state of charge is relatively low. Charging power generally begins decreasing as the battery becomes full. 

As a result, charging from 80 percent to 100 percent can take disproportionately longer. 

On a road trip, many EV drivers therefore: 

1. Arrive at a fast charger with a relatively low battery. 

1. Charge to approximately 70 or 80 percent. 

1. Continue driving. 

1. Repeat the process as necessary. 

This can be faster than waiting for the vehicle to reach 100 percent at every charging stop. 

 

400-Volt and 800-Volt EV Architecture 

Another specification consumers increasingly encounter is battery system voltage. 

Many EVs use electrical architectures around 400 volts. 

A growing number use approximately 800 volts or higher. 

Higher-voltage systems can allow manufacturers to deliver very high charging power while reducing current and associated electrical losses. 

Vehicles using advanced high-voltage architectures include models from: 

• Audi 

• Genesis 

• Hyundai 

• Kia 

• Lucid 

• Porsche 

However, voltage alone does not determine charging performance. Battery chemistry, cooling, software and the charger’s capabilities also matter. 

 

NACS vs. CCS Charging Connectors 

The U.S. charging industry has undergone a major transition toward the North American Charging Standard, or NACS, which has also been standardized as SAE J3400. 

Tesla originally developed the connector for its vehicles and Supercharger network. 

Many other automakers have since adopted NACS for new vehicles. 

Current EVs can fall into three broad categories: 

Native NACS 

The vehicle has a NACS port built directly into the car. 

CCS with Tesla Supercharger Access 

The vehicle has a CCS1 port but can use certain Tesla Superchargers through an approved adapter. 

CCS Only or Limited Supercharger Access 

Some older vehicles and remaining dealer-stock models may still rely primarily on CCS public charging infrastructure. 

Consumers should verify charging compatibility for the specific model year they are purchasing because connector configurations can change from one model year to the next.

See our EV Charging Adapter Guide for more information.

 

Can Every NACS EV Use Every Tesla Supercharger? 

No. 

Having a NACS connector does not automatically mean that a vehicle can use every Tesla Supercharger. 

Compatibility depends on several factors, including: 

• Automaker agreements with Tesla 

• Supercharger generation 

• Vehicle software 

• Charging voltage 

• Station configuration 

• Adapter approval 

• Payment and authentication systems 

Buyers who regularly travel long distances should check which charging networks are supported by the exact vehicle they are considering. 

 

Home EV Charging 

For many EV owners, most charging happens at home rather than at public fast chargers. 

A typical Level 2 home charger operates at 208 or 240 volts and can provide substantially more power than a conventional 120-volt household outlet. 

Common Level 2 charging power levels include: 

Charging Current	Approximate Power at 240V
16 A	3.8 kW
24 A	5.8 kW
32 A	7.7 kW
40 A	9.6 kW
48 A	11.5 kW
64 A	15.4 kW
80 A	19.2 kW

The actual charging speed is determined by both the EV charger’s available power and the vehicle’s onboard AC charger. 

A 19.2 kW charging station will not charge a vehicle at 19.2 kW if the vehicle’s onboard charger accepts only 11.5 kW. 

 

How Long Does Home Charging Take? 

Charging time depends largely on battery capacity, the starting state of charge and the power available from the charging station. 

For example, adding 60 kWh of energy under ideal conditions would theoretically require approximately: 

Charging Power	Approximate Time for 60 kWh
3.8 kW	15.8 hours
7.7 kW	7.8 hours
9.6 kW	6.3 hours
11.5 kW	5.2 hours
19.2 kW	3.1 hours

Actual charging takes somewhat longer because charging power can fluctuate and there are electrical losses. 

Most EV owners do not recharge the entire battery every night. If a driver uses 30 or 40 miles of range during the day, the vehicle only needs to replace the energy consumed during those miles. 

 

How Much EV Range Do You Need? 

Consumers sometimes assume they need the EV with the longest range available. 

For many drivers, that is unnecessary. 

A commuter who drives 30 miles per day and charges at home may use only a small portion of a modern EV battery each day. 

A range of approximately 250 to 300 miles can be sufficient for many households. 

Additional range becomes more valuable for drivers who: 

• Frequently take long highway trips 

• Cannot charge at home 

• Drive long distances for work 

• Travel through areas with limited charging infrastructure 

• Live in very cold climates 

• Tow trailers 

• Regularly carry heavy loads 

Consumers should consider their longest routine trips rather than simply their average commute. 

 

Rear-Wheel Drive, Front-Wheel Drive and All-Wheel Drive EVs 

Electric vehicles can use several drivetrain configurations. 

Rear-Wheel Drive 

Single-motor rear-wheel-drive EVs often provide: 

• Greater efficiency 

• Longer range 

• Lower purchase price 

• Lower vehicle weight 

Front-Wheel Drive 

Front-wheel drive is common in some smaller and more affordable EVs. 

It generally provides predictable handling and efficient packaging. 

All-Wheel Drive 

Most AWD EVs use a motor on each axle. 

Advantages can include: 

• Greater traction 

• More horsepower 

• Faster acceleration 

• Improved performance in poor weather 

The additional motor can increase weight and energy consumption, so AWD versions frequently have slightly less driving range than equivalent single-motor versions. 

 

Horsepower and EV Performance 

Electric motors can produce maximum torque almost immediately, which gives EVs their characteristic rapid acceleration. 

Even many mainstream EVs now produce 300 horsepower or more. 

Performance EVs can exceed: 

• 500 hp 

• 600 hp 

• 800 hp 

• 1,000 hp 

Vehicles including the Lucid Air Sapphire, GMC Hummer EV, Porsche Taycan Turbo GT and high-output Rivian models demonstrate how electric drivetrains can produce supercar-level acceleration. 

For everyday consumers, however, extreme horsepower should be considered alongside efficiency, insurance cost, tire wear and driving range. 

 

Electric SUVs With Three Rows 

Consumers who need six or seven seats now have several fully electric choices. 

Current three-row EVs include: 

• Cadillac VISTIQ 

• Cadillac Escalade IQ 

• Cadillac Escalade IQL 

• Hyundai IONIQ 9 

• Kia EV9 

• Lucid Gravity 

• Mercedes-Benz EQS SUV 

• Rivian R1S 

• Tesla Model Y L 

• VinFast VF 9 

• Volvo EX90 

• Volkswagen ID. Buzz 

Availability of captain’s chairs, bench seats and maximum seating capacity varies by trim. 

 

Electric Pickup Trucks 

Electric pickup buyers currently have several very different options. 

Chevrolet Silverado EV 

Available with extremely large battery options and EPA range reaching approximately 493 miles. 

GMC Sierra EV 

Shares underlying GM EV technology with the Silverado but offers different styling, equipment and positioning. 

Rivian R1T 

Combines pickup utility with adventure-oriented design and high-performance drivetrain options. 

Tesla Cybertruck 

Uses an unconventional stainless-steel exterior design and native access to Tesla’s charging ecosystem. 

GMC Hummer EV Pickup 

Emphasizes extreme power and off-road capability. 

Ford F-150 Lightning 

Offers a familiar F-150 body and cabin format, although new availability is increasingly dependent on remaining dealer inventory. 

Electric truck buyers should pay particular attention to towing range. 

Towing a large or aerodynamically inefficient trailer can reduce EV driving range dramatically. 

 

EV Towing Range 

EPA range figures are measured without a large trailer attached. 

When towing, range can fall substantially because the electric motor must overcome: 

• Additional weight 

• Increased aerodynamic drag 

• Tire resistance 

• Elevation changes 

• Higher energy demand at highway speeds 

A pickup rated at 400 miles when unloaded should not automatically be expected to travel anywhere near 400 miles while towing a large trailer. 

Anyone buying an electric truck specifically for towing should examine independent towing-range tests for the trailer size and driving conditions they expect to encounter. 

 

EV Battery Warranties 

Federal regulations require manufacturers to provide substantial warranty protection for EV batteries. 

Many manufacturers provide approximately: 

8 years or 100,000 miles 

of battery warranty coverage, although exact terms vary. 

Some manufacturers also guarantee that the battery will retain a specified percentage of its original capacity during the warranty period. 

Consumers should check: 

• Battery warranty length 

• Mileage limit 

• Minimum capacity guarantee 

• Transferability 

• Exclusions 

• Whether battery repair or replacement is covered 

Battery warranties should not be assumed to be identical between manufacturers. 

 

Battery Degradation 

EV batteries gradually lose some usable capacity as they age. 

Factors that can influence degradation include: 

• Battery chemistry 

• Climate 

• Charging habits 

• Battery temperature 

• Frequency of DC fast charging 

• Time spent at extremely high or low state of charge 

• Vehicle thermal-management system 

Modern EVs generally use sophisticated battery-management systems to protect the cells. 

For most owners, gradual battery degradation is very different from a sudden battery failure. 

 

Cold Weather and EV Range 

Cold weather can temporarily reduce electric vehicle range. 

Energy is required to: 

• Warm the battery 

• Heat the passenger compartment 

• Defrost windows 

• Maintain battery operating temperature 

EVs equipped with heat pumps can generally heat the cabin more efficiently than vehicles relying entirely on resistive heating. 

Consumers living in very cold climates may want to give additional consideration to: 

• Heat-pump availability 

• Battery preconditioning 

• Heated seats 

• Heated steering wheel 

• Ability to precondition while connected to home charging 

 

Hot Weather and EVs 

Extreme heat can also affect EV efficiency and battery temperature. 

Modern EVs typically use active thermal-management systems to keep their batteries within a suitable temperature range. 

When buying an EV for a very hot climate, useful features include: 

• Liquid-cooled battery system 

• Remote cabin preconditioning 

• Scheduled charging 

• Battery thermal management 

• Heat-rejecting glass 

• Efficient climate control 

Parking in shade and preconditioning while the vehicle remains connected to a charger can also reduce the amount of battery energy required to cool the cabin. 

 

What Happened to the Federal EV Tax Credit? 

The former federal consumer clean-vehicle tax credit of up to $7,500 for qualifying new EV purchases ended in September 2025. 

As a result, consumers shopping in 2026 should pay closer attention to: 

• Manufacturer incentives 

• Dealer discounts 

• Lease incentives 

• State incentives 

• Local utility incentives 

• Home charger rebates 

• Electricity-rate programs 

State and utility programs can change frequently, so buyers should verify eligibility immediately before purchasing or leasing. 

 

Buying vs. Leasing an EV 

There is no single answer that applies to every EV buyer. 

Reasons consumers may choose to buy 

• They intend to keep the vehicle for many years. 

• They drive more miles than typical lease allowances. 

• The purchase price is heavily discounted. 

• They want to own the vehicle after financing ends. 

• They do not want mileage or condition restrictions. 

Reasons consumers may choose to lease 

• EV technology is changing rapidly. 

• The manufacturer is offering a subsidized lease. 

• The buyer wants predictable ownership periods. 

• The buyer is concerned about future resale value. 

• The buyer wants to change vehicles every few years. 

Consumers should compare the full lease cost rather than focusing only on the advertised monthly payment. 

That includes: 

• Amount due at signing 

• Monthly payments 

• Acquisition fees 

• Mileage limits 

• Disposition fees 

• Taxes 

• Potential excess wear charges 

 

Used EVs 

Used electric vehicles can offer significant savings because some EVs experience rapid early depreciation. 

Before buying a used EV, consider obtaining information about: 

• Remaining battery warranty 

• Battery state of health 

• DC fast-charging capability 

• Charging connector 

• Software updates 

• Accident history 

• Tire condition 

• Remaining factory warranty 

• Availability of replacement parts 

• Whether the vehicle can use Tesla Superchargers 

A newer EV with slightly higher mileage may sometimes offer substantially better battery technology and charging capability than an older low-mileage EV. 

 

Do You Need a Home Charger Before Buying an EV? 

Not necessarily, but the ownership experience is generally easier when reliable overnight charging is available. 

Before buying an EV, determine: 

1. Where will the vehicle normally be parked? 

1. Is a 240-volt circuit available? 

1. What electrical capacity does the property have? 

1. How many miles are normally driven each day? 

1. Is public charging available nearby? 

1. Can the vehicle use Tesla Superchargers? 

1. Does the utility offer discounted EV charging rates? 

Apartment and condominium residents should investigate charging access before purchasing rather than assuming public fast charging will completely replace home charging. 

 

EV Charging at Apartments and Condominiums 

Multifamily charging presents different challenges from single-family home charging. 

Property owners and residents may need to consider: 

• Electrical capacity 

• Assigned parking 

• Charger access control 

• Electricity billing 

• Load management 

• ADA requirements 

• Permitting 

• Utility upgrades 

• Cable management 

• Number of future EVs 

Smart load management can sometimes allow a property to serve more EVs without immediately increasing the building’s total electrical service capacity. 

 

Public Charging Networks 

Major U.S. charging networks include Tesla Supercharger and a growing number of CCS and NACS charging providers. 

When comparing public charging, consider more than the advertised maximum power. 

Useful factors include: 

• Number of charging stalls 

• Reliability 

• Charger uptime 

• Payment methods 

• Plug-and-charge support 

• Vehicle compatibility 

• Charging speed 

• Location 

• Amenities 

• Pricing 

• Availability during peak travel periods 

A reliable 150 kW station may provide a better experience than an unreliable 350 kW station. 

 

Should You Charge an EV to 100 Percent Every Day? 

For many battery chemistries, manufacturers recommend something below 100 percent for routine daily charging. 

A common daily target is approximately 80 percent. 

However, recommendations differ according to battery chemistry and manufacturer. 

Some EVs using lithium iron phosphate, or LFP, batteries may have different charging recommendations, including periodic or routine charging to 100 percent. 

Always follow the charging guidance provided for the specific vehicle and battery chemistry. 

 

EV Charging Speed Usually Slows Above 80 Percent 

A DC fast charger may initially deliver hundreds of kilowatts, but the vehicle controls how much power the battery accepts. 

As the battery approaches a high state of charge, the vehicle generally reduces charging power to protect the battery. 

For road trips, charging from a low state of charge to approximately 70 or 80 percent and continuing the trip can therefore reduce total travel time. 

 

EV Insurance Costs 

EV insurance costs vary significantly. 

Factors can include: 

• Vehicle purchase price 

• Repair cost 

• Aluminum or composite body construction 

• Sensor and camera replacement cost 

• Performance 

• Battery protection structures 

• Parts availability 

• Manufacturer repair procedures 

A relatively inexpensive EV is not automatically inexpensive to insure. 

Consumers should obtain an insurance quote before purchasing a vehicle, especially when considering high-performance or luxury EVs. 

 

EV Tire Wear 

Electric vehicles can be heavier than comparable gasoline vehicles because of their battery packs. 

They also deliver high torque immediately. 

Both factors can increase tire wear, particularly on powerful models. 

When comparing EV ownership costs, look at: 

• Tire size 

• Replacement tire price 

• Expected tire life 

• Alignment requirements 

• Performance tire options 

Large 21, 22 and 23-inch wheels can significantly increase replacement tire costs. 

Smaller wheels frequently improve efficiency and driving range as well. 

 

Does an EV Need Maintenance? 

Yes, but EVs eliminate many traditional gasoline-engine maintenance items. 

EVs generally do not require: 

• Engine oil changes 

• Spark plugs 

• Engine air filters 

• Exhaust-system repairs 

• Conventional engine tune-ups 

They still require maintenance and inspection of items such as: 

• Tires 

• Brakes 

• Brake fluid 

• Suspension 

• Cabin air filters 

• Wiper blades 

• Cooling systems 

• Air conditioning 

• 12-volt or low-voltage battery 

• High-voltage system components 

Regenerative braking can reduce wear on conventional brake pads and rotors, although mechanical brakes still require periodic inspection. 

 

The 2026 U.S. EV Market 

The American EV market is no longer limited to a small number of expensive vehicles. 

As of late September 2026, one current market database tracks 83 EV models and 253 individual trims available in the United States. The lowest listed starting MSRP is $27,600, and several electric vehicles now start below $40,000. 

At the same time, driving range continues to increase. 

Current standout maximum EPA range figures include: 

Vehicle	Maximum EPA Range
Lucid Air	512 miles
Chevrolet Silverado EV	493 miles
Cadillac Escalade IQ	460 miles
Cadillac Escalade IQL	460 miles
Lucid Gravity	450 miles
BMW iX3	434 miles
Rivian R1T	420 miles
Rivian R1S	410 miles
Audi A6 Sportback e-tron	392 miles
Mercedes-Benz EQS	390 miles
Mercedes-Benz CLA Electric	374 miles
Tesla Model 3	363 miles
Tesla Model Y	357 miles

Current range data places the Lucid Air Grand Touring at the top of the market at more than 500 EPA-rated miles. 

Perhaps more important for mainstream adoption, longer range is moving into lower-priced vehicles. 

The market now includes vehicles such as the Chevrolet Bolt, Kia EV3, Nissan LEAF, Chevrolet Equinox EV, Hyundai IONIQ 5, Subaru Uncharted and Tesla Model 3 at prices that put EV ownership within reach of a much broader group of consumers. 

 

How to Choose an Electric Vehicle 

When comparing EVs, consider the complete ownership experience rather than focusing on a single specification. 

Important factors include: 

• Purchase price 

• Lease price 

• EPA driving range 

• Real-world highway range 

• Battery capacity 

• Energy efficiency 

• Maximum DC charging rate 

• 10 to 80 percent charging time 

• NACS or CCS connector 

• Tesla Supercharger compatibility 

• Home charging speed 

• Passenger capacity 

• Cargo capacity 

• Horsepower 

• All-wheel drive availability 

• Towing capacity 

• Battery warranty 

• Vehicle warranty 

• Insurance cost 

• Tire replacement cost 

• Service availability 

• Dealer network 

• Software and mobile app 

• Driver-assistance technology 

A vehicle with the longest range or highest charging rate is not automatically the right vehicle for every buyer. 

For someone who drives 25 miles per day and charges at home, a 250-mile EV may provide more than enough range. 

For someone who regularly drives hundreds of highway miles, a combination of long range, fast charging and reliable charging-network access may be far more important. 

The right electric vehicle is ultimately the one that matches how far you drive, where you drive, where you can charge, how much space you need and how much you want to spend. 

 

2026 EV Buyers Guide Disclaimer 

Vehicle specifications, pricing, availability, battery capacities, charging speeds and EPA ratings can change throughout the model year. 

Battery capacity may be reported as either gross or usable capacity depending on the manufacturer. Maximum DC charging figures represent peak capability and are not continuously maintained during an entire charging session. Actual charging speed depends on charger capability, state of charge, battery temperature, ambient temperature and other conditions. 

EPA range varies by trim, drivetrain, wheels and tires. 

Starting MSRP generally excludes destination charges, taxes, registration, dealer fees, accessories and optional equipment. 

Vehicles identified as dealer-stock models may not be available in every region. 

Consumers should verify final specifications, pricing, charging compatibility and availability for the exact vehicle and trim before purchasing.