What EV skeptics got right and wrong about range, charging and cold

In September 2012, Toyota's vice chairman gave the case against electric cars in one sentence. Takeshi Uchiyamada said EVs "do not meet society's needs" on driving distance, cost or charging time, and Toyota cut a planned mass launch of its small eQ electric car back to a token run. Fourteen years later, there's enough measured data to check each of those complaints, and the scorecard is more mixed than either side tends to admit.

This matters now because range anxiety still shapes buying decisions, even as the hardware has changed beyond recognition. The median new EV in the U.S. now goes more than four times as far on a charge as the 2011 models did. Public chargers are multiplying fast. But winter range loss is real and measurable, and one in eight attempts to use a U.S. public charger still fails. Here's what the critics said, what happened, and where they were right.

The case against EVs, in the critics' own words

Uchiyamada wasn't a crank. He's known as the engineer behind the Prius, and his 2012 doubts came with a strategy: Toyota said it would lean on hybrids and planned 21 hybrid models by 2015. His three objections were range, cost and how long a charge takes.

Toyota kept that line for years. In July 2014, its research chief Mitsuhisa Kato told Automotive News that EVs couldn't yet replace gasoline cars because of short range and long charging times. He said the technology would need a "Nobel Prize-winning type battery".

The most famous test of those doubts came in February 2013. New York Times reporter John Broder took a Tesla Model S on a winter drive up the East Coast to try Tesla's new fast-charging stations. His review, "Stalled Out on Tesla's Electric Highway," said the car couldn't hold its rated range in the cold. Elon Musk called the story fake and released the car's driving logs. The Times' public editor, Margaret Sullivan, rejected the claim that it was faked. She said Broder took the drive "in good faith" but questioned his judgment, and said his "casual and imprecise notes" left him open to criticism.

Take away the feud and the Broder episode raised three real questions: Can an EV go far enough? Can it refill fast enough? And what happens when it's freezing outside? Those are the questions to check.

Range: the doubt the data answered most clearly

The U.S. Department of Energy tracks the median EPA-rated range of every new all-electric model. For model year 2024, the median hit a record 283 miles (455 km) per charge, up 13 miles (21 km) from the year before and more than four times the median for model year 2011. (Median means half the models go farther and half go less, so a few very long-range luxury cars can't skew it.) The longest EPA rating so far belongs to the 2022 Lucid Air, at 520 miles (837 km).

Real-world data points the same way. Recurrent, a company that tracks battery data from tens of thousands of connected EVs, says average real-world range has risen to 325 miles (523 km). It also addresses an older fear, that batteries fade fast: in its data the average EV keeps 97% of its range after three years and 95% after five. Recurrent does add that range retention "is not the same as battery health," because every battery ages.

Kato's Nobel Prize battery never arrived. What did arrive was steady gains in cell chemistry, packaging and efficiency, and that turned out to be enough to more than quadruple the median.

Charging time: from 30 minutes to a five-minute claim

When Tesla showed its first six Superchargers in September 2012, they delivered almost 100 kilowatts. The company said that was enough to add about three hours of 60 mph (97 km/h) driving (roughly 180 miles, or 290 km) in about half an hour. That was fast for its day. It was also limited to one brand, along a few routes in California, Nevada and Arizona.

Today the best case is much faster. Recurrent says the quickest-charging EVs can add 100 miles (161 km) in under 10 minutes. In March 2025 BYD said its new platform charges at 1,000 kilowatts and can add 400 kilometers (about 250 miles) of range in five minutes on its Han L sedan. That's a company claim, and BYD said it planned more than 4,000 of these stations in China. That's a plan, not a finished network.

The typical experience is slower than the headline numbers. The International Energy Agency (IEA) puts the global average speed of public charging points at 50 kilowatts, about half what Tesla's first Superchargers offered. And only about 4% of electric car models can take power above 250 kilowatts. So for most drivers, charging still takes longer than filling a gas tank. Uchiyamada's complaint about charging time has been narrowed, not erased.

Charging networks: huge growth, but uneven

The scale has changed beyond what anyone in 2012 was planning for. The IEA counts more than 7 million public charging points worldwide at the end of 2025, after 1.8 million were added that year, a 33% rise. China has about 4.7 million of them, including 2.2 million fast or ultra-fast units.

The U.S. picture is thinner. The IEA counts more than 230,000 public points in the country, about 70,000 of them fast or ultra-fast. That works out to about 33 EVs per public charger in the U.S., against about 11 in the EU. In 2024, about 35% of the U.S. interstate system had fast chargers no more than 50 km (31 miles) apart. The figure for the European highway network was over 75%.

Reliability is the other gap. In J.D. Power's 2026 public charging study, released August 12, 12% of visits ended without a charge. That's a record low for the study, down from 14% the year before. "The public charging experience is becoming more consistent," said Brent Gruber, J.D. Power's executive director of EV solutions. Still, if you make eight stops, odds are one of them fails. Skeptics who doubted the infrastructure would be dependable weren't wrong. They've just been proved less right each year.

Cold weather: where the skeptics had a point

Broder's freezing drive wasn't a one-off. In February 2019, AAA tested five EVs in a climate-controlled lab. At 20°F with the heater running, average range fell 41%: a car rated for 100 miles (161 km) would go about 59 (95 km). With the heater off, the loss at the same temperature was only 12%. Most of the problem was keeping the cabin warm, not the battery.

Real-world data shows a smaller but still real drop. Recurrent's winter study, based on more than 30,000 U.S. vehicles, found EVs keep on average 78% of their range at 32°F and 70% at 20°F. The spread between models is wide, from 88% down to 69% at freezing. Heat pumps, which warm the cabin more efficiently than resistance heaters, add about 10% of range at 32°F. Recurrent stresses that the loss is temporary and doesn't damage the battery.

Two things are true at once. A 30% range cut at 20°F is a real cost, and anyone who said winter would hurt EVs was right. But a 283-mile (455 km) car that loses 30% still goes about 200 miles (322 km), close to triple what a typical 2011 EV managed in perfect weather.

The cold-country test

If cold weather made EVs impractical, Norway would show it. In 2025, 95.9% of the 179,550 new passenger cars registered there were fully electric, according to registration data from Norway's road traffic information council (OFV) reported by Just Auto. Even Finnmark, the far northern county above the Arctic Circle, had an EV share of 86%, the lowest of any county.

Norway had help. Years of tax breaks pushed buyers toward EVs, and the head of the Norwegian Road Federation credited "long-term and targeted electric car policy". So Norway doesn't prove EVs suit every cold-climate driver. It does show that millions of people in a cold, mountainous country have decided the trade-offs are worth it.

The scorecard, and what to watch

Against Uchiyamada's three objections: range has been largely answered. Charging time has improved a lot at the top end but less for the typical charger. Cost is outside this piece and deserves its own look. The early warnings about cold weather were right about the direction, and too gloomy about how bad it would be. The fair complaint today is charger reliability and coverage in the U.S., not whether the cars themselves work.

There are three things to watch. The DOE publishes its median-range figure once a year, and the model year 2025 number will show whether the climb from 283 miles (455 km) is slowing. Recurrent's next winter study, after the 2026 to 2027 winter, will show whether heat pumps, worth about 10% of range at freezing, are spreading through more models. And J.D. Power's 2027 charging study will test whether the failure rate can drop below this year's 12%.

If you drive an EV, which early fear turned out to matter most for you: range, charging or winter? And if you still don't drive one, which of them is keeping you out?