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Who even wants to drive more than 400 miles without taking a break to recharge — literally or metaphorically?

Take a moment to ask yourself: When was the last time you drove 300-plus miles without stopping? For reference, that means tackling a five- or six-hour journey, like L.A. to San Francisco or Houston to New Orleans, in one shot. Unless you have a bladder of steel and an obsession with making good time, there’s a good chance you’re making at least one pit stop on the way.
But if you wanted to, soon you could drive that far in one shot without burning gas.
Electric cars are reaching a point where such trips are nearly within reach. A few years ago, many if not most consumer EVs came with 200-some miles per charge. Then many automakers introduced the option to pay more for the longer-range battery, which extended driving range to 300 miles or more. Suddenly, more models have begun to top the 400-mile plateau.
The latest eye-popping range number comes from the 2027 BMW i3. This is the fully electrified version of the brand’s 3 Series, one of the icons of the automotive world. The launch version of that car comes with 440 miles of range, per the Environmental Protection Agency’s rating. It joins vehicles such as the Lucid Air, Chevy Silverado EV Extended Range, and Rivian’s Dual Max trucks and SUVs in topping 400 miles of maximum range. These are high-end EVs out of the reach of most buyers. Yet their mere availability suggests an automotive tipping point: At that point, an EV can go about as far as you’d even want to travel without a break.
To understand the importance of this milestone, remember what range numbers really mean. The EPA’s rating comes from testing an EV over a variety of driving conditions, from city stop-and-go to interstate road tripping. If you do all your driving around town, or stick to the speed limit on a 55-mile-per-hour country highway, then you might reach your car’s mileage estimate. But speed kills range. Fly down the freeway at 70 miles per hour and you won’t come anywhere close to the stated maximum.
Real-world testing makes this abundantly clear. The new Chevrolet Bolt is rated at 262 miles, impressive for a little car. Traveling 75 miles per hour, though, it makes a hair under 200 miles. In a much, much bigger vehicle, Chevy’s engineers got the Silverado EV to go 1,000 miles on a single charge by driving it 25 miles per hour; at realistic speeds, it might go 400-some. My own Tesla Model 3 has made the speed penalty abundantly clear over the years. Initially rated at 240 miles, it has never been able to travel more than about 150 miles at speeds above 70 miles per hour. Keep in mind that charging speed slows drastically as the battery approaches full. On a road trip, you’ll recharge only to 80% or 90% of capacity because it’s not worth it to wait 10 or 20 minutes for the last trickle of electricity.
The upshot: You want your EV to start with a big range number, because the number shrinks. The EPA rating is just a starting point — one that invariably wanes as the years go by. An EV with 400-plus miles of range will still have 300-some when it gets old. That’s a huge deal compared to the previous generation: Older cars that started in the 200s might see road trips become annoying ordeals if they drop below 200 “miles” per charge.
Three years ago this month, I wrote that people should buy as much EPA range as they could afford and that 300 was the magic number. That way, the real-world range you probably care about most — how long you can drive down the interstate without stopping — is at least 200 actual miles. After three hours on the road, you might be ready for a 20 or 30-minute break to stretch your legs and recharge the battery, anyway.
The arrival of more 400-mile ranges pushes EVs even closer to parity with combustion vehicles when it comes to road trip convenience. The more miles you have to work with, the more your trips and stops are decided by your own happiness and comfort rather than by the need to wait for more juice. Remember, too, that used EVs are all the rage right now as Americans seek affordable ways to avoid paying for gasoline. An older EV’s remaining range matters a lot to its second and third owner. A car that starts with 400 miles of range might still deliver an acceptable number of miles per charge even when it has hundreds of thousands of miles on the odometer.
The other thing is, battery capacity isn’t just about driving. An EV can use its stored energy for just about anything: to air-condition the dog while you eat dinner in a non-dog-friendly restaurant, to back up your home’s power supply during a blackout, to keep everyone comfortable and entertained while you wait in the parking lot, or to use its cameras to record footage of anyone who might mess with the vehicle. The more range, the more an EV can use energy for other purposes and still have plenty saved for driving.
Of course, the most powerful upshot of 400-mile electric cars is the death of range anxiety. The fear of running out of juice in the middle of nowhere — or of making an annoying number of charging stops with a lower-range EV — has kept many electric-curious buyers away. Many are turning back toward hybrid cars and even the forthcoming wave of extended-range EVs that use a gas engine as a backup generator. But worries about range and the steady but slow growth of America’s charging networks start to fade away when you realize many gasoline-burning cars would run out of fuel before your 400-mile EV hits empty.
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The latest forecast from BloombergNEF raises its estimate for AI electricity demand by 83%.
Energy analysts at BloombergNEF predicted last year that U.S. data center electricity demand would reach 106 gigawatts within the next decade. In its latest outlook, released Tuesday, the group increased its forecast by 83%, to 194 gigawatts — enough to light up 150 million homes, or roughly every single household in the country today.
Even that may be a conservative estimate. If data center developers were to max out the total number of the high-powered chips used to train and operate AI models forecast to be delivered by 2035, electricity demand would reach 229 gigawatts.
Over 100 gigawatts of that demand has entered the development pipeline since the beginning of this year, the result of both rising demand for artificial intelligence and shortened construction timelines for data centers. Some developers have oriented their site selection around energy availability, redeveloping brownfield energy generation sites for quick access to electricity and developing relationships with utilities. Others have eschewed grid interconnection entirely and instead relied behind-the-meter power generation.
As Mark Daly, head of technology and innovation at BNEF and a co-author of the report, pointed out to me, a growing share of the project pipeline comes from first-time developers. He and his colleagues project that non-hyperscaler data center capacity will nearly quintuple over the next decade, as hyperscaler capacity almost triples. That could ultimately create pipeline risks, however, as small-scale developers lack the capabilities of more experienced developers to optimize around pre-construction bottlenecks and navigate rapidly growing local opposition. Although local opposition to data centers has become prevalent, historic trends and predictions on how quickly developers are able to navigate hostile environments are built on the proficiency of experienced developers. Because first-time developers may face more challenges, Daly told me that data center projects overall “would see an increase in the number of delays.”
All of this, of course, comes with a big asterisk. The data center sector is rapidly evolving, and therefore highly uncertain. Among leading market research firms, BNEF said, there is a 100-gigawatt spread between the lowest and highest predicted electricity demand from data centers in 2030. Driving this spread are differences in assumptions about the average development timeline for a data center project. Daly told me that BNEF’s “project-based estimate is middle-of-the-road to bearish compared to other outlooks,” but also acknowledged that the fickle nature of local opposition on development timelines may place more constraints on future data center development than currently modeled.
No matter which prediction turns out to be most accurate, hourly U.S. electricity demand will come under intensifying pressure. BNEF predicts that average hourly U.S. electricity demand from AI workloads will grow five-fold over next nine years, reaching 120 gigawatts by 2035. That will put data centers at 12% of total electricity consumption on average by 2030, and 20% in 2035, up from 5% in 2025, according to figures from the International Energy Agency. This will put particular strain on electricity prices in markets like the Mid-Atlantic’s PJM, where data centers already comprise nearly a third of electricity consumption, and Texas’ ERCOT, where data centers currently consume a fifth of the market’s electricity.
Even the most conservative bet on future data center electricity demand is a scenario we’re not prepared for. If the Electric Power Research Institute’s prediction that just 56 gigawatts of new data center capacity will be up and running by 2030 — the lowest estimate BNEF cited — that would still consume the equivalent of Sweden’s total energy supply. Absent investments from utilities into grid resilience and intensive permitting reform to speed up renewable energy siting and development, PJM and ERCOT customers will not be the only ones feeling a serious squeeze in their wallets when their monthly utility bills arrive.
Current conditions: Tropical Depression Two strengthened into Tropical Storm Bertha yesterday, recycling the name of the 1996 Atlantic hurricane season’s first major storm • Floods from the monsoon season killed at least four people in Vietnam and left as many missing • Lightning in Utah sparked the state’s latest wildfire, the Meeks Fire, near the Strawberry Reservoir.
President Donald Trump’s on-again, off-again feud with America’s northern neighbor is, as of Monday, back on again. The White House imposed 50% tariffs on most Canadian goods, accusing the nation’s geographically nearest ally and closest cultural bedfellow of unfairly discriminating against American automotives, alcohol, and dairy products. The move threatens to unleash what the Associated Press called “a new wave of economic chaos, with risks of higher inflation and further fraying of relations between two nations that had been closely woven together before Trump’s return” to office.
In its announcement, the Trump administration said the new tariffs would “apply to all covered goods regardless of whether a good originates under the U.S.-Mexico-Canada Agreement,” referring to the Trump-negotiated North American free trade agreement, which the U.S. opted this month not to renew. This struck my colleague Robinson Meyer as ominous. “If the White House now thinks it can levy taxes despite that pact,” he wrote in yesterday’s Heatmap Daily newsletter, “then the risks for Ford, General Motors, and their suppliers have increased.”
Perhaps the only thing growing faster than voters’ antipathy toward data centers is the market’s desire for more of them. Demand for data centers is ballooning at such a rapid clip that BloombergNEF just raised its total forecast for 2035 by a jaw-dropping 83%. The latest data outlining the best-case scenario from the energy consultancy, released Tuesday morning, shows the total installed capacity of U.S. data centers reaching 194 gigawatts in the next nine years. The surge reflects how quickly new server farms are flowing into the project pipeline. In a bid to hedge against the continued expansion, BNEF created a new scenario based on the implied power demand of forecast shipments of microchips for AI computers up to 2033. This scenario implies an even greater need for power: 229 gigawatts of demand from data centers in just the next seven years. And that doesn’t count the continued growth of demand from data centers carrying out non-AI functions, such as traditional cloud computing workloads. This comes as the latest Heatmap Pro polling shows that seven in 10 Americans now oppose data centers in their backyard, a marked shift from last September, when the same survey showed voters evenly split in support and opposition.
That ballooning demand is already showing up in power markets. Of the $16.4 billion in charges from PJM Interconnection’s most recent capacity auction, $6.3 billion — some 38% — stems from data centers. That’s what Joseph Bowring, president of PJM’s independent market monitor Monitoring Analytics, told Utility Dive last week. In the last four base capacity auctions the nation’s largest grid operator held, 46% of capacity charges were driven by data centers. “PJM is continuing to act like it’s business as usual,” Bowring told the trade publication Friday. “You have to open your eyes and recognize that it is really a paradigm shift, and failing to do that imposes costs on other customers.”

On a logical level, it’s a simple supply and demand problem. The supply of electricity is not growing as quickly as demand, all while the Trump administration eliminates subsidies that once buoyed investments in new supply. As a result, corporate electricity deals look poised to increase in price. But not for every generating source. New estimates from LevelTen, a marketplace for power purchase agreements, found that solar PPAs were 5% cheaper in the second quarter of this year compared to the first quarter. In a piece by my colleague Matthew Zeitlin, LevelTen attributed the decline to an especially steep drop in prices in California’s electricity market. Excluding CAISO, solar PPA prices nationwide dropped slightly less than 2%. While hyperscalers are still buying solar, LevelTen found that commercial and industrial buyers are pulling back, creating a “continued softening in the market’s buy-side.” “We saw a lot less corporate energy buyers in the space in 2025 — 40% less — and that is just due to the increase of hyperscalers and data centers getting projects and snapping them up quickly,” Sarah Wolf, LevelTen’s director of North American transactions, told Matthew.
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Ah, Germany. The land of the Autobahn. Diesel-powered industry. The purring engines of BMWs, Porsches, and Mercedes-Benzes. The nation’s automotive might makes its latest milestone particularly important: Electric vehicles just outsold gas and diesel cars for the first time. New data from the Federal Motor Transport Authority shows that Germans registered 84,057 new electric vehicles in June, a more than 78% year-over-year increase. Traditional hybrids, meanwhile, saw 83,315 registrations, followed by gasoline-powered cars with 60,796, diesel with 33,862, and plug-in hybrids with 32,212. “The automotive history books will need a new page sooner rather than later, after electric cars outsold every other fuel type in Germany for the first time,” InsideEVs reporter Iulian Dnistran wrote. “It’s a huge shift in Europe’s biggest car market, which has traditionally been associated with diesel-powered cars that could travel hundreds of miles at highway speeds without breaking a sweat.” The Tesla Model Y was by far the best-selling EV in Germany, with nearly twice as many registrations as the No. 2 vehicle, the Volkswagen ID.3.
Putting on my Mesopotamian metal merchant hat again: Copper prices are back up. The price of the metal needed for virtually all electrical infrastructure rose 1.3% to just under $14,000 per metric ton, according to Mining.com. The price ultimately hovered at the red metal’s record set in early June. The spike stems from data showing rising tightness in the Chinese market, namely a hike in the premium buyers will pay in Shanghai for shipments of the metal. The price hiked further after a series of storms halted production in Chile for a few days.
While the West dithers on hydrogen, China is making huge strides. It already may be too late to catch up to Beijing on manufacturing the key machinery needed to produce the zero-carbon fuel. The latest data point, via Hydrogen Insight: China just shipped its largest electrolyzer order yet to Europe, via Romania.
A new report from LevelTen Energy shows that advance purchase prices are down for solar but up for wind.
The renewables market is in a state of flux. On the one hand, the tax credits that were a key pillar of wind and solar project financing have started to expire, while the race to be up and running in time to claim those that remain is on.
At the same time the renewables industry is getting whacked by federal tax policy, it’s also getting a shot in the arm from hyperscalers and data center developers, many of whom are hungry for power that can be deployed quickly to the grid and complies with their clean energy pledges.
“There’s a massive onslaught of demand, not enough supply to meet that demand and then Trump’s administration effort to slow down certain types of supply,” Jon Powers, the president of solar and storage developer CleanCapital, told me, describing how data center buyers are snapping up whatever power they can.
So what does this mean for pricing in the market? LevelTen, a marketplace for power purchase agreements, looked at the data and, in a report released Tuesday, found that solar PPAs were almost 5% cheaper in the second quarter of this year compared to the first quarter.
LevelTen attributed this decline in part to an especially steep drop in prices in CAISO, the California electricity market; excluding CAISO, solar PPA prices dropped slightly less than 2%. And while those hyperscalers are still buying, LevelTen found, other commercial and industrial customers are pulling back — what the analysts described as a “continued softening in the market’s buy-side.”
“We saw a lot less corporate energy buyers in the space in 2025 — 40% less — and that is just due to the increase of hyperscalers and data centers getting projects and snapping them up quickly,” Sarah Wolf, LevelTen’s director of North American transactions, told me.
To explain California specifically, Wolf said that the market there tends to be more volatile than in the rest of the country due to the expense and regulatory hurdles to development. With fewer new projects coming online, especially as compared to a larger, more light-touch market like Texas, individual project pricing can swing average prices more.
The tax credit cliff is “creating this very competitive atmosphere, where buyers are feeling like — in order to safe harbor their equipment, to keep on the development timelines that they have — they need to get a PPA in place,” Wolf said. “They’re looking competitively for a buyer. That’s driving some pricing down.” The same holds for renewables developers, who have wanted to get a PPA in place as quickly as possible, giving leverage to buyers who can demand lower prices.
The other factor driving down prices LevelTen identified was potential revisions to standards issued by the Greenhouse Gas Protocol, which are currently the subject of a long and fraught overhaul process.
“We have many buyers who are fully leaning in and want to contract now,” Wolf said. “And we have buyers who are in a kind of a ’wait and see’ — they want to better understand what that’s going to be, so there’s not a risk that they might have to unwind something.”
As for wind, PPA prices have actually risen, according to LevelTen’s data — up 5.5% on the quarter and 17.5% on the year. “We’re also seeing wind just being less competitive than solar,” Wolf added.
The report attributed this to tariffs, gas prices pushing up delivery costs, and the “ongoing federal permitting bottleneck that has largely ground new-build wind development to a standstill.” That means specifically the Department of Defense’s efforts to hold up wind projects on potentially spurious national security grounds.
This has meant a “fast-dwindling pipeline of viable wind assets,” LevelTen’s report says, “and price premiums for fully permitted projects available for offtake.”
In short, the best news for individual wind developers may be bad news for the industry — and the climate — as a whole.