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Twenty-five years ago, computers were on the verge of destroying America’s energy system.
Or, at least, that’s what lots of smart people seemed to think.
In a 1999 Forbes article, a pair of conservative lawyers, Peter Huber and Mark Mills, warned that personal computers and the internet were about to overwhelm the fragile U.S. grid.
Information technology already devoured 8% to 13% of total U.S. power demand, Huber and Mills claimed, and that share would only rise over time. “It’s now reasonable to project,” they wrote, “that half of the electric grid will be powering the digital-Internet economy within the next decade.” (Emphasis mine.)
Over the next 18 months, investment banks including JP Morgan and Credit Suisse repeated the Forbes estimate of internet-driven power demand, advising their customers to pile into utilities and other electricity-adjacent stocks. Although it was unrelated, California’s simultaneous blackout crisis deepened the sense of panic. For a moment, experts were convinced: Data centers and computers would drain the country’s energy resources.
They could not have been more wrong. In fact, Huber and Mills had drastically mismeasured the amount of electricity used by PCs and the internet. Computing ate up perhaps 3% of total U.S. electricity in 1999, not the roughly 10% they had claimed. And instead of staring down a period of explosive growth, the U.S. electric grid was in reality facing a long stagnation. Over the next two decades, America’s electricity demand did not grow rapidly — or even, really, at all. Instead, it flatlined for the first time since World War II. The 2000s and 2010s were the first decades without “load growth,” the utility industry’s jargon for rising power demand, since perhaps the discovery of electricity itself.
Now that lull is ending — and a new wave of tech-driven concerns has overtaken the electricity industry. According to its supporters and critics alike, generative artificial intelligence like ChatGPT is about to devour huge amounts of electricity, enough to threaten the grid itself. “We still don’t appreciate the energy needs of this technology,” Sam Altman, the CEO of OpenAI, has said, arguing that the world needs a clean energy breakthrough to meet AI’s voracious energy needs. (He is investing in nuclear fusion and fission companies to meet this demand.) The Washington Post captured the zeitgeist with a recent story: America, it said, “is running out of power.”
But … is it actually? There is no question that America’s electricity demand is rising once again and that load growth, long in abeyance, has finally returned to the grid: The boom in new factories and the ongoing adoption of electric vehicles will see to that. And you shouldn’t bet against the continued growth of data centers, which have increased in size and number since the 1990s. But there is surprisingly little evidence that AI, specifically, is driving surging electricity demand. And there are big risks — for utility customers and for the planet — by treating AI-driven electricity demand as an emergency.
There is, to be clear, no shortage of predictions that AI will cause electricity demand to rise. According to a recent Reuters report, nine of the country’s 10 largest utilities are now citing the “surge” in power demand from data centers when arguing to regulators that they should build more power. Morgan Stanley projects that power use from data centers “is expected to triple globally this year,” according to the same report. The International Energy Agency more modestly — but still shockingly — suggests that electricity use from data centers, AI, and cryptocurrency could double by 2026.
These concerns have also come from environmentalists. A recent report from the Climate Action Against Disinformation Commission, a left-wing alliance of groups including Friends of the Earth and Greenpeace, warned that AI will require “massive amounts of energy and water” and called for aggressive regulation.
That report focused on the risks of an AI-addled social media public sphere, which progressives fear will be filled with climate-change-denying propaganda by AI-powered bots. But in an interview, Michael Khoo, an author of the report and a researcher at Friends of the Earth, told me that studying AI made him much more frightened about its energy use.
AI is such an power-suck that it “is causing America to run out of energy,” Khoo said. “I think that’s going to be much more disruptive than the disinformation conversation in the mid-term.” He sketched a scenario where Altman and Mark Zuckerberg can outbid ordinary households for electrons as AI proliferates across the economy. “I can see people going without power,” he said, “and there being massive social unrest.”
These predictions aren’t happening in a vacuum. At the same time that investment bankers and environmentalists have fretted over a potential electricity shortage, utilities across the South have proposed a de facto solution: a massive buildout of new natural-gas power plants.
Citing the return of load growth, utilities across the South are trying to go around normal regulatory channels and build a slew of new natural-gas-burning power plants. Across at least six states, utilities have already won — or are trying to win — permission from local governments to fast-track more than 10,000 megawatts of new gas-fired power plants so that they can meet the surge in demand.
These requests have popped up across the region, pushed by vertically integrated monopoly power companies. Georgia Power won a tentative agreement to build 1,400 new megawatts of gas capacity, Canary reported. In the Carolinas, Duke Energy has asked to build 9,000 megawatts of new gas capacity, triple what it previously requested. The Tennessee Valley Authority has plans to add 6,600 megawatts of new capacity to its grid.
This buildout is big enough to endanger the country’s climate targets. Although these utilities are also building new renewable and battery farms, and shutting down coal plants, the planned surge in carbon emissions from natural gas plants would erase the reductions from those changes, according to a Southern Environmental Law Center analysis. Duke Energy has already said that it will not meet its 2030 climate goal in order to conduct the gas expansion.
In the popular press, AI’s voracious energy demand is sometimes said to be a major driver of this planned gas boom. But evidence for that proposition is slim, and the utilities have said only that data center expansion is one of several reasons for the boom. The Southeast’s population is growing, and the region is experiencing a manufacturing renaissance, due in part to the new car, battery, and solar panel factories subsidized by Biden’s climate law. Utilities in the South also face a particular challenge coping with the coldest winter mornings because so many homes and offices use inefficient and power-hungry space heaters.
Indeed, it’s hard to talk about the drivers of load growth with any specificity — and it’s hard to know whether load growth will actually happen in all corners of the South.
Utilities compete against each other to secure big-name customers — much like local governments compete with sweetheart tax deals — so when a utility asks regulators to build more capacity, it doesn’t reveal where potential power demand is coming from. (In other words, it doesn’t reveal who it believes will eventually buy that power.) A company might float plans to build the same data center or factory in multiple states to shop around for the best rates, which means the same underlying gigawatts of demand may be appearing in several different utilities’ resource plans at the same time. In other words, utilities are unlikely to actually see all of the demand they’re now projecting.
Even if we did know exactly how many gigawatts of new demand each utility would see, it’s almost impossible to say how much of it is coming from AI. Utilities don’t say how much of their future projected power demand will come from planned factories versus data centers. Nor do they say what each data center does and whether it trains AI (or mines Bitcoin, which remains a far bigger energy suck).
The risk of focusing on AI, specifically, as a driver of load growth is that because it’s a hot new technology — one with national security implications, no less — it can rhetorically justify expensive emergency action that is actually not necessary at all. Utilities may very well need to build more power capacity in the years to come. But does that need constitute an emergency? Does it justify seeking special permission from their statehouses or regulators to build more gas, instead of going through the regular planning process? Is it worth accelerating approvals for new gas plants? Probably not. The real danger, in other words, is not that we’ll run out of power. It’s that we’ll build too much of the wrong kind.
At the same time, we might have been led astray by overly dire predictions of AI’s energy use. Jonathan Koomey, a researcher who studies how the internet and data centers use energy (and the namesake of Koomey’s Law) told me that many estimates of Nvidia’s most important AI chips assume that their energy use is the same as their advertised “rated” power. In reality, Nvidia chips probably use half of that amount, he said, because chipmakers engineer their chips to withstand more electricity than is necessary for safety reasons.
And this is just the current generation of chips: Nvidia’s next generation of AI-training chips, called “Blackwell,” use 25 times less energy to do the same amount of computation as the previous generation of chips.
Koomey helped defuse the last panic over energy use by showing that the estimates Huber and Mills relied on were wildly incorrect. Estimates now suggest that the internet used less than 1% of total U.S. electricity by the late 1990s, not 13% as they claimed. Those percentages stayed roughly the same through 2008, he later found, even as data centers grew and computers proliferated across the economy. That’s the same year, remember, that Huber and Mills predicted that the internet would consume half of American energy.
These bad predictions were extremely convenient. Mills was a scientific advisor to the Greening Earth Society, a fossil-fuel-industry-funded group that alleged carbon dioxide pollution would actually improve the global environment. He aimed to show that climate and environmental policy would conflict with the continued growth of the internet.
“Many electricity policy proposals are on a collision course with demand forces,” Mills said in a Greening Earth press release at the time. “While many environmentalists want to substantially reduce coal use in making electricity, there is no chance of meeting future economically-driven and Internet-accelerated electric demand without retaining and expanding the coal component.” Hence the headline of the Forbes piece: “The PCs are coming — Dig more coal.”
What makes today’s AI-induced fear frenzy different from 1999 is that the alarmed projections are not just coming from businesses and banks like Morgan Stanley, but from environmentalists like Friends of the Earth. Yet neither their estimates of near-term, AI-driven power shortages — nor the analysis from Morgan Stanley that U.S. data-center use could soon triple within a year — make sense given what we know about data centers, Koomey said. It is not logistically possible to triple data centers’ electricity use in one year. “There just aren’t enough people to build data centers, and it takes longer than a year to build a new data center anyway,” he said. “There aren’t enough generators, there aren’t enough transformers — the backlog for some equipment is 24 months. It’s a supply chain constraint.”
Look around and you might notice that we have many more servers and computers today than we did in 1999 — not to mention smartphones and tablets, which didn’t even exist then — and yet computing doesn’t devour half of American energy. It doesn’t even get close. Today, computers use 1% to 4% of total U.S. power demand, depending on which estimate you trust. That’s about the same share of total U.S. electricity demand that they used in the late 1990s and mid-2000s.
It may well be that AI devours more energy in years to come, but utilities probably do not need to deal with it by building more gas. They could install more batteries, build new power lines, or even pay some customers to reduce their electricity usage during certain peak events, such as cold winter storms.
There are some places where AI-driven energy demand could be a problem — Koomey cited Ireland and Loudon County, Virginia, as two epicenters. But even there, building more natural gas is not the sole way to cope with load growth.
“The problem with this debate is everybody is kind of right,” Daniel Tait, who researches Southern utilities for the Energy and Policy Institute, a consumer watchdog, told me. “Yes, AI will increase load a little bit, but probably not as much as you think. Yes, load is growing, but maybe not as much as you say. Yes, we do need to build stuff, but maybe not the stuff that you want.”
There are real risks if AI’s energy demands get overstated and utilities go on a gas-driven bender. The first is for the planet: Utilities might overbuild gas plants now, run them even though they’re non-economic, and blow through their climate goals.
“Utilities — especially the vertically integrated monopoles in the South — have every incentive to overstate load growth, and they have a pattern of having done that consistently,” Gudrun Thompson, a senior attorney at the Southern Environmental Law Center, told me. In 2017, the Rocky Mountain Institute, an energy think tank, found in 2017 that utilities systematically overestimated their peak demand when compiling forecasts. This makes sense: Utilities would rather build too much capacity than wind up with too little, especially when they can pass along the associated costs to rate-payers.
But the second risk is that utilities could burn through the public’s willingness to pay for grid upgrades. Over the next few years, utilities should make dozens of updates to their systems. They have to build new renewables, new batteries, and new clean 24/7 power, such as nuclear or geothermal. They will have to link their grids to their neighbors’ by building new transmission lines. All of that will be expensive, and it could require the kind of investment that raises electricity rates. But the public and politicians can accept only so many rate hikes before they rebel, and there’s a risk that utilities spend through that fuzzy budget on unnecessary and wasteful projects now, not on the projects that they’ll need in the future.
There is no question that AI will use more electricity in the years to come. But so will EVs, new factories, and other sources of demand. America is on track to use more electricity. If that becomes a crisis, it will be one of our own making.
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With a permitting deal seemingly on the horizon, Republican Gabe Evans and Democrat Scott Peters may be about to see their partnership pay off.
The fate of permitting reform legislation that could smooth the way to all kinds of new and improved energy infrastructure — including transmission lines and renewables — is currently hostage to opaque discussions between Senate committee chairs. Rhode Island Senator Sheldon Whitehouse, the Democratic ranking member of the Senate Environment and Public Works Committee, told a Rhode Island business group earlier this week that “we’re actually in a pretty good place on permitting reform,” and that there was “maybe another week of negotiations.” Whitehouse’s Republican counterpart on the EPW committee, West Virginia Senator Shelly Moore-Capito, told Semafor on Friday that any bill has “got to pop out of here in the next 48 hours.”
If that’s going to happen, it will be because Republicans and Democrats have decided it’s worth it to get along. Any deal will eventually have to be voted on by the House, which has already produced several bills on a bipartisan basis, and even passed one — the SPEED Act — late last year.
Two of the busier House members on this issue are Scott Peters, a Democratic former environmental lawyer from San Diego, and Gabe Evans, a first term Colorado Republican representing a suburban and rural district north of Denver that includes wind farms and crude oil production. “The district that I represent truly is an all of the above energy district,” Evans told me.
Their latest effort is a bill aimed at smoothing out permitting for transmission development, especially interregional transmission. Last week, the two congressmen unveiled the CLEAR Act, seeking to apply a stricter set of standards for lawsuits against transmission projects that aligned with how natural gas and hydropower projects are treated under the Federal Power Act (it’s much harder to sue to stop these projects). Earlier this year, the two also sponsored the CERTAIN Act, a more comprehensive streamlining of federal permitting for energy infrastructure projects.
“We’re proud to have a lot of our work as the foundation for this, and I think if they send us over something that includes this, it’s got a really good chance of passing in the House,” Peters told me. Evans added that bringing forward bipartisan bills “gives a little bit more impetus to the Senate to know that the House is looking for these things.”
While the Senate’s deal will be up to the senators, Peters told me he envisions a broad permitting package that could include reforms to the National Environmental Policy Act to shorten permitting timelines, preventing the president from nixing individual projects, and reform Section 401 of the Clean Water Act which effectively devolves power to tribes and states to block a variety of interstate projects. “I think it’s coming together pretty well,” Peters said. “Obviously, we’re waiting for white smoke from the Senate.”
A permitting reform package may be one of the last major bills several bipartisan-minded House members get to vote on.
Election day is about six weeks off, and while Peters will likely have an easy time getting reelected for this eighth term, Evans is in a tough race. His purple-hued district is a target for the House Democratic campaign arm, which is hoping to flip it to former Colorado House of Representatives member Manny Rutinel, who worked as a lawyer at the environmental group Earthjustice. The Cook Political Report rates the race as toss-up, and Nate Silver gives Rutinel a roughly 75% to win.
But Rutinel won’t be getting any campaign help from Peters.
When I asked Peters about the timing of releasing a bill that could boost an endangered Republican’s bipartisan bona fides less than two months before an election, Peters told me that he and Evans had been working on it “for a while,” and that “my colleagues know that I’ve worked with Republicans to get problems solved.”
He said he wasn’t “participating in Gabe’s election” and wasn’t giving any money to his campaign, but also that he wouldn’t campaign Evans’ challenger, despite the opportunity to bolster his own caucus.
Peters is not shy about praising Evans. “What I appreciate about Gabe is that it takes a little bit of initiative to separate yourself from the majority — particularly when you’re in the trifecta — and do your own thing. He’s been a good partner in helping find ways to reduce process and make things go faster,” he told me.
Evans told me that he and Peters met early in this Congress, as Evans was getting settled into his new office in the Longworth building. “We’ve built the relationship over the last two years with a lot of the different areas that we’ve collaborated on.”
“I always try to meet the members of my committee and find out who will work with me. And I was fortunate to find Gabe,” Peters said.
“I do want to win the majority in the next Congress,” Peters went on, but “the norm should be that we figure out ways to work together to solve problems, and, you know, we’ll let the voters of Colorado 8 decide who to send me.”
Evans, for his part, told me that he had to work with Democrats to get anything passed as a member of a minuscule Republican minority in the Colorado statehouse, and that the 40-plus members of the bipartisan Problem Solvers Caucus have agreed not to campaign against each other. “There’s 385 other members that you can go pick fights with,” he said.
A new analysis by a one-time atomic energy opponent makes a bull case for big reactors.
If you know anything about the cost of nuclear energy in America, you probably are aware that the most recent reactors built — the only two new ones designed, planned, and constructed since the 1990s — were budget busters. Units 3 and 4 of Southern Company’s Alvin W. Vogtle Generating Station in eastern Georgia were the first of a new generation of reactor technology ever to be deployed in the U.S. Construction delays, changes to the design, and corporate bankruptcies ultimately sent the price of the pair of Westinghouse AP1000s — the Ford Mustang of American nuclear technology, with safety features that essentially make them not just powerful but also meltdown-proof — to nearly $40 billion, or about $16,350 per kilowatt.
But the U.S. once built reactors for half that — and it did so in the chaotic aftermath of the nation’s worst civilian nuclear accident, when mounting regulations made atomic power construction more onerous than ever before.
That’s the landmark finding of a new report by a veteran nuclear researcher, who quantified and broke down the cost of constructing nearly every civilian atomic power station the U.S. built in the 20th century. Adjusting the dollar figures using the Handy-Whitman Index, a specialized formula for calculating inflation in the utility sector’s construction costs, the analysis — shared exclusively with Heatmap — concluded that 47 reactors built in the U.S. between the 1979 partial meltdown at Pennsylvania’s Three Mile Island nuclear plant and the turn of the millennium came in at an average of $8,200 per kilowatt.
“Costs are only going to come down from that,” Charles Komanoff, the economist and energy policy analyst whose consultancy conducted the study on behalf of the Clean Air Task Force, told me.
The paper carves out a pathway down the cost curve that runs counter to the industry’s broader consensus at the moment on the best way to make nuclear less of a luxury choice compared to other generating sources. Billions of dollars have flooded into companies promising to commercialize small modular reactors that generate 300 megawatts or less. The concept is a bet on what Komanoff calls the economies of duplication, meaning that if customers need more individual reactors, developers can ride that repetition to lower prices. But the paper suggests that the way developers have historically reduced nuclear costs — through economies of scale — achieves the same per-kilowatt savings with one gigawatt-sized, water-cooled reactor as 20 smaller reactors would net.
Some small and microreactor developers say that using alternative coolants — molten salt, liquid sodium, high-temperature gases such as helium — could further raise the efficiency of their technologies, allowing them to make up for whatever they lose on economies of scale. But large, traditional reactors such as the AP1000 are “a proven technology” that, unlike next-generation reactors with far less operating experience, won’t have to overcome “teething problems” to reach maximum efficiency levels, Komanoff told me.
There are other options to the AP1000, such as the ABWR that the parent companies of GE Vernova Hitachi Nuclear Energy built in Japan and Taiwan in the 1990s. One was planned for Texas, but abandoned a decade ago amid declining interest in nuclear power post-Fukushima. The technology is approved by the NRC, but GE-Hitachi has since turned its attention to its 300-megawatt BWRX-300. Given that no ABWR was built in the U.S., James Boucher, the former Deloitte nuclear consultant who co-authored the paper, said the AP1000 is the reactor best positioned to replicate the country’s successful buildout of the 1980s.
“We have two AP1000s. They're fully built. They’re operating. They’re doing, as far as I can tell, quite well. And they are like these reactors in our sample,” Boucher told me. “If we wanted to build 20, 30, 50 more AP1000s, I think we’d have a good shot.”
The Nuclear Company, a startup developer that hired much of the team behind the Vogtle buildout in a bid to become the go-to project manager for future AP1000s, called Komanoff’s report “promising because it demonstrates how cost can come down when we don’t focus on building first-of-a-kind projects.”
“There was a 30% overnight capital cost reduction just moving from Unit 3 to Unit 4 on the Vogtle project — there is no reason we can’t continue down the learning curve on the next AP1000s built in this country,” Joe Klecha, The Nuclear Company’s chief nuclear officer and president, told me after reviewing the report I sent him. “Especially with our mix of experience building these reactors and advancements in technology we’re leveraging to scale, achieving below $10,000 per kilowatt is just the beginning for us. We believe we can execute safer, faster, and at lower cost than we’ve achieved in the past.”
Back in the 1980s, the military-like regimentation common at nuclear plants and construction sites wasn’t yet as ingrained in the industry. The Nuclear Regulatory Commission had replaced the Atomic Energy Commission, which was seen as too deferential to the companies it oversaw, and spent the decade tightening rules on constructing and operating nuclear plants. New accident scenarios were being discovered, requiring new plants and existing ones up for relicensing to change operating protocols, upgrade equipment, and conduct additional research.
Komanoff was among those pushing for the changes. In reports he authored on behalf of Greenpeace, an arch opponent of nuclear power, he dissected the fiscal woes atomic energy developers faced, making the economic case for shutting down electrical stations that his fellow activists battled on ecological or moral grounds. Eventually, Komanoff moved on to advocating for a carbon tax as the fairest and clearest way to guide the economy away from fossil fuels and toward decarbonization. While serving as director of the Carbon Tax Center, which he co-founded, he noticed a trend among nuclear plants: They were getting better at operating.
The regulatory changes that followed Three Mile Island succeeded in raising the operating efficiencies of nuclear plants. In the 1970s, reactors had a capacity factor — a measure of how frequently a generating source actually produces electricity — of about 50%. Yet by 1991, that number had risen to 70%, putting atomic energy on par with the most efficient fossil fuel and hydroelectric plants. In 2002, that national average hit 90%. In 2019, it rose to 94%. When the final reactor at Indian Point, the nuclear station that served Komanoff’s native New York City, closed in 2021 due to political opposition to its relicensing, it had just set a world record for an uninterrupted 753-day run of electricity production.
Gradually, Komanoff came to see nuclear power as a vital tool for decarbonization. But, ensconced in the climate movement through his carbon tax advocacy, he found it easier to stay mum on his conversion, lest he ruffle the feathers of fellow activists who remained stalwart anti-nuclearists. After all, he thought, if a carbon tax passes, nuclear plants will benefit, so why bother speaking up specifically for atomic energy? Indian Point’s early shutdown, however, caused Komanoff pangs of regret.
“It just forced me to confront the consequences of not advocating for nuclear power,” he said. “I felt the way I imagined I would feel if a climbing partner — I used to be a sort of mountaineer — had died because of some negligence on my part. I really took personal responsibility because I imagined that — and maybe I’m just in a complete fantasy about my shamanistic power — as someone who had argued 40 years ago for shutting Indian Point, that if I had gone public say ‘Don’t do it,’ that I might have been able to begin turning the tide.”
While $8,200 per kilowatt is half of what Vogtle cost, it’s still nearly four times the cost of building a new natural gas-burning power plant with combined-cycle turbines, which itself rose to $2,157 per kilowatt last year from less than $1,500 in 2023. But the “regulatory churn” that kept the price of nuclear high, Komanoff said, is unlikely to return for new nuclear plants using proven designs such as the AP1000.
“Part of my optimism about nuclear being less subject to regulatory churn going forward is because it’s not a whipping boy,” he said. “It’s really hard to overstate the aura of incompetence that surrounded the nuclear power sector in the United States in the ‘70s into the ‘80s. But when you’ve got plants that are averaging 90% or higher capacity factors, things change.”
Current conditions: Oman’s Ayn Athum Waterfalls burst to life this week as rain battered the Gulf nation’s southwestern Dhofar governorate • Severe monsoon flooding has deluged parts of the American Southwest, including Navajo Nation, where at least three people have died • Tropical Storm Dujuan is barreling toward Japan, where it threatens flooding and landslides in Tokyo and Chiba.
When the Houthis stormed Yemen’s Red Sea coast last week, the Iran-backed rebels gained new ground from which to attack boats passing through the vital shipping lane, extending Tehran’s reach from the Persian Gulf’s hotly contested Strait of Hormuz to the waterway on the opposite side of the Arabian peninsula. In response, oil prices surged. But the price per barrel of crude is slipping again as the United States has rebuked Saudi Arabia’s requests for help routing the militants, instead seeking a deal that keeps the Bab al-Mandab Strait open to American and Israeli ships. Over the weekend, U.S. diplomats met with Houthi officials in neutral Oman, Reuters reported. Following the talks, the Times of Israel reported that Houthis promised not to attack any Israeli or commercial ships of any kind, only those linked to Saudi Arabia, which has funded the Yemeni government’s campaign against the rebels.
Satellite images published by the investigative site Hunterbrook showed workers building a bypass on Saudi Arabia’s East-West Pipeline, its main conduit for circumventing oil exports around the Strait of Hormuz, to get around the pumping station damaged by a Houthi attack. But the promise of free movement through the Red Sea sent the price of oil down by between 1% and 4% on Thursday.
Just yesterday, I told you that the Trump administration had moved to drastically change how the government interprets the Endangered Species Act to only consider deaths of protected animals illegal if the creatures were intentionally targeted. Such a shift would exclude the vast majority of deaths linked to energy companies, such as when birds land in toxic oil ponds or collide with wind turbines. Whether federal enforcement ultimately reflects that interpretation depends on the outcome of a forthcoming lawsuit. Already, Earthjustice has vowed to file litigation challenging the Trump administration’s legal memo directing federal agencies on its new view of the nation’s bedrock conservation law. “The government’s new legal position is a prescription for extinction. It says that as long as you claim you didn’t mean to kill an endangered species, the law can’t and won’t stop you,” Earthjustice attorney Ben Levitan said in a press release. “That’s ridiculous — and a totally illegal, active misreading of the Endangered Species Act. We’ll see the Trump administration in court about this.”
The toll wind turbines take on migratory birds is a favorite talking point of the energy source’s opponents. But relief from the responsibility to avoid killing birds would be cold comfort to the wind industry as developers wait for the Trump administration to follow a court ruling requiring it to continue processing applications for turbines. As my colleague Jael Holzman wrote yesterday, the administration has continued delaying. At least one other legal fight within the offshore wind industry has, meanwhile, come to a conclusion. Vineyard Wind and its turbine supplier GE Vernova, announced an “amicable settlement” this week that resolves “all outstanding litigation,” the New Bedford Light reported. The developer sued the supplier in April, accusing GE Vernova of an $800 million breach of contract following a blade failure in 2024.

The U.S. needs more long-term energy storage, and few technologies are better tested by time than using excess electricity to pump water into a reservoir, where it can be released downhill and run through turbines to generate huge bursts of power when it’s needed. Back when the U.S. had lots of nuclear power, pumped hydro plants harvested the unused electrons during the night. With solar now producing more electricity during the day in some parts of the country than the grid demands, pumped hydro is seeing a potential renewal. But the U.S. hasn’t built any pumped hydro facilities since the 1990s. A project that looked likely to break that dry spell is now on pause as the Trump administration heeds opponents’ concerns and orders a new study on its environmental impact.
The Federal Energy Regulatory Commission has delayed its decision on whether to license the $3 billion project to add a pumped hydro facility to the Seminoe Reservoir, a lightning bolt-shaped waterway in southern Wyoming. The Bureau of Land Management said it will conduct a supplemental environmental impact statement and open the door to more public comments and input from local officials. “This feels like a small victory,” CiCi Oliver, a fly-fishing shop owner who opposed the project over its potential disruptions to the ecology of the reservoir, told WyoFile this week.
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At the start of the Iran War, some interpreters of President Donald Trump’s supposed four-dimensional geopolitical chess moves suggested that shutting down the Strait of Hormuz was an intentional move to show China’s vulnerable underbelly: Beijing’s dependence on oil imports. And yet, China’s vast oil stockpiles and refining capacity, plus its array of alternative energy sources, allowed the country to slash oil purchases by 23% in the first six months of the war compared to the same period last year, according to a New York Times analysis of customs data. “This is a power that nobody thought China had,” said Erica Downs, a senior research scholar at Columbia University’s Center on Global Energy Policy. “Going forward, it’s going to be really interesting to see: What does China do with this newfound power?” The heaviest answer to that question now weighing on Western officials involves China considering the ramifications of a potential invasion of Taiwan to be less worrying than before.
That’s especially true because Taiwan, by contrast, is more vulnerable to losing access to oil and gas imports than ever before. After completing its decades-long mission last year to shut down the nuclear fleet that powered the island’s 20th century transformation into the world’s premiere chipmaker, Taiwan’s ruling Democratic Progressive Party — which advocates for the republic’s continued de facto independence — left the nation dependent on imported liquified natural gas and crude for the vast majority of its energy. Now, according to Nikkei, the government is hastening its efforts to potentially bring at least one nuclear station back online.
Yet another state is considering a moratorium on data centers — one close to the epicenter of the artificial intelligence boom. Maryland, which shares a grid and a border with northern Virginia’s data center megacluster, could see a ban come into effect as early as next year if state legislators pass a bill in the next session. Governor Wes Moore, a Democrat, said he “will absolutely sign” a statewide ban “if it’s coming from local legislators.” Speaking to Punchbowl News, he suggested that any moratorium would come with loopholes for projects that meet high standards. “I believe local jurisdictions should have a say. There are certain local jurisdictions who want it,” he said. “I just need them to understand I have very strict guidelines for what is actually going to get state approval.”
A startup founded by members of the team of U.S. government scientists that first achieved net-energy gain from a fusion reaction has hit a new milestone that should raise the eyebrows of even skeptics of the so-called holy grail of clean power. Less than two months after publicizing its roadmap to commercial fusion, Inertia Enterprises ran a simulation demonstrating that its first commercial plant will be capable of producing 25 times more energy than the laser needed to trigger the reaction, the company told my colleague Katie Brigham in an exclusive.