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A new report finds that utilities are spending more than fossil fuel companies to keep up with data center electricity demand.

The transition to clean energy is largely a shift from molecules to electrons — gasoline in the tank is out, electricity stored in a battery cell is in. It follows, then, that as the transition progresses, the balance of power in the energy industry will shift from oil and gas production to electricity generation.
We may look back on 2024 as the year the scales tipped. Among the top 260 publicly listed energy companies, utilities’ capital expenditures around the globe were slightly higher this year than oil and gas spending, according to a recent analysis from Boston Consulting Group, and the authors expect the trend to grow through the end of the decade. But it wasn’t a sudden spike in EV adoption or home electrification or some other climate solution that put utility spending in the lead. It was the rise in data centers.
“When we went through all the data, all the 260 companies, it was the data centers that were having the biggest impact, most definitely,” Rebecca Fitz, a partner and director at Boston Consulting Group and lead author of the report, told me. “I’ve been in this sector for a long time, and to have such a rapid change in demand outlook, coupled with quick changes to capex, is a big story.”

The finding was the surprise headline of an annual report that Fitz’ group has completed for the past three years called “Follow the Capital,” an analysis of what’s driving changes in capital supply and demand in the energy sector using data culled from publicly available sources. Data for prior years comes from regulatory and investor fillings. Future years are modeled using public announcements, plans filed with regulators, and a few conservative assumptions, Fitz told me.
Surging demand for electricity from data centers was perhaps the biggest energy story of 2024, and the trend seemed to accelerate as the year went on. In just the past few months, almost every major tech company has signed an agreement to buy power from a nuclear plant, either reviving formerly shuttered reactors or helping to build new ones. GE Vernova, which manufactures energy generation equipment, reported last week that it had secured contracts for 9 gigawatts’ worth of new gas turbines since its previous quarterly report in October, “tied to both load growth in the U.S and … serving the hyperscaler demand associated with AI.” As the “Follow the Capital” authors were wrapping up this year’s edition in November, they found that U.S. utilities had added $50 billion in planned capex during the third quarter alone, mostly due to data center demand growth.
Data center demand isn’t the only factor playing into the above chart. Though utility spending is definitely up, oil and gas companies are also reining in capex growth in favor of shareholder returns, Fitz told me. But oil and gas also sees the winds changing and is making moves to get into the power business. Two weeks ago, during a panel hosted by the Atlantic Council, Chevron CEO Mike Wirth said the company was “looking at possible solutions to build large-scale power generation” that would serve data centers directly, rather than feed into the grid, so that regular electricity ratepayers would not shoulder the costs. “There’s sensitivity to increasing electricity rates for the average person just for the benefit of a few of these tech companies,” he said.
Beating Chevron to the punch, last week ExxonMobil announced that it was “moving fast” on this exact type of project, designing a natural gas plant that would “use carbon capture to remove more than 90% of the associated CO2 emissions” and directly power data centers without connecting to the grid.
“I have no doubt that most of the oil and gas sector is looking at opportunities in this area,” said Fitz.
Though the report covers global companies and spending, the data center demand signal is hyperlocal. Among the 30 largest North American utilities, 65% of demand growth is concentrated within just six of them, the report says. Though the report does not name the companies, Fitz told me that Texas, North Carolina, Virginia, and Ohio were seeing the most aggressive plans.
Artificial intelligence boosters often argue that this demand pull is a boon for the energy transition. By ushering in the age of electrons, the logic goes, tech companies with deep pockets can drive the first deployments of new clean energy technologies like advanced nuclear and geothermal power plants. These early deployments would then help lower costs and give rise to cheaper, cleaner electricity for the rest of us average energy consumers and our future electric cars, stoves, and water heaters.
But that’s not the only potential outcome. “Follow the Capital” found that when the six utilities most affected by demand growth recently revised their integrated resource plans, they increased the amount of natural gas generation they planned to add from 26% of total new generation to 31%. As GE Vernova reported, orders for gas generators are skyrocketing. “I can’t think of a time that the gas business has had more fun than they’re having right now,” the company’s CEO Scott Strazik said during a recent investor update.
As my colleague Matthew Zeitlin reported, the industry is turning to natural gas plants because they can run 24/7 and they are not as dependent on transmission lines as renewables are, so they can be built faster and more cheaply. Renewables paired with energy storage are only competitive with gas if there’s infrastructure to support it, sources told him.
The age of electrons may be nigh, but whether it helps to stop climate change is a separate question altogether.
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CleanCounts is announcing new hourly matching credits, among other “enhancements.”
Renewable energy certificates, or RECS — the credits that companies buy in order to make claims that their operations “run on renewable energy” — are getting more sophisticated.
CleanCounts, a nonprofit that runs one of the biggest registries for RECs in North America, announced on Wednesday that it now has the capability to issue certificates tied to the exact hour the renewable energy was produced, opening the door to more reality-based clean energy claims. For companies that want to match their renewable energy purchases to the hours when their factories and stores are actually consuming power, “that was a critical piece of infrastructure that was missing,” Benjamin Gerber, the CEO of CleanCounts, told me.
The company also announced “additional enhancements” to its registry that will enable a wider range of new REC products, from certificates tied to “pollinator-friendly solar,” to projects owned by indigenous Tribes, to “low-impact hydropower” projects that mitigate harm to fish. Gerber said he thinks having a system to track and verify these benefits will help companies tell a different story about the infrastructure they are building, and in so doing help turn the tide of public support.
Traditionally, a REC represents a megawatt-hour of electricity that has been generated by a renewable energy source such as wind, solar, geothermal, or moving water. The generator records every megawatt-hour it produces with a registry like CleanCounts, which issues certificates; companies then buy these certificates, either in advance under power purchase agreements or after the fact in the spot market. The registry then “retires” the certificates once the REC buyer chooses to “use” it to make a clean energy claim. Registries ensure that nobody is counting the same megawatt-hour more than once.
Today, a lot of corporations simply match their annual energy consumption with certificates. If they anticipate consuming 100 megawatts, they might buy 100 megawatts of solar RECs — even if their factories operate at night — and then claim they “run on 100% renewable energy.” Critics argue these types of claims mislead the public and tip the scales toward the cheapest renewable sources — i.e. solar and wind — rather than those that can generate energy in the off-hours, such as batteries, geothermal, and nuclear. Many clean energy advocates want to see companies move toward making more specific claims about the number of hours they run on renewable energy.
Google got behind this idea several years ago, pledging to match its consumption with clean energy on a 24/7 basis. CleanCounts piloted a method with Google to issue the company hourly RECs, but to do so it had to basically reverse engineer the certificates, embedding data regarding the time the energy was produced after the fact. That made it complicated to true up a company’s energy consumption data with its REC purchases and say, “we covered X number of hours with clean energy.”
Now, CleanCounts will be able to specifically issue a credit for “1 megawatt-hour produced Wednesday, September 16, at 9:00 a.m.,” for example, making it far easier for companies to adopt an hourly matching strategy.
“Instead of breaking it apart, they're basically issuing it as an already granularized tradable certificate,” Alex Piper, the head of policy at EnergyTag, a nonprofit that advocates for hourly matching, told me. “Which is what is new and exciting, and opens the door for more liquid transactions and a broader and more impactful marketplace.”
Hourly matching is not exactly popular in the corporate sustainability world. A lot of companies and sustainability consultants argue that accounting for their energy on an hourly basis will be too complicated, too expensive, and ultimately crater the corporate clean energy market. Corporations are in a showdown with EnergyTag and other proponents of hourly matching to convince the Greenhouse Gas Protocol, a nonprofit that sets standards for corporate carbon accounting, of their case.
The new CleanCounts product solves at least one of those challenges, making hourly clean energy procurement much simpler.
That might also reap benefits in the form of consumer trust. New polling from EnergyTag and YouGov found that Americans tend to agree that companies shouldn’t claim to use solar at night. When asked, “When should a company count as a clean energy user?” 45% of respondents selected “only when their clean energy supply matches the hours they actually use electricity,” while 22% chose “when their clean energy averages out over the year (i.e. daytime solar covering nighttime usage.)” Just under a third of the 1,292 respondents selected “don’t know.”
Even if companies start buying hourly RECs, however, another challenge will be figuring out how to tell their customers, most of whom have no idea what a REC is. For years, companies have simply advertised that they are 100% renewable. What will it take to convince customers that actually, “We use clean energy about half the time we operate” is a more laudable claim?
Current conditions: Severe storms are drenching a broad swath of the Midwest with heavy rain from Des Moines to Fort Wayne • Intense downpours put all 76 of Thailand’s provinces, or changwat, on a five-day flooding alert, ending on Sunday • Tropical Storm Dujuan has strengthened in the Pacific en route to Japan.

The Trump administration has narrowed the federal government’s interpretation of the Endangered Species Act to only consider intentional targeting of protected animals illegal. The move, part of what The New York Times called “a seismic shift” in the application of one of the nation’s bedrock conservation laws, would essentially free energy companies from the need to, for example, invest in infrastructure to keep migratory birds from making deadly landings in ponds of oil and gas slurry. Killing endangered animals “almost always happens incidentally, in the course of economic activity,” the newspaper noted. It’s unclear whether the legal change would also apply to one of the industries President Donald Trump most frequently antagonizes for its accidental killing of birds: the wind industry.
When President Donald Trump announced an energy truce between Ukraine and Russia, he promised that a halt to attacks on pipelines and refineries would lower prices on diesel worldwide, insisting the Iran War wasn’t to blame. But half of Russia’s six top diesel-producing refineries were forced to significantly cut back or completely stop production this month due to damage from Ukrainian drone attacks, according to a Reuters analysis published Wednesday. Russian President Vladimir Putin, meanwhile, is making a $135 billion bet on Arctic oil that OilPrice.com suggested “could save his Ukraine war.”
U.S. energy companies, meanwhile, are storming into a country in America’s backyard that — unlike the Kremlin’s attempt at a blitzkrieg capture of Kyiv’s leaders in 2022 — successfully decapitated a rebellious regime and reasserted Washington’s regional dominance. I’m talking, of course, about Venezuela. Harold Hamm, the oil tycoon behind the U.S. shale boom, told the Heartlander News yesterday that his company had signed a tentative agreement to explore one of the South American nation’s oil fields. New York-based Heeney Capital is eyeing a gold mine in Venezuela, per Reuters. Bloomberg reported that the company is also looking to ship aluminum from Venezuela to the U.S. Exxon Mobil, meanwhile, is “nearing a preliminary deal” to invest in Venezuela oil, according to The Wall Street Journal.
The Federal Reserve raised the benchmark federal interest rate by a quarter point Wednesday. The U.S. central bank’s first rate change since Chairman Kevin Warsh took over in May, and its first rate hike since 2023, will bring the federal funds rate to between 3.75% and 4%. The increase could make raising capital “more difficult” for “capital-intensive renewable and clean energy industries,” my colleague Matthew Zeitlin wrote yesterday.
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Lawmakers in the House of Representatives overwhelmingly passed the first major bill to curb the costs of the AI boom with legislation Politico described as “intended to shield Americans from potential energy costs associated with data centers.” The Ratepayer Protection Act passed in a 417 to 3 vote. The bipartisan win hands the GOP a victory ahead of the November election on one of the issues firing up voters the most. The bill would require states to consider a federal standard guaranteeing that large power consumers pay for 100% of the costs of new generation and transmission upgrades, but falls short of a direct mandate.
Meanwhile, the House split along partisan lines for another bill on California’s right to regulate pollution more strictly than the federal government. The chamber voted 216 to 211 to bar California from setting strict new limits on air pollution from ships docked at the state’s ports, marking what The New York Times called “the latest salvo by Republicans against the state’s pioneering environmental policies.” The move comes after Congress last year banned Sacramento from imposing a ban on gasoline-powered vehicles by 2035.
One of the most significant nuclear stock market debuts of the past few years has hit a major hiccup. On Wednesday night, Holtec Nuclear Corporation suspended plans for an initial public offering, citing “market conditions.” Bloomberg and Reuters first reported the postponement, which I confirmed with Holtec last night. “Holtec will continue to evaluate the timing of the offering in the future,” the company told me. With plans to restart a nuclear reactor for the first time in U.S. history in the coming months, Holtec is the only company likely to bring (somewhat) new atomic electricity onto the grid before 2030. The company owns several other decommissioning nuclear plants, where it plans to build its own in-house small modular reactors.
Another major player in the burgeoning nuclear market, meanwhile, hit a major regulatory milestone. Blue Energy, a developer that bills itself as “agnostic” to reactor technologies, is instead focused on building facilities that will initially run on gas and eventually transition to reactors, with GE Vernova Hitachi Nuclear Energy’s BWRX-300 — the closest rival to Holtec’s SMR-300 — centering in those plans at the moment. On Wednesday, Blue Energy submitted its application for a construction permit to the Nuclear Regulatory Commission for its inaugural gas-to-nuclear project in Port of Victoria, Texas. The submission makes Blue Energy one of just five companies so far to ask the NRC for permission to begin building. “This is serious work done by serious people for a serious project,” Blue Energy CEO Jake Jurewicz said in a statement. “This is another huge step towards building the world’s first gas-to-nuclear power plant and proving the Blue Energy approach to build nuclear in the safest, quickest, and most scalable way possible.”
The wine-dark sea is getting more briny. As its temperatures rise faster than the global ocean surface average, the Mediterranean Sea is growing saltier. The upper 100 meters of the sea between Europe and Africa have been about 2 degrees Celsius warmer than their 1950 to 1999 average, according to a study published in Geophysical Research Letters. “For us, what was alarming was the rate at which this is changing and the depths that such significant changes reach,” Elena Terzić, a physical oceanographer at the Ruđer Bošković Institute and lead author of the study, told Bloomberg. “The warming and salinification are statistically significant down to three or four thousand meters, and the speed-up itself reaches down to about 2,500 meters.”
The company plans to invest in domestic manufacturing for its high-heat magnets.
Our electricity system runs on magnets. Every transformer stepping voltage up or down, every inductor smoothing out electrical current, and every motor turning electricity into motion relies on the same basic physics: magnetic fields that control the flow of electrons, converting, filtering, and transporting power at every stage. But as AI and electrification push the grid to its limits, better magnetic materials can help power electronics — and our grid itself — keep up.
That’s the bet behind CorePower Magnetics, a Pittsburgh-based startup which raised a $10.5 million funding round co-led by Engine Ventures and Material Impact, announced on Thursday. The startup is developing more efficient, power-dense components such as inductors and transformers using proprietary nanocrystalline magnetic materials, whose ultra-fine grains reduce energy loss. While these materials have historically been brittle and limited to operating at temperatures below 150 degrees Celsius, CorePower says it engineered alloys that can perform above 200 degrees while maintaining durability.
That higher temperature ceiling is critical. As surging electricity demand meets our increasingly complex grid, power electronics like inductors and transformers are being pushed to handle more power, greater voltages, and higher frequencies than ever before. Magnetic material that can run hotter allows engineers to push more power through smaller components. In the context of a data center, for example, that could equate to about a 10% overall reduction in power demand, CorePower’s CEO Sam Kernion told me
“Data centers are the tip of the spear for this really big push into power electronics,” Kernion explained. “If you look more broadly, electricity demand is growing, but the grid itself is becoming a lot more complex, and data centers are just a great example of that.”
Traditionally, electricity flowed unidirectionally from large, centralized power plants to homes, businesses, and other end users. But now the system must support a wider array of both generation and demand sources. Distributed energy resources like rooftop solar panels can generate power directly where it’s consumed, while batteries (and soon electric vehicles) can both draw power and send it back to the grid. Today’s standard electrical equipment isn’t built to handle the bidirectional power flow and real-time current and voltage conversions that this new ecosystem demands.
Solid-state transformer startups such as Heron Power and DG Matrix are tackling this same challenge, using advanced semiconductor technology to convert voltage electronically while also handling functions like bidirectional power flow and alternating-to-direct current conversion. But even these newer systems still generally rely on conventional magnetic materials, which CorePower says have become a key bottleneck.
“We’re taking a car engine, and now we’re going to a jet engine in terms of how different this is,” Kernion told me regarding the demands of this new, higher performance operating environment.
CorePower is designing its advanced, medium-frequency transformers to operate across a broad range of frequencies, from 10 kilohertz to 100 kilohertz. Eventually it plans to sell these transformers to power electronics manufacturers, which will build complete, solid-state systems around the startup’s magnetic core, adding components such as semiconductors and capacitors along with their own software and control systems.
While CorePower hasn’t disclosed any customers to date, it did launch its first product last year, a standardized, low-voltage inductor that’s smaller, lighter, and more efficient than the industry standard. The device smooths out current in power conversion systems, including data center distribution equipment, EV chargers, and inverters that convert DC electricity to AC. Next, CorePower is preparing to launch its standardized transformer product.
The company’s magnet tech could ultimately find numerous applications beyond inductors and transformers. “We’re also able to supply onboard magnetic components for EVs, or uninterruptible power supplies at data centers, or inverters for renewables,” Kernion explained. “Every electron everywhere passes through a magnetic component at some point, so there’s a whole bunch of opportunity out there.”
It’s certainly a fortuitous time to be a domestic power electronics manufacturer. Last month, President Trump signed an executive order banning the import of certain foreign-made bulk power equipment, including substation transformers and grid-connected inverters. While CorePower is mainly focused on producing high-performance equipment that Kernion says can’t currently be sourced domestically or abroad, the push to shore up domestic manufacturing is providing a tailwind for another of its new business lines: amorphous ribbon, a traditional alternative to the electric steel used in conventional distribution transformers on the grid.
With this latest funding, CorePower plans to expand its team and increase manufacturing capacity at its 10,000 square foot pilot manufacturing facility in Pittsburgh, which it was able to complete thanks to a $5 million ARPA-E grant. The company is eventually looking to move into a larger, 100,000 square foot facility in the region to scale its material and component manufacturing further, though there’s no confirmed timeline for this yet.