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Two years in, union leaders say Biden’s big climate law is making a difference.

The Inflation Reduction Act is by far the most important climate law ever passed in the U.S. But it also may go down as one of the most important labor laws of recent history. Overnight, jobs installing solar farms that were largely performed by an itinerant, low-wage workforce had the potential to become higher-paid positions occupied by skilled tradespeople — maybe even union jobs.
That’s because in order to qualify for a 30% tax credit on their investment or operating costs, clean energy developers now have to follow two key labor standards. They have to pay construction workers the federally determined prevailing wage for their region, plus hire a designated number of apprentices, who are provided with paid classroom instruction in addition to on-the-job-training.
“I don’t think people have a sense of the scale and the scope of what this law has done and is going to do,” Rick Levy, the president of the Texas AFL-CIO, told me. “From our perspective, putting community well-being and labor standards in the very fabric of this industrial expansion is going to pay dividends for generations.”
On the eve of the IRA’s two-year anniversary, a new report provided exclusively to Heatmap has identified 6,285 utility-scale clean energy projects planned, under construction, or already operating, that are likely candidates for these tax credits. Together, they represent an estimated 3.9 million jobs, according to the Climate Jobs National Resource Center, a nonprofit that supports unions fighting for worker-centered climate action, which compiled the data.
There’s no way to know, at least right now, how many of the projects still in progress will actually get built, or how many have or will adhere to labor standards. Safe harbor provisions in the law also allow developers to claim the full tax credit without adhering to the rules as long as they started construction by the end of January 2023, so the full effect of the provisions will take some time to be realized.
But the report reveals the vast potential for the law to create higher-quality jobs in clean energy all over the country. Based on my reporting, that potential is starting to materialize. Union leaders told me they’re now having conversations with developers who never returned their calls before. And renewable energy developers and tax credit consultants told me it was a no-brainer to meet the labor standards, even though they create substantial administrative burdens. Otherwise, they’ll only be eligible for a 6% credit, leaving a huge amount of money on the table.
Mike Fishman, the executive director of the Climate Jobs National Resource Center, told me that when he first started advocating for high-road climate jobs, he found that many trades workers were afraid of clean energy. “If they had a good job in the fossil fuel industry, then saying, we’re going to reach these goals and shut down all the fossil fuel plants, that was very scary to people.” But since the IRA passed, he’s seen a change in workers’ attitudes about supporting climate action. “It creates a sense that there’s a future for everyone — an economic future, as well as a climate future,” Fishman said.
The IRA’s potential to spur well-paid jobs and training opportunities is actually even larger than the Resource Center’s estimate indicates. The report only covers clean energy generation projects like wind and solar farms, but the law also tied labor standards to tax credits for the construction of clean energy manufacturing plants, EV chargers, carbon capture projects, hydrogen plants, clean fuel factories, and new, energy-efficient buildings.
The standards are likely to affect each of these industries in different ways, but it’s instructive to look at what’s already happening in renewable energy development. To do so, you first have to understand that developers sit near the top of a ladder of companies involved in bringing an energy project into the world. Above them sits investors; below, a series of contractors and subcontractors who manage the project on the ground and hire the workers who ultimately build it.
Before the IRA, everyone along this ladder had an incentive to keep costs as low as possible. At the top, developers are competing for power contracts with utilities. Contractors would try to win bids by quoting the lowest construction costs. Staffing agencies would source temporary workers from all over the country and negotiate wages and benefits on a case by case basis. An investigation into solar work by Vice found that it was “common to have two workers doing the same job for vastly different pay and living stipends.” Some would travel to a new place for a gig and “pile into motel rooms with other workers on the same projects in order to save money.”
The IRA disrupts that incentive structure, creating a new regime whereby the top priority is getting that 30% tax credit. The law also extended the ladder, creating new rungs of accountability thanks to new tax credit transferability rules that allow developers to sell their tax credits to third parties. That means there are a host of other companies looming over developers’ shoulders with a stake in making sure they don’t cheat the rules. Tax credit buyers don’t want to end up in a situation where the IRS audits the developer who sold them the credits, finds that there weren’t enough apprentices on the project, and claws back the money. The risk is serious enough that buyers also purchase insurance for these transactions, adding another layer of oversight.
“The lawyers are scaring everyone about this,” Derek Silverman, the co-founder and chief product officer of Basis Climate, a startup that matches tax credit buyers and sellers, told me. For example, the law contains a loophole for companies to claim the credit without hiring the required number of apprentices as long as they show they made a “good faith effort.” Treasury defines that as having reached out to at least one registered apprenticeship program in the area every year the project is operating. Silverman said he’s seen lawyers challenge companies that are trying to get around the requirement, asking them who they reached out to and berating them if it wasn’t a legitimate effort.
“They’re saying, you have a huge part of your capital stack that’s based off this tax credit,” said Silverman. “It’s not worth the downside of the government questioning through an audit that you didn’t meet these requirements, and then, boom, you owe them $20 million when it would have cost you $100,000 to do the documentation and get that all square.”
The upside is valuable enough that it’s generated a whole new cottage industry in tax credit compliance. Empact Technologies, for example, is a software company that collects and evaluates payroll data from contractors to make sure they are paying the correct wages and have the right number of apprentices. “Then we have to go back and essentially fix all of the mistakes that they made every single week” — like classifying workers incorrectly and paying them the wrong amount, or falling behind on apprenticeship hours — “which every single contractor does. It’s insane,” Charles Dauber, Empact’s founder, told me.
All of this has added much complexity — and cost — to renewable energy development. David Yaros, who co-leads Deloitte’s US Tax Sustainability Practice, told me that the cost of compliance, including hiring companies like Empact and Deloitte to compile all the documentation, could eat into 5% to 20% of the tax benefits.
“This has raised our costs,” Rodrigo Inurreta Acero, a government affairs manager at the international developer EDP Renewables, confirmed, referring specifically to the added cost of consultants rather than the mostly negligible cost of paying prevailing wages. “But, we are very, very happy to comply with this, because the juice is worth the squeeze.”
There’s clear incentives for developers to do everything in their power to meet the labor standards. The key question is whether these two little provisions — prevailing wage and apprenticeships — are strong enough to “build a strong pipeline of highly-skilled workers” and “ensure clean energy jobs are good-paying jobs,” as the Biden administration has said.
The need is definitely there. A census of U.S. solar jobs in 2022 found that 52% of solar installation and project development companies found it “very difficult” to find qualified workers, with electricians and construction workers being among the most difficult positions to fill.
But even if armies of lawyers are scaring companies into making serious efforts to hire apprentices, that doesn’t mean they are actually finding them. “It’s not clear at this stage whether apprenticeship programs are scaling up fast enough to match labor supply to project demand,” Derrick Flakoll, a policy associate at BloombergNEF told me. He pointed to an announcement made by the White House just last month of $244 million in grants to expand the Registered Apprenticeship system throughout the country. “I’d be skeptical that apprenticeship programs have been able to scale up yet,” said Flakoll.
There’s a catch with the wage requirement, too: “Prevailing wage” doesn’t necessarily mean a living wage, and it can vary dramatically from place to place. The rate is determined by surveys sent out to contractors and labor organizations, and is typically higher in jurisdictions with active labor unions. For example, in Falls County, Texas, where the 640 megawatt Roseland Solar project is under construction, prevailing wage for a general laborer is $8.75 an hour. In Sangamon County, Illinois, where the 800 megawatt Black Diamond Solar project is being built, prevailing wage for a laborer is $34.04 an hour plus benefits worth $29.26 an hour.
Nico Ries, the lead organizer for the Green Workers Alliance, which organizes solar and wind workers, told me solar wages seem to have only increased in places with higher union density. That’s because unions are now on a more even playing-field to compete for jobs in those areas, since their typical rates have become the de facto minimum.
To be clear, the prevailing wage and apprenticeship provisions do not require developers to hire union workers to build their projects. And there are plenty of non-union, registered apprenticeships. Ries told me that the temp staffing agencies that have served the solar industry in the past are quickly standing up apprenticeship programs to stay on top of the market under the IRA. The main problem with that, they said, is that unlike union apprentices, these workers have no representation.
“There’s a lot of misinformation,” Ries said. “People think they are joining an apprenticeship and it’s going to be a whole thing, but it’s really just a little training or two, and then they slap a sticker on your hard hat.”
Nonetheless, unions are starting to make inroads in solar in places that have long been hostile to organized labor. Ethan Link, the assistant business manager for the Southeast Laborers’ District Council, which has members in right-to-work states throughout the south, told me that before and after the IRA was like “night and day.” For the first time, solar developers are calling the union directly to talk about projects on the horizon and to figure out how to work with them. As a result, the union is investing in more solar-specific training for its apprenticeship instructors.
“The Inflation Reduction Act is one of the most consequential and, I think, also most innovative ways of inducing the market to have broad based benefits for the community,” Link said. “The way I’ve experienced it, it’s changed the landscape on the ground with these developers within a matter of months, rather than a matter of years.” He said they don’t yet have a lot of workers actually assigned to projects, but “we’re really optimistic about where things sit right now.”
Kent Miller, president of the Wisconsin Laborers’ District Council, told me his union has been able to double its apprenticeship program from around 300 to 400 students a few years ago to closer to 700 to 800 post-IRA. It’s now looking to build another training campus to expand its capacity. Not all of that growth is thanks to renewable energy, he said, but the union now has a significant portion of its membership that just works in utility-scale solar.
Earlier this year, Wisconsin’s four biggest electric utilities pledged to employ local, union labor on all future renewable energy projects. Miller doesn’t think this would have happened without the incentives in the IRA. Though every wind farm in Wisconsin has been built by union labor, the more nascent solar industry was starting to bring in non-union workers from out of state to build projects. The IRA incentives gave Miller’s union leverage in negotiations with the utilities, because future projects were going to need to be able to find registered apprentices. “Unions run the best registered apprenticeship programs,” he said. “It was showing what we could do, what we could bring to the table.”
There is one more small but potentially powerful incentive for developers to work with unions. The Internal Revenue Service has said that if companies sign a project labor agreement — an agreement with one or more unions, made prior to hiring, that establishes wages and benefits — then they are less likely to be audited, and won’t have to pay penalties if they are found to be non-compliant.
To Levy, of the AFL-CIO in Texas, and others in the labor movement, getting workers to support clean energy is essential to tackling climate change. “Unless workers see themselves and their interests reflected in these new energy technologies, there’s never going to be the kind of political support that we need to be able to do the things we need to do to save the planet,” Levy said. The first step to achieve that, he said, is making sure these jobs are “good union jobs.”
The Climate Jobs National Resource Center connected me with Kim Tobias, a union electrician in Maine, as an example of how union jobs can change lives. Tobias used to work in call centers, providing customer service for healthcare software companies, before leaving to join the International Brotherhood of Electrical Workers. She was making $16 an hour in her last call center job after more than 10 years in the field, and was fed up after getting passed over for a promotion. When she started as an electrical apprentice in 2019, she essentially doubled her salary overnight once benefits were taken into account.
Today, in part because of the IRA, but also because of a state law that requires developers to pay prevailing wage on all large renewable projects in Maine, Tobias mainly works on solar projects. The work isn’t always ideal — she told me she once had to commute 75 miles away for a solar job — while she was pregnant, no less. “Then again, a year and a half later, I worked a solar job that was 0.9 miles away from my house. So it’s give and take,” she said.
But Tobias also said she sees potential to create high-quality clean energy jobs beyond solar in Maine, where, she lamented, “people under the age of 30 are leaving in droves.” She noted that an old paper mill in Lincoln, Maine, is being turned into an energy storage site, and the developer has already said it would establish a collective bargaining agreement with the Maine Building and Construction Trades. Illustrating Levy’s point about political support, the union is also now advocating for the construction of a new port to support the offshore wind industry, which would have to be built with union labor under a recent state law.
Even if the IRA’s labor provisions are starting to work, which it seems they are, they contain one significant weakness. The rules only apply to the construction of projects — not to their operations. It’s an improvement to have labor standards for construction jobs. But once they are built, wind and solar farms don't take many people to operate. The federally subsidized clean energy manufacturing plants springing up around the country due to the IRA will create a lot more jobs, but, at least right now, those jobs don’t have to be “good.”
“I think that people need to understand the opportunity here,” said Levy, and make sure that we continue to build on it and not turn back.”
Editor’s note: This story has been updated to clarify the “good faith effort” exception to the apprenticeship provision and that both provisions apply only to construction.
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The New Mexico facility aims to achieve net energy gain by 2030.
Three-year old startup Pacific Fusion broke ground on Tuesday on what it says will be the world’s first fusion plant to produce more energy than it consumes. The company is aiming to achieve this milestone, known as net facility gain, by 2030. If successful, it would provide the first real-world demonstration that the physics underpinning commercial fusion can work at facility scale.
To date, fusion tests have only achieved scientific net gain — when a reaction produces more energy than was used to ignite it. But that metric ignores the substantial energy lost at other points in the system — whether that's converting stored power into a laser beam or electric current or sustaining powerful magnetic fields to hold the fusion plasma in place. For example, Lawrence Livermore National Lab first achieved scientific breakeven in 2022, and has since repeated the feat numerous times — something no other reactor has replicated. But its laser system, which compresses and heats tiny pellets of fusion fuel, is only about 1% efficient, meaning it draws orders of magnitude more energy from the grid than the reaction produces.
“They proved that with a big laser, if you drive fusion fuel to a certain pressure, you’re going to get more energy out of the fuel than went into the fuel,” Carrie von Muench, Pacific Fusion’s co-founder and COO told me. Indeed, the startup’s founding was partially inspired by the lab’s 2022 breakthrough, which proved fusion ignition is physically possible. “That’s awesome, but not a practical basis for commercial power if you have to store way more energy in the machine than you get into the fuel.”
Other fusion startups, such as Inertia Enterprises and Xcimer Energy, are pursuing the same technical approach as Lawrence Livermore — called inertial confinement fusion — while working to make the lasers dramatically more efficient. Pacific Fusion, however, thinks there’s a cheaper and more effective path, drawing inspiration from another national lab: Sandia.
Like Lawrence Livermore, Sandia National Laboratories built its fusion machine in large part to study nuclear weapons’ performance and impacts without live testing, helping scientists confirm that the country’s aging stockpile would still act as intended. But the Albuquerque, New Mexico-based lab uses a different approach, known as pulsed-power or Z-pinch fusion. It works by sending extremely fast bursts of electric current through a fusion target, generating a magnetic field that pinches and compresses the fuel and heats it enough to trigger a fusion reaction — all while using far less energy than a laser system.
In 2022, Sandia’s Z-machine achieved what was then the second-best fusion performance ever recorded, as measured by what’s known as Lawson’s triple product — the multiple of plasma density, temperature, and confinement time. That result inspired Pacific Fusion to base its reactor on Sandia’s system, scaling it up significantly, with the goal of delivering roughly two to three times more current than the lab’s machine. And while Sandia’s system is a singular, custom built piece of research equipment, Pacific Fusion plans to cut costs by housing its power system in 156 identical, mass-manufacturable modules that can be shipped, assembled, and swapped out for repairs.
The startup raised a whopping $1 billion Series A in 2024, which von Muench told me should be enough to cover the full cost of this demonstration facility, also located in Albuquerque. General Catalyst led the round, with participation from Breakthrough Energy Ventures, Stripe co-founder Patrick Collison, venture capitalist John Doerr, and others. Investors are doling out the funding in three sets of milestone-based tranches, two of which the company has already unlocked.
The first phase involved building the module’s key components and demonstrating that they met the required specifications, validating the company’s in-house simulation tools, and using those tools to show that its fusion targets could achieve ignition in the demo system. In the second phase, the team assembled and tested a scaled-down prototype module, which delivered 440 gigawatts of peak power. Next up is building a full-scale production module that will produce over a terawatt of peak power.
“Especially for these well-established approaches to fusion — like inertial fusion, which now has a proven path to scientific gain — the question is, how fast can we execute, and how cost-effectively can we execute successive first-of-a-kind projects?” von Mench told me. For Pacific Fusion, breaking ground on the demo reactor is a clear sign the company is on the right path, she told me. “Getting to this milestone was the first real test of our team’s ability to do that.”
The company says it’s unlocked each funding tranche ahead of schedule, and has now gone from founding to groundbreaking in less than three years. It’s betting that cheaper hardware — that is, swapping expensive lasers for electrical switches and capacitors — combined with mass manufacturable components and a supply chain that avoids rare and expensive materials, will also give it an edge in the race to commercial fusion.
Once it completes the demo reactor, the company will begin work on its first commercial power plant, which von Muench told me should come online by the mid-2030s. But in the meantime, this first reactor could provide a nearer-term revenue stream by helping the Department of Energy’s National Nuclear Security Administration conduct stockpile stewardship research. Pacific Fusion just signed a non-binding memorandum of understanding with the NNSA that opens the door for the agency to use the startup’s machine for national security purposes.
Pacific Fusion’s tech is uniquely suited for such high-stakes testing. That’s because the company’s process, once scaled up, is designed to produce bursts of fusion energy exceeding 100 megajoules — roughly enough to power over 40 houses for an hour, but released in just a fraction of a second. That’s much more energy than either fusion system at Lawrence Livermore or Sandia produces, and would make Pacific Fusion’s demo plant the world’s first "high-yield" facility, capable of recreating the kind of extreme pressure, heat, and neutron conditions produced by a nuclear detonation. The resulting data could then help the government assess how warheads and other components hold up as they age.
Von Muench views this potential government work as a valuable side benefit of the company’s overall approach, rather than a primary or necessary source of revenue. “But nevertheless, building a diversified and valuable business along the way, I think certainly improves the probability of success and the speed with which you can deliver against the fusion power goal,” she told me.
And for those that still doubt that next decade, we’ll actually see real fusion reactors coming online? “I would just say wait and see,” she told me. “We’re building.
Current conditions: A sleepy Atlantic hurricane season just snapped to attention as two tropical storms started forming near the Caribbean and off Africa’s coast • Southern California is bracing for a week of triple-digit temperatures • The Hawk Fire has forced 42,000 people to evacuate an area near Reno, Nevada.

The United States nearly doubled its pipeline of gas-fired power plant projects in the first half of this year, “but uncertainty persists about how and when this capacity gets built,” the watchdog Global Energy Monitor concluded in a new analysis. The country now has 189 gigawatts of planned gas projects, accounting for one-third of the global total. Completing all the plants would cost more than $647 billion. The U.S. is taking unique approaches to expanding its gas fleet, including building what would be the largest power station in the country as a federally-owned gas plant. As my colleague Emily Pontecorvo points out, however, there’s a big asterisk on these numbers: Many of the projects are still in nascent stages of development and may never be built. “When I went through the group’s data to try to identify the 10 biggest gas projects under development that are tied to data centers, it became clear how slippery the whole picture really is,” she says in her write-up of the report, which I highly recommend checking out.
Electric cooperatives, meanwhile, are lobbying to make building more gas plants even easier. Last week, Utility Dive reported, the National Rural Electric Cooperative Association urged the Environmental Protection Agency to exempt more gas plants from emissions rules.
Last month, a report by the Massachusetts Institute of Technology’s Center for Energy and Environmental Policy Research made the case that “the glass is half full” on federal green spending, finding that President Donald Trump’s landmark tax law, the One Big Beautiful Bill Act, preserved 74% of the clean energy gains from the Biden-era Inflation Reduction Act. (You should listen to my colleague Robinson Meyer’s podcast conversation with the author, Lily Bermel, from last month.) Now the Natural Resources Defense Council has come out with the bearish counterargument. The environmental group’s new analysis, out this morning, found that the U.S. will lose between 390 gigawatts and 540 gigawatts of new solar, wind, and battery projects that would have been built before OBBBA’s passage.
“I see a glass much more than half empty,” Amanda Levin, the director of policy analysis at the NRDC, wrote in an op-ed for Heatmap. “The repeal of the key IRA tax credits and other Trump administration policies will result in 637 fewer gigawatts in added clean energy over the next 15 years and cost the average American household $4,500.”
One popular theory of Trump’s motivation for joining Israel in launching a war against Iran is that halting the flow of oil through the Strait of Hormuz would demonstrate China’s vulnerability as a top importer of foreign fossil fuels and America’s strength as the world’s No. 1 producer of oil and natural gas. But China’s actual response proved to be robust. In addition to ramping up domestic production of its own limited reserves of fossil fuels, Beijing deployed more renewables and nuclear reactors, electrified things that once ran on oil or gas, and made real progress on fuels such as hydrogen and its derivatives. Between that and China’s own carbon-cutting goals, last year was likely the peak of the country’s demand for oil, according to the state oil company Sinopec. In an earnings call Monday in Hong Kong, Sinopec Chairman Hou Qijun said demand had already crested, two years earlier than the 2027 peak the company had previously forecast, according to Bloomberg. Keep in mind that only means oil demand is no longer growing. The Chinese economy isn’t exactly on a GLP-1 treatment for crude just yet. In fact, Reuters noted that, on the call, Sinopec said it was now eyeing Brazil and Africa as new sources of oil imports. That’s probably partly why, as I told you last week, American oil giants are setting sights on Africa.
In the meantime, the People’s Republic may finally be sorting out carbon capture and storage. Last week, GD Power’s Jinjie Company issued a tender for engineering design of its 4 million tons per year full-sized CCS project for coal power stations. The project, according to the China Hydrogen Bullet, “is described as the world’s first full-flue-gas carbon capture facility at a coal-fired power plant.”
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Nearly two weeks after a powerful storm took out power for roughly 800,000 households in one of America’s most important industrial clusters, as many as 30,000 in northwest Indiana remained without electricity this past weekend. “My people are being overlooked,” Myles Tolliver, a Gary councilman whose family decamped to Chicago while the power was out, told The New York Times. “Our families are sitting in the dark. We don’t need any more excuses. We need the lights on.” By Monday evening, more than 8,300 households and businesses remained disconnected from the grid, according to data on PowerOutage.us, a tracker website.
The worst outage in the U.S. as of Monday night was in Shelby County, in the southwesternmost corner of Tennessee, where storms knocked out the power for nearly 32,000 households and businesses. Behind that was Washoe County, on the western flank of Nevada, where the aforementioned Hawk Fire damaged power lines.
The Trump administration is working with the British startup Core Power to help build a fleet of nuclear-powered merchant vessels to loosen China’s tightening grip over commercial shipbuilding. In an interview Monday with the Financial Times, U.S. Maritime Administration chief Stephen Carmel announced a public-private partnership agreement with Core Power in a bid to speed up commercialization of nuclear propulsion for ships. “We are not going to beat China by being a cheaper version of China. They have mastered the art of being cheap,” Carmel said. “The way we win in all this is to change the terms of the competition to something that is more favourable to us. So, we don’t compete on trying to be cheap. We compete on technology … and nuclear technology is something we are really good at.”
Vietnam just took a big step toward building its nuclear power station. On Monday, NucNet reported that the fast-growing Southeast Asian nation’s parliament had approved plans for its first commercial nuclear plant, a two-reactor, 2.4-gigawatt plant built by Russia. Hanoi is looking beyond just atomic energy to supplement its surging demand for power. The municipal government in Ho Chi Minh City, the nation’s largest metropolis, is reviewing a feasibility study into developing up to 6 gigawatts of offshore wind, according to offshoreWIND.biz.
The Trump administration fast-tracked a Rare Earth Resources’ plan for an open-pit mine in Wyoming to extract rare earth minerals. Even in a deep-red state that mines more coal than any other in the U.S., the project is getting pushback. “It was kind of hush-hush, in my opinion, as far as not much word about it around Sundance,” Sundance resident Justin Johnson told WyoFile. “All of a sudden, in July when it came to our attention, it’s like, ‘Holy cow. We got little time before the federal deadline to get our comments and concerns to the Forest Service … You would think there’d be a lot more time for the actual owners of public land — the citizens of the U.S. — to have a response to what’s going on.”
A new report from Global Energy Monitor shows just how rapidly the U.S. is expanding its fleet.
The race to build data centers is driving a natural gas boom in the U.S. power sector unlike any seen before. According to Global Energy Monitor, a group that tracks energy infrastructure around the world, the amount of natural gas generation proposed to power data centers in the U.S. doubled in just six months, from January to July.
In a report released Tuesday, the nonprofit said it counted 189 gigawatts of gas-fired capacity that has either been announced, entered the pre-construction phase, or come under construction, up from 97 gigawatts at the end of last year. That count includes plants proposed by utilities to meet demand from data centers, as well as off-grid projects that companies are building to power data centers directly.
And that’s not even the full scale of what’s in the pipeline. In total, taking into account additional planned natural gas-fired power plants that are not necessarily tied to data center projects, the U.S. has 378 gigawatts of generation capacity under development, the report found. For reference, the country had 512 gigawatts of natural gas generation capacity operating as of the end of last year.
While many of the projects included in the Global Energy Monitor's data are in early stages and may not materialize, the authors count 52 gigawatts that are already under construction. That’s a 76% increase compared to last year, according to the report, and double the amount under construction in China, making the U.S. the top builder of natural gas plants in the world.
The closest historical precedent to this was in the early 2000s, when the U.S. added more than 150 gigawatts of natural gas power plants in just four years. The key differences this time are the momentous size of the proposed plants and the fact that so many of them are foregoing electric grid connections. Most of the plants built during that earlier period also used a more efficient design known as combined cycle, which uses the waste heat from gas combustion to power additional steam turbines. Due to supply chain constraints, however, about a quarter of the planned natural gas plants related to data center development are installing combustion engines, which are dirtier and less fuel efficient but easier to come by.
“From a climate perspective, there is definitely a risk that it locks in emissions from these resources and creates long term demand for gas as a fuel,” Brendan Pierpont, the director of electricity at the research firm Energy Innovation, told me. The projects also raise affordability concerns, he said, whether they are on the grid or not, as the increased demand for gas could raise gas prices for all users of the fuel.
Because so many of these projects are speculative, it’s difficult to get more specific about what it all means for U.S. electricity consumers, let alone emissions and climate change. Last week, Bloomberg News estimated that 126 gigawatts of planned natural gas projects tied to data centers would increase power sector emissions by at least 20% compared to 2025 levels were it all to be built. That estimate did not take into account the fact that the projects will be built amid other changes in the U.S. grid mix, however. More than 200 gigawatts of solar projects and nearly 30 gigawatts of onshore and offshore wind capacity spurred by the expiring clean energy tax credits are working their way through the development pipeline and could come online by around 2030. Battery energy storage is also surging.
Here’s another data point to consider: A recent report by the Rhodium Group modeled changes in U.S. emissions through 2040 and found that power sector emissions could decrease by 24% to 48% given current policy, energy, and technology trends. This is a significantly worse outcome than what the group found two years ago, when the Inflation Reduction Act’s clean energy tax credits were in effect; then, emissions from the power sector were set to decline by at least 42% by 2035, according to Rhodium modeling.
Both the new Rhodium report and the 2024 version take into account surging electricity demand driven by AI data centers, but neither considers the buildout of off-grid natural gas plants. Those would make the outlook “demonstrably worse” emissions-wise, Ben King, one of the authors, told me. The grid routes power when and where it’s needed, prioritizing the least-cost generation, King explained, whereas these off-grid plants will serve just one customer, whether it needs their full capacity or not.
It’s also important to take the Global Energy Monitor numbers with a grain of salt. Many of the projects haven’t even applied for permits, named a start year, or found an offtaker for the energy. Off-grid projects will need air and water permits from state governments, while on-grid projects may need additional approvals from utility regulators. Many will also need pipelines to deliver the gas, requiring additional approvals.
When I went through the data to try to identify the 10 biggest gas projects under development that are tied to data centers, it became clear how slippery the whole picture really is. As I looked up each project to verify the details, I found several that had upgraded or downgraded their advertised size multiple times since they were announced. Some were officially permitted for a smaller amount of generation but claimed they would eventually double or even triple that amount when the project is complete. Some were speculative to the point of not even having an advertised location.
Below I've compiled the 10 biggest projects according to their developers' stated aspirations. Many of the projects on the list do not yet have customers for their energy, while a number of megaprojects that didn’t make the cut do. For example, Chevron is building the Kilby power plant, a nearly 2.7-gigawatt off-grid natural gas plant in Texas, to serve a Microsoft data center. There are also large data center projects that didn't make the list because they are tied to more geographically distributed gas plants. Meta, for example, is working with the utility Entergy to bring more than 5-gigawatts of natural gas capacity online scattered across multiple sites in Louisiana to power its massive Hyperion project.
Still, viewed together, these projects provide a picture of what kind of progress the developers with the biggest natural gas plans are making so far.
Potential size: 11 gigawatts
Location: Amarillo, Texas
Developer: Fermi America
Grid connection: No
Customer: TensorWave, a cloud company, has agreed to buy 222 megawatts from the site.
Fermi has obtained state air permits for 6 gigawatts and submitted an application for five more. Fermi also recently enlisted a partner, Hillcore Energy, to build and operate 2.6 gigawatts of the total.
Potential size: 9.2 gigawatts
Location: Piketon, Ohio
Developer: SB Energy, backed by the U.S. government
Grid connection: According to the Department of Energy, it will “connect to the local grid,” i.e. PJM Interconnection
Customer: OpenAI
No air permits have been filed. Because the project is partially on federal land, it will have to undergo federal environmental review. The Trump administration has already decided to fast track permitting for the project, however, and expects to complete it by Christmas.
Potential size: 9 gigawatts
Location: Box Elder County, Utah
Developer: Utah’s Military Installation Development Authority and investor Kevin O’Leary
Grid connection: No
Customer: Unknown
Box County approved two resolutions in support of the project in May. It faces intense local opposition. The developers reached an agreement with Utah Governor Spencer Cox in May to cap Phase I of the project at 1.5 gigawatts.
Potential size: “8+” gigawatts, though the initial phase is much smaller
Location: Point Pleasant, West Virginia
Developer: Nscale
Grid connection: No
Customer: Microsoft agreed to offtake just over 1.3 gigawatts of compute
Nscale’s air permit application for a roughly 2.2-gigawatt natural gas power station is pending. The company says it has “a clear expansion path to 8GW+ as workload demand grows.”
Potential size: about 7.7 gigawatts
Location: Fort Stockton, Texas
Developer: Pacifico Energy
Grid connection: No
Customer: Amazon
The state approved Pacifico’s air permit for 7.65 gigawatts in January. The site is under construction.
Potential size: More than 7 gigawatts
Location: Hubbard, Texas
Developer: Nexus Data Centers
Grid connection: No
Customer: Anthropic
Nexus’ air permit application is pending. The permit’s list of natural gas turbines and engines amount to more than 7 gigawatts of generation, however a July Wall Street Journal article about a potential financing deal for the project noted that the site would be capable of generating just 1.6 gigawatts. The deal has not yet been confirmed.
Potential size: 5.2 gigawatts
Location: Bethel, Texas
Developer: NextEra
Grid connection: Unknown
Customer: Unknown
The planned facility is part of a trade deal between the Trump administration and Japan. On August 12, NextEra executed agreements with the U.S. Department of Commerce and the government of Japan to fund the development and operation of the project.
Potential size: 5 gigawatts
Location: Midland County, Texas
Developer: FO Permian Partners/HiVolt Energy
Grid connection: No
Customer: Unknown
Highly speculative. The developers haven’t made any permit filings that I was able to find. FO Permian’s website says that Phase I will be just 150 megawatts, but that the site has “5GW+ of dedicated gas supply.”
Potential size: 4.4 gigawatts
Location: Homer City, Pennsylvania
Developer: Knighthead Capital Management
Grid connection: Developer says it “will have capacity to serve multiple large data center customers and supply power to thousands of homes on the local grid.”
Customer: Amazon is in talks
Air permits were approved in November. Construction is underway.
Potential size: 4.3 gigawatts
Location: Southwest Pennsylvania (precise location undisclosed)
Developer: NextEra
Grid connection: According to the U.S. Department of Commerce, it will connect to PJM
Customer: Unknown
The project is part of the same trade deal with Japan as the NextEra project in Bethel, Texas.
Editor’s note: This story has been updated to correct Energy Innovation’s tax status.