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What happens when America’s biggest source of clean energy pivots to hydrogen?

After the Inflation Reduction Act was signed into law, and initial excitement about its historic investment in tackling climate change turned to deeper analysis, researchers made an alarming discovery. One of the IRA’s big ticket items, a tax credit for clean hydrogen, risks underwriting a major increase in emissions if not implemented carefully. That finding has erupted into a high-stakes debate over how the Treasury Department should define “clean hydrogen.”
Treasury’s decision, which is expected in the coming weeks, will have many implications, but one that deserves more scrutiny is what it could mean for nuclear power, still the largest and most reliable source of carbon-free energy in the U.S.
Nuclear reactors are uniquely well-suited to power hydrogen production, which in turn holds great promise to clean up some of the hardest parts of the economy to decarbonize.
But there's a trade-off: If any of the existing nuclear fleet pivots to making hydrogen, coal and natural gas plants are likely to fill in for that lost power on the grid. That would drive up emissions in the near term and make it harder for states to achieve their clean energy goals.
The debate boils down to whether it’s more advantageous to use our existing nuclear fleet to kickstart a hydrogen economy — likely sacrificing near-term emission reductions in the process — or to shore up a carbon-free grid.
This is what the Treasury Department must grapple with as it writes the rules for the new tax credit. In an exclusive interview with Heatmap, officials from the Department of Energy, which is advising the Treasury, said they want to see existing nuclear plants qualify. But as Daniel Esposito, a senior policy analyst at the nonprofit Energy Innovation, told me, “There's just a lot of layers to how bad this can get.”
Hydrogen already plays an essential, yet small role in the global economy as an ingredient in the production of fertilizer and oil refining. But as the world looks for alternatives to fossil fuels, hydrogen, which burns without releasing carbon, could play a much bigger role by powering industries that are proving difficult to decarbonize with renewable electricity, like shipping, aviation, and steelmaking. The challenge is that it takes energy to make hydrogen in the first place. Today the vast majority is made in a carbon-intensive process involving natural gas or coal.
There is an alternative method, called electrolysis, which extracts hydrogen from water using electricity and doesn’t directly release emissions. But it’s too expensive to be competitive with the fossil fuel version right now. The tax credit in the Inflation Reduction Act could change that, but to qualify, hydrogen producers would have to prove their electricity is carbon-free, too.
That’s where nuclear power comes in.
There are many reasons nuclear plants are considered a good fit for this process. Electrolyzers, the enabling technology for electrolysis, are still relatively new and expensive. Nuclear reactors could power them 24/7, maximizing production.
Nuclear plants are also well-located. They sit near bodies of water, which is necessary for electrolysis. They’re often adjacent to rail lines that could transport the resulting hydrogen. And many are close to heavy industrial sites that could become customers.
There’s potential for efficiency gains — a lot of nuclear reactors already require a bit of hydrogen for their operations, so they could produce their own instead of shipping it in.
And perhaps most thrillingly, nuclear reactors produce a lot of heat. With a more nascent version of the technology called high temperature electrolysis, that heat could be harnessed to boil water into steam, reducing the amount of energy required to extract hydrogen from it.
Unfortunately, there’s one big drawback. The nation’s existing nuclear plants already run at more than 90% capacity. They supply nearly 20% of total annual electricity generation. They don’t exactly have more energy to give.
Esposito and others warn that the hydrogen tax credit is so lucrative that if the Treasury’s upcoming rules allow existing reactors to qualify as a zero-emissions source of electricity, it would create a perverse incentive for nuclear companies to start diverting their power to hydrogen production. Nuclear plants currently earn about $30 per megawatt-hour from energy markets, but Esposito estimates they could earn $60 to $70 per megawatt-hour by producing hydrogen. Though indirectly, this would almost certainly increase U.S. emissions in the near term.
“You could see a world where all of the U.S. nukes pivot to supplying electrolyzers and just print money that way,” said Esposito. “Then you're pulling off 20% of U.S. power, and fossil fuels would be what fill in for that, because we just can't build clean energy fast enough to replace it.”
But Constellation Energy, the country’s largest owner of nuclear plants, with big plans to produce hydrogen, argues that letting its reactors qualify under the tax credit rules isn’t about printing money, but about making clean hydrogen cheap enough that customers actually buy it.
“By lowering the cost of the hydrogen, the tax credit is going to increase the ability of manufacturers and other hydrogen users to decarbonize their operations,” Mason Emnett, senior vice president of public policy at Constellation, told me. “Without that support, there's just not going to be a market for clean hydrogen.”
Top Department of Energy officials seem to agree. “We're very hopeful that [the tax credit] will be applicable to existing reactors,” Dr. Kathryn Huff, assistant secretary of the Office of Nuclear Energy, told me in an interview.
The Department of Energy has long been excited by the synergies between nuclear plants and hydrogen production. In fact, just a few years ago, the agency saw hydrogen as a new market that could save the nation’s nuclear plants, which were shutting down left and right as they struggled to compete with the cheap natural gas of the fracking boom.
But today, natural gas prices are up. There’s a bevy of new government grants and subsidies from the Bipartisan Infrastructure Law and the Inflation Reduction Act to keep nuclear plants open. Now hydrogen looks more like a great business opportunity than a savior for the industry.
Last September, not long after the Inflation Reduction Act was signed, Morgan Stanley issued a report noting that Constellation was poised to unlock new opportunities for its nuclear plants and “attractive returns for hydrogen facilities,” according to S&PGlobal. If the company dedicated just 5% of its capacity to hydrogen production, the report said, it could increase its annual earnings before taxes by $300 to $350 million.
Constellation made its first big move in February, announcing plans to build a $900 million hydrogen production facility in the Midwest that will use 250 MW of its existing capacity. That’s only about 1% of the company’s total nuclear fleet. But to Esposito, it’s a worrisome sign.
“It’s very likely we’d see many other similar announcements,” he told me. “And crucially, as these clean energy resources switch from powering the grid to producing hydrogen, we’d be losing our cheapest existing sources of clean electricity.”
It’s also concerning to climate advocates in Illinois, where Constellation owns six nuclear plants. The state has an ambitious clean energy goal, and is counting on those reactors to be a source of always-available, carbon-free electricity as it shuts down coal plants and builds more renewables.
“Even if it's small, that's still headed in the wrong direction in a world where we are fighting as hard as we can to quickly decarbonize the power sector,” said JC Kibbey, a clean energy advocate with the Natural Resources Defense Council in Illinois.
Constellation doesn’t see that as the company’s problem. Emnett said that much of its nuclear generation is already contracted out to local utilities for the benefit of customers for the next several years, meaning it can’t be “diverted” to hydrogen, at least until those contracts are up. The rest is theirs to sell to whomever wants to buy it. “There's no diversion of electricity,” he said. “There's electricity that is available for use, and we can sell electricity to power a shopping center or we can sell electricity to power an electrolyzer for hydrogen production.”
Constellation also makes the case that if one of its reactors are powering a hydrogen plant on-site, without using the grid at all, there should be no question that the process is carbon-free.
But Rachel Fakhry, a senior climate and clean energy advocate at the Natural Resources Defense Council, said it doesn’t matter whether a hydrogen facility is connected directly to a clean power source or whether it gets power through the grid. The issue is when no new, clean resources have been built to support this big new source of demand. In either case, less nuclear power will be flowing to other customers, and more coal or gas-fired generation will ramp up to fill in the gap. Electrolysis is so energy-intensive that those indirect emissions would be higher than emissions from current hydrogen production using natural gas. “Treasury must account for those induced emissions,” Fakhry said.
Many climate and energy policy experts agree that the resulting hydrogen should not be subsidized, or considered “clean.”
The law itself sends mixed messages to the Treasury about what Congress intended. It says the Department must account for “lifecycle” greenhouse gas emissions from hydrogen production, but it also includes a clause that explicitly permits existing nuclear plant operators to claim the tax credit.
Fakhry argued this should not be interpreted to mean nuclear companies are entitled to the credit. She said one way existing plants could qualify is if they are modified to increase their power output.
Some experts see a middle ground. Adam Stein, director of the Nuclear Energy Innovation program at the Breakthrough Institute, said those induced emissions are not the full picture.
He cited a number of other factors to consider, like the fact that one of the main obstacles to building new sources of clean energy right now is a clogged electric grid. If diverting some nuclear power to hydrogen frees up some room on the grid, that could be a good thing. “The question does not become, in my view, whether nuclear power plants should be eligible for this,” he said. “It’s at what point in the sliding scale of percentage of the tax credit they should be eligible for.” The tax credit is tiered, such that companies can earn different amounts depending on the carbon intensity of their production process.
In a sense, the debate is also about short-term and long-term priorities.
When I asked Huff, the assistant secretary in the Office of Nuclear Energy, whether she felt there were any risks of pairing nuclear and hydrogen, she only noted the shortcomings of not doing so. “I think there are risks in terms of whether or not we can successfully scale up a hydrogen economy,” she said. “There is this risk that it never materializes.”
Her colleague Jason Tokey, the team lead for reactor optimization and modernization chimed in. “As a country, we're not seeking to just decarbonize the power grid, we're seeking to decarbonize the entire economy,” he said. “Clean hydrogen has a critical role to play in that economy-wide decarbonization, and using clean energy sources like nuclear to produce hydrogen really enables that.”
The agency is also excited about the prospect of innovations that could help decarbonize both the grid and the rest of the economy. There are already hours of the day in some places where nuclear plants aren’t needed because there’s so much solar power being produced, said Huff. She said the “operational vision” is to have nuclear operators learn how to switch back and forth between serving the grid and offloading their power into hydrogen when it’s not needed, which will enable more renewable resources to come online. “It is absolutely imperative that we make sure nuclear plants can flex with the grid.”
Emnett said Constellation is planning to test this out at Nine Mile Point, a nuclear plant in upstate New York that received $5.8 million from the DOE for a hydrogen production pilot project.
“We are excited about the possibility of creating flexibility for nuclear plants,” he said. “You can start to think about a system where nuclear with flexible hydrogen production is pairing with variable wind and solar and batteries in a decarbonized future world. And so we're at a point now where we're proving out those capabilities.”
But without the tax credit, he said, “there's just not any conversation, there's no ability to explore the innovation, because we never get out of the gate.”
Whether that gate should be swung open or shut is now in the hands of the U.S. Department of Treasury.
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Two new reports out this week create a seemingly contradictory portrait of the country’s energy transition progress.
Two clean energy reports out this week offer seemingly contradictory snapshots of domestic solar and battery manufacturing. One, released Wednesday by the Rhodium Group’s Clean Investment Monitor, shows a distinct decline in investment going into U.S. factories to make more of these technologies. The other, released today by the trade group American Clean Power Association, shows staggering recent growth in production capacity.
So which is it? Is U.S. clean energy manufacturing booming or busting?
Maybe both.
The U.S. is suddenly producing more solar and batteries than ever before — enough to meet current domestic demand — so it makes sense that investment in new factories is starting to slow. At the same time, there’s a lot of room for growth in producing the upstream components that go into these technologies, but the U.S. is no longer as attractive a place to set up shop as it was over the past four years.
The U.S. saw 30 new utility-scale solar factories and 30 new battery factories come online last year alone, according to ACP. The country now has the capacity to meet average domestic demand for storage systems through 2030, and can produce enough solar panels to satisfy demand two times over.
In both industries, nearly all of that capacity has been added since 2022, when the Inflation Reduction Act created new subsidies for domestic manufacturing. The advanced manufacturing production tax credit incentivized not just solar and battery factories, but also all the production of components that go into these technologies, including solar and battery cells, polysilicon, wafers, and anodes. On top of these direct subsidies, the IRA generated demand for U.S.-made products by granting bonus tax credits for utility-scale solar and battery projects built with domestically produced parts.
“The policy definitely laid the right foundation for a lot of this investment to take place,” John Hensley, ACP’s senior vice president of markets and policy analysis, told me.
Trump’s One Big Beautiful Bill Act has changed the environment, however. The utility-scale wind and solar tax credits were supposed to apply through at least 2033, but now projects have to start construction by July 4, 2026 — just over a month from now — in order to claim them. Any of those projects that got started this year will also have to adhere to complex new sourcing rules prohibiting Chinese-made materials.
Now, dollars flowing into new U.S. solar factories appears to be on the decline. Investment fell 22% between the fourth quarter of last year and the first of 2026. Battery manufacturing investment dropped by 16%.
The reason investment is declining is not entirely because of OBBBA — it’s partly a function of the fact that a lot of the projects announced immediately after the IRA passed are entering operations, Hannah Hess, director of climate and energy at the Rhodium Group, told me.
Rhodium’s Clean Investment Monitor tracks two metrics, announcements and investment. Announcements are when a company says it’s building a new factory or expanding an existing one, usually with some kind of projected cost. Investments are an estimate of the actual dollars spent during a given quarter on facility construction, calculated based on the total project budget and the expected amount of time it will take to complete after breaking ground.
According to Rhodium’s data, the peak period for new solar manufacturing project announcements was the second half of 2022 through the first quarter of 2025. During that time, announcements averaged more than $2 billion per quarter. New solar factories announced this past quarter, by contrast, fell to about $350 million.
Since it can take a while to get steel in the ground, the peak period for investment was slightly later, with $13.5 billion invested between the second quarter of 2023 and the third quarter of 2025.
“What we were seeing in that post-IRA period was huge, almost unconstrained growth in that sector, and that’s not happening anymore,” Hess said.
Most of this growth occurred all the way downstream, at the final product assembly level — i.e. factories making solar and battery modules that still had to import many of the components that went into them. This was the “lowest hanging fruit” to bring to the U.S., Hensley, of ACP, told me, as the final assembly is the least technologically challenging part of the supply chain.
“These supply chains have momentum as they get going,” he said, “so as you establish those far downstream component manufacturing, you start to recruit all of the upstream manufacturing.” In other words, a solar cell manufacturer is far more likely to build in the U.S. if there’s a robust local market of module factories to buy the cells.
There’s evidence that’s still happening in spite of changes to the tax credit structure. The ACP report says that three solar cell factories came online between 2024 and today — one per year. If all of the additional factories that have been announced are built by 2030, the U.S. will have nearly enough capacity to meet all of its own demand for solar with domestic cells. Battery cell capacity is growing even faster, with three factories as of the end of 2025 and seven more expected to be complete by the end of this year, which will produce more than enough units to meet average annual demand.
It’s the next step up on the supply chain that spells trouble. For solar, that’s ingots and wafers, followed by polysilicon. Today, the only producer of ingots and wafers in the U.S. is a company called Corning. It produces enough to meet about 25% of current domestic solar cell production, but cell production will more than quadruple by the end of this year compared to last year, according to ACP. Similarly, we produce enough polysilicon to meet Corning’s current needs, but not enough to meet anticipated cell demand. The announced projects in the pipeline will not add much on either front.
For batteries, it’s the anodes and cathodes. There’s currently one factory in California producing cathodes and at least one more under construction, but as there is nothing else in the pipeline, the ACP report expects cell manufacturers to rely on imported cathodes for the foreseeable future. Anodes are the one bright spot — there’s one factory producing what’s known as active anode material factory in the U.S., and four more anticipated by the end of this year. Together, they have the potential to meet demand by 2028, according to ACP.
The question now is whether that snowball effect kicked off by the IRA will continue. “A lot has changed about the outlook for future demand after the One Big Beautiful Bill Act passed,” Hess said. “We have seen some more project cancellations and pauses in construction recently.”
Most recently, a company called Maxeon Solar Technologies canceled a $1 billion cell and module factory in New Mexico. The company had been “fighting for its life” since 2024, according to Canary Media. It’s also majority owned by a Chinese state-owned company. The
OBBBA was likely the nail in the coffin, as it penalizes solar developers who source panels from companies with Chinese ownership.
OBBBA also shortened the timeline for the wind and solar tax credits, while the Trump administration’s hostility to wind and solar permitting has made it more difficult for projects to get built before the credits expire. Hensley said the Trump administration’s hostility toward clean energy has added a lot of risk into the system, complicating final investment decisions for manufacturers.
On the flip side, tariffs have the potential to help some domestic producers. Duties on imports from countries such as Cambodia, India, and Vietnam, all major manufacturers of solar panels, “have made their exports to the U.S. almost prohibitive,” Lara Hayim, the head of solar research at BloombergNEF, told me in an email. “This sort of policy framework could continue to provide some protection for domestic manufacturers,” she said, but there are still plenty of countries with low enough tariffs that they will continue to serve the U.S. and compete with domestic manufacturers.
Hensley said that the Trump administration’s tariffs were a double edged sword. They can help domestic manufacturers, but not if they make all of the inputs into the product more expensive.
“That’s a problem with these blanket type of tariffs that aren’t really fine-tuned to target the behavior that you’d like to see,” he told me. “I think we’re seeing a lot of that push and pull and tension in the system at the moment.”
Between Trump’s tariffs and the OBBBA, there’s no doubt that the manufacturing boom sparked by the IRA is slowing. But Hensley is optimistic that the progress will continue. “We haven’t attracted all of the supply chain yet. It’s still a work in progress, but so far the signs are quite good.”
This week’s conversation is with Duncan Campbell of DER Task Force and it’s about a big question: What makes a socially responsible data center? Campbell’s expansive background and recent focus on this issue made me take note when he recently asked that question on X. Instead of popping up in his replies, I asked him to join me here in The Fight. So shall we get started?
Oh, as always, the following conversation was lightly edited for clarity.
Alright let’s start with the big question: What is a socially responsible data center?
So first, there’s water, which I think is pretty solvable.
Part of me thinks water is not even the right thing to be focusing on necessarily, and it’s surprising that it became at least for a while the center of the controversy around data centers.
I think there’s energy, which is mostly a don’t-raise-people’s-bills kind of thing. Or in extreme cases, actually reducing people’s access to energy.”
I think air pollution is another key. This is one of the biggest own-goals our [climate] space is making, because people are installing behind-the-meter power and we can talk about why they’re doing that, the shifting reasons, but the real shame in it is you really shouldn’t have to run those 24/7. If you’re building your own power plant, it should enable you to get a grid connection, because you’re bringing your own capacity and they can provide you firm service, and you should only have to run that gas plant 1% of the year, so air pollution is a non-issue. If only the grid and its institutions could get their act together, this is a no-brainer. But instead people run them 24/7.
There’s noise, which has been very misunderstood and bungled on a handful of well-known projects. That’s just a do-good engineering and site layout type of problem.
And then there’s other. Beyond the very concrete impacts of a data center, what else can it do for the community it's siting itself in? That’s going to be specific for every community.
There’s going to be a perspective that data centers are takers. They get tax incentives. They’re this big new thing. If data centers were to bring something compelling when [they’re] siting in communities, and it is specific to whatever they’re dealing with, maybe they’d be considered socially responsible.
I don’t think I have the master answer here. Everyone’s trying to figure it out.”
What do you hear from other folks in decarb and climate spaces when you ask this question? Do you hear people come up with solutions, or do they knock down the entire premise of the question — that there isn’t such a thing as a socially responsible data center?
You get both. You definitely get both. It depends on who you're talking to.
I can understand both sides of the equation here. There’s definitely solutions, first of all. I do think there’s a group of people whether it is in the energy world or the data center world or tech who would have this incredulous disbelief that anyone could not want what they’re doing. And that then, after being poked and prodded enough, transforms into a very elitist, almost pejorative explanation of everybody’s just NIMBYs.
I think that’s really unproductive. It kind of just throws gas on the fire.
But there’s a lot of people working on solutions, too. The non-firm grid service thing is just a huge opportunity. To be able to connect these sites to the grid in such a manner they either get curtailed some small amount of hours per year or they show up with accredited capacity, absolving them from curtailing. I mean, we can do that. It’s very doable.
The second question becomes, what are the forms of accredited capacity that can be deployed quickly? I think that’s where there’s a lot of cool stuff around VPPs and such. Sure, build a gas power plant, run it once or twice a year. If anything that’s good for a community — back-up power at grid scale.
There’s also other solutions. A really cool effort right now, former Tesla people building a purely solar and battery DC microgrid in New Mexico.
And there’s also a lot of inertia. The folks making decisions about data centers have been doing stuff a certain way for 20 years and it’s hard to change. The inertia within the culture combined with the enormous pressure to deploy just makes it less dynamic than one would hope.
On my end, I’ve been grappling with the issue of tax revenue. We’re seeing a declining amount of money for social services, things that can really help people for both personal and academic reasons. There's quite a bit a lot of people could say on that topic. At the same time, this is another form of industrial development. People are upset at the amount of resources going to this specific thing.
So when it comes to the data center boom in general, where do you stand on social cost-versus-benefit analysis?
That’s a good question. I’m not an expert. I’m mostly just someone who designs energy projects. But I can say where I’m at personally.
Yeah, but isn’t everyone in the energy space talking about data centers? Shouldn’t we all be thinking about this?
Of course. I’m not in a place to proclaim what is right but I’ll tell you where I’m at right now.
With any large-scale industrial build out it is tough relative to other technological changes that were simpler at the infrastructure layer. Like, the smartphone. Massive technological change but pretty straightforward in a lot of ways. But industrial buildout stresses real physical resources, so people have much more of an opinion of whether it’s worth it or not.
I’m pretty optimistic about AI generally. It’s very hand-wave-y. It’s hard to cite data or anything, because we’re talking about something that hasn’t happened yet, but I’m very optimistic about increasing the amount of intelligence we have access to per person on Earth.
A similar thing I think about is when everyone stopped getting lead poisoning all the time, we all jumped five IQ points and killed each other less. Intelligence is good. A lot of our story as a species is about increasing intelligence and learnings-per-person so we can do more. The idea that we would be able to synthesize it, operate it as a machine outside of our own bodies. It feels pretty inevitable.
There’s questions about what that [AI] will do to the economy and jobs, which is what people are really concerned about and is the case with any major technological change.
Are data centers being deployed at a rate and in a way that is responsible? Like, does it need to be this fast? That’s a question people ask and that’s in a way the question being posed by the moratoriums. They’re not saying let’s ban this forever. They’re saying, let’s take a breather. And I do understand that.
There’s a lot of good solutions that could just be pursued and it’s hard for me to separate my feelings about the current path data centers are taking from what I think is objectively right. We could just be doing way better.
On the energy front, what do you make of the way our energy mix — carbon versus renewables, our resilience — is headed? And where do you think we’re heading in five years?
For the energy and climate world, this is the real question. Data centers are a complicated thing but at the end of the day, for us, they’re a source of electricity demand.
From an electricity perspective, there’s been no growth for 20 years. So the theory of addressing climate change was, as the old stuff breaks we’ll replace it with new clean stuff. That was what we were doing, while saying, a lot of the old stuff we’ll keep around. We’ll layer on the new clean stuff.
It was always the case though that we could enter a new phase of electricity growth. Actually, five years ago, when the phrase “electrify everything” was coined, it explicitly became our goal! We were going to massively and rapidly grow the electricity system in order to switch industry, heating, and transport off of fossil fuels. That’s the right prescription, the right way to do it.
My understanding of it is that while this feels really big, because we haven’t grown in so long, compared to the challenge we were all talking about doing is not big at all. It increases the challenge by 15% or 20%. That’s meaningful. But it just seems like we should be able to do this.
From a climate perspective, as someone who’s been trying to do everything I can on it for a while now, I can’t help but feel a little dismayed that today the growth we’re experiencing is some tiny, tiny percentage of what we actually set out to do. And it’s causing chaos. We’re institutionally falling apart from a single percent of what our goals should be.
This is the time for the electrification case. We can all demonstrate this is possible over the next few years. I think confidence in the electricity system as our energy path can remain high. Or this utterly fails, where it’s really hard to imagine governments and businesses making any sincere attempt at a high electrification pathway.
Plus the week’s biggest development fights.
1. LaPorte County, Indiana — If you’re wondering where data centers are still being embraced in the U.S., look no further than the northwest Indiana city of LaPorte.
2. Cumberland County, New Jersey — A broader splashback against AI infrastructure is building in South Jersey.
3. Washington County, Oregon — Hillsboro, a data center hub in Oregon, is turning to a moratorium.
4. Champaign County, Ohio — We’re still watching the slow downfall of solar in Ohio and there’s no sign of it getting any better.
5. Essex County, New York — Man oh man, what’s going on with battery storage in rural pockets of the Empire State?