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With its Orchard One project in Wyoming, Spiritus thinks it can capture carbon from the air for less than $100 per ton.
Pretty much every startup that’s building machines to suck carbon dioxide from the atmosphere and stash it underground has claimed it will be able to get its costs down to less than $100 per ton — eventually.
But a new contender in the race, a San Francisco-based company called Spiritus, is making a compelling case that it could get there faster. On Tuesday, Spiritus announced plans to build its first direct air capture, or “DAC” project in central Wyoming, nicknamed Orchard One. The company will start small but ultimately wants to expand the facility to capture 2 million tons of CO2 per year.
Achieving that scale at the sub-$100 price point would be game-changing for direct air capture, which is still far too expensive to be a viable climate solution. Most companies in the field are cagey about revealing their current costs, but the industry-average price is believed to be between $600 and $1,000 per ton.
So what makes Spiritus different? Here are three reasons we’ll be keeping an eye on the company.
Spiritus’ project will not look anything like the industrial-style shipping containers full of fans that have become the defining form factor for DAC plants. The company’s central innovation is a squishy white ball that founder Charles Cadieu describes as an artificial lung.
“While it looks kind of simple, it's actually a breakthrough material that has an incredible amount of surface area,” he told me over Zoom, while holding one up and squeezing it like a stress relief toy. “And it has holes all over it that allow the CO2 to go right inside.” Though it’s about the size of a tennis ball, its branch-like interior structure has a surface area equivalent to a tennis court, he said.
Courtesy of Spiritus
The ball is made of a proprietary material that selectively attracts CO2 molecules. As air wafts through it, CO2 sticks to its interior surfaces like a magnet. Spiritus will manufacture millions of these balls, lay them out on trays, and stack the trays on tree-like rigs — hence the name Orchard One. Concept images depict a small colony of cylindrical structures that will house the trays, almost like miniature Wilco towers, sprouting up amid the Wyoming sagebrush.
Courtesy of Spiritus
After a few hours exposed to the elements, the balls, which Spiritus prefers to call “fruits,” will be full of carbon. The company will then transfer them to a separate chamber and apply heat, causing them to expel the CO2. That stream of carbon will be compressed and delivered to an underground CO2 storage well, while the fruits will be returned to their towers to live the same day over and over again.
Though the concept is somewhat whimsical, the company is making serious claims about its cost and performance. The biggest expenses for direct air capture projects are materials and energy, and Spiritus has made significant improvements on both fronts. Cadieu told me they can manufacture their sorbent for a tenth of the cost of other, “state of the art sorbents that are out there today,” and that “furthermore, it’s 10 times as effective” at capturing carbon. In other words, Spiritus claims it can capture more carbon from the air at a time, using fewer, cheaper materials than other methods.
Since the capture part of the process is passive, the company doesn’t need to use energy-intensive fans to filter the air. Also, the temperature required for the second step, where heat is applied to the balls to release the CO2, is lower than 212 degrees Fahrenheit — low enough to be generated using electricity. Cadieu said Spiritus plans to procure energy from renewable sources so that the entire process has net-negative greenhouse gas emissions.
Spiritus isn’t the only company with a low-cost sorbent and passive capture method. Notably, the DAC process pioneered by Heirloom, which opened its first commercial-scale plant in California last year, shares those features, but it requires much higher temperatures — 1,650 degree Fahrenheit — to isolate the captured carbon.
Though Spiritus still has to prove this all works as promised in the real world, the company has earned an early vote of confidence from Frontier, the coalition of tech companies with a $1 billion fund to help carbon removal scale. Last year, Frontier paid Spiritus $500,000 to buy its first 713 removal credits, each of which represents a ton of carbon that will be permanently sequestered underground. (The money is more of a development grant than anything indicative of the company’s costs.)
“We look for companies that learn and iterate quickly, and we were impressed by what we saw from Spiritus when they applied,” Joanna Klitzke, the procurement and ecosystem strategy lead at Frontier, told me. “And actually, since then, the team has made really strong improvements and steady progress on both their sorbent and their process performance.”
According to the company’s application for funding from Frontier, Spiritus estimates that for the first phase of Orchard One — when the project is capturing less than 2,000 tons per year — its levelized cost per ton of carbon will be about $149, not including the cost of burying the carbon underground. By phase two, at a scale of about 500,000 tons per year, it expects to get that cost down to less than $100. And by phase three, at the full scale of 2 million tons per year, it expects to achieve sub-$75 capture.
Cadieu told me the company is already in talks with large buyers to purchase carbon removal from Orchard One for “far less” than the per-ton price Frontier paid.
Spiritus doesn’t expect to have phase one of the project up and running until 2026. But it already has a running start. The land lease is locked down, the underground pore space where the company will inject the captured carbon has been identified, and a monitoring well is already scheduled to be drilled — according to its Frontier application.
Wyoming has proved to be a relatively welcoming place for this emerging industry. Orchard One is joining another direct air capture plant already under development in the southwest part of the state called Project Bison. Cadieu gave three reasons the project landed there: There’s a local workforce with relevant experience from the oil and gas industry, the state has the ideal geology to trap the captured carbon underground, and Wyoming has been at the forefront of developing clear regulations for carbon sequestration. It was one of the first states to gain authorization from the Environmental Protection Agency to permit carbon storage wells, and as of December had already permitted three. Another advantage in Wyoming is abundant renewable energy from wind farms.
Spiritus has yet to reveal exactly where in Wyoming Orchard One will be built, but Cadieu told me he has been in close contact with officials at the town, county, and state levels, and that the reception has been enthusiastic. He said the project will create “hundreds of jobs during construction” and “many dozens of jobs” when the facility is operating, and that the company will deliver a portion of its profits back into the community.
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Empire Wind has been spared — but it may be one of the last of its kind in the U.S.
It’s been a week of whiplash for offshore wind.
On Monday, President Trump lifted his stop work order on Empire Wind, an 810-megawatt wind farm under construction south of Long Island that will deliver renewable power into New York’s grid. But by Thursday morning, Republicans in the House of Representatives had passed a budget bill that would scrap the subsidies that make projects like this possible.
The economics of building offshore wind in the U.S., at least during this nascent stage, are “entirely dependent” on tax credits, Marguerite Wells, the executive director of Alliance for Clean Energy New York, told me.
That being said, if the bill gets through the Senate and becomes law, Empire Wind may still be safe. The legislation would significantly narrow the window for projects to qualify for tax credits, requiring them to start construction by the end of this year and be operational by the end of 2028. Equinor, the company behind Empire Wind, maintains that it aims to reach commercial operations as soon as 2027. The four other offshore wind projects that are under construction in the U.S. — Sunrise Wind, also serving New York; Vineyard Wind, serving Massachusetts; Revolution Wind, serving Rhode Island and Connecticut; and Dominion Energy’s project in Virginia — are also expected to be completed before the cutoff.
Together, the five wind farms are expected to generate enough power for roughly 2.5 million homes and avoid more than 9 million tons of carbon emissions each year — similar to shutting down 23 natural gas-fired power plants.
Still, this would represent just a small fraction of the carbon-free energy eastern states are counting on offshore wind to provide. New York, for example, has a statutory goal of getting at least 9 gigawatts of power from the industry. Once Empire and Sunrise are completed, it will have just 1.7 gigawatts.
If the proposed changes to the tax credits are enacted, these five projects may be the last built in the U.S.
That’s not the case for solar farms or onshore wind, Oliver Metcalfe, head of wind research at BloombergNEF told me. They can still compete with fossil fuel generation — especially in the windiest and sunniest areas — without tax credits. That’s especially true in today’s environment of rising demand for power, since these projects have the additional benefit of being quick to build. The downside of losing the tax credits is, of course, that the power will cost marginally more than it otherwise would have.
For offshore wind farms to pencil out, however, states would have to pay a much higher price for the energy they produce. The tax credits knock off about a quarter of the price, Metcalfe said; without them, buyers will be back on the hook. “It’s likely that some either wouldn’t be willing to do that, or would dramatically decrease their ambition around the technology given the potential impacts it could have on ratepayers.”
Part of the reason offshore wind is so expensive is that the industry is still new in the U.S. We lack the supply chains, infrastructure, and experienced workforce built up over time in countries like China and the U.K. that have been able to bring costs down. That’s likely not going to change by the time these five projects are built, as they are all relying on European supply chains.
The Inflation Reduction Act spurred domestic manufacturers to begin developing supply chains to serve the next wave of projects, Wells told me. It gave renewable energy projects a 10-year runway to start construction to be eligible for the tax credits. “It was a long enough time window for companies to really invest, not just in the individual generation projects, but also manufacturing, supply chain, and labor chain,” she said.
Due to Trump’s attacks on the industry, the next wave of projects may not materialize, and those budding supply chains could go bust.
Trump put a freeze on offshore wind permitting and leasing on his first day in office, a move that 17 states are now challenging in court. A handful of projects are already fully permitted, but due to uncertainty around Trump’s tariffs — and now, around whether they’ll have access to the tax credits — they’re at a standstill.
“No one’s willing to back a new offshore wind project in today’s environment because there’s so much uncertainty around the future business case, the future subsidies, the future cost of equipment,” Metcalfe said.
The House budget bill may have kept the 45Q tax credit, but nixing transferability makes it decidedly less useful.
Very few of the Inflation Reduction Act’s tax credits made it through the House’s recently passed budget bill unscathed. One of the apparently lucky ones, however, was the 45Q credit for carbon capture projects. This provides up to $180 per metric ton for direct air capture and $85 for carbon captured from industrial or power facilities, depending on how the CO2 is subsequently sequestered or put to use in products such as low-carbon aviation fuels or building materials. The latest version of the bill doesn’t change that at all.
But while the preservation of 45Q is undoubtedly good news for the increasing number of projects in this space, carbon capture didn’t escape fully intact. One of the main ways the IRA supercharged tax credits was by making them transferable, turning them into an important financing tool for small or early-stage projects that might not make enough money to owe much — or even anything — in taxes. Being able to sell tax credits on the open market has often been the only way for smaller developers to take advantage of the credits. Now, the House bill will eliminate transferability for all projects that begin construction two years after the bill becomes law.
That’s going to make the economics of an already financially unsteady industry even more difficult. “Especially given the early stage of the direct air capture industry, transferability is really key,” Giana Amador, the executive director of an industry group called the Carbon Removal Alliance, told me. “Without transferability, most DAC companies won’t be able to fully capitalize upon 45Q — which, of course, threatens the viability of these projects.”
We’re not talking about just a few projects, either. We’re talking about the vast majority, Jessie Stolark, the executive director of another industry group, the Carbon Capture Coalition, told me. “The initial reaction is that this is really bad, and would actually cut off at the knees the utility of the 45Q tax credit,” Stolark said. Out of over 270 carbon capture projects announced as of today, Stolark estimates that fewer than 10 will be able to begin construction in the two years before transferability ends.
The alternative to easily transferable tax credits is a type of partnership between a project developer and a tax equity investor such as a bank. In this arrangement, investors give project developers cash in exchange for an equity stake in their project and their tax credit benefits. Deals like this are common in the renewable energy industry, but because they’re legally complicated and expensive, they’re not really viable for companies that aren’t bringing in a lot of revenue.
Because carbon capture is a much younger, and thus riskier technology than renewables, “tax equity markets typically require returns of 30% or greater from carbon capture and direct air capture project developers,” Stolark told me. That’s a much higher rate than tax equity partners typically require for wind or solar projects. “That out of the gate significantly diminishes the tax credit's value.” Taken together with inflation and high interest rates, all this means that “far fewer projects will proceed to construction,” Stolark said.
One DAC company I spoke with, Bay Area-based Noya, said that now that transferability is out, it has been exploring the possibility of forming tax equity partnerships. “We’ve definitely talked to banks that might be interested in getting involved in these kinds of things sooner than they would have otherwise gotten involved, due to the strategic nature of being partnered with companies that are growing fast,” Josh Santos, Noya’s CEO, told me.
It would certainly be a surprise to see banks — which are generally quite risk averse — lining up behind these kinds of new and unproven technologies, especially given that carbon capture doesn’t have much of a natural market. While CO2 can be used for some limited industrial purposes — beverage carbonation, sustainable fuels, low-carbon concrete — the only market for true carbon dioxide removal is the voluntary market, in which companies, governments, or individuals offset their own emissions by paying companies to remove carbon from the atmosphere. So if carbon capture is going to become a thriving, lucrative industry, it’s likely going to be heavily dependent on future government incentives, mandates, or purchasing commitments. And that doesn’t seem likely to happen in the U.S. anytime soon.
Noya, which is attempting to deploy its electrically-powered, modular direct air capture units beginning in 2027, is still planning on building domestically, though. As Santos told me, he’s eyeing California and Texas as promising sites for the company’s first projects. And while he said that the repeal of transferability will certainly “make things more complicated,” it is not enough of a setback for the company to look abroad.
“45Q is a big part of why we are focused on the U.S. mainly as our deployment site,” Santos explained. “We’ve looked at places like Iceland and the Middle East and Africa for potential deployment locations, and the tradeoff of losing 45Q in exchange for a cheaper something has to be significant enough for that to make sense,” he told me — something like more cost efficient electricity, permitting or installation costs. Preserving 45Q, he told me, means Noya’s long-term project economics are still “great for what we’re trying to build.”
But if companies can’t weather the short-term headwinds, they’ll never be able to reach the level of scale and profitability that would allow them to leverage the benefits of the 45Q credits directly. For many DAC companies such as Climeworks, which built the industry’s largest facility in Iceland, Amador and Stolark said that the domestic policy environment is causing hesitation around expanding in the U.S.
“We are very much at risk of losing our US leadership position in the industry,” Stolark told me. Meanwhile, she said that Canada, China, and the EU are developing policies that are making them increasingly attractive places to build.
As Amador put it, “I think no matter what these projects will be built, it’s just a question of whether the United States is the most favorable place for them to be deployed.”
House Republicans have bet that nothing bad will happen to America’s economic position or energy supply. The evidence suggests that’s a big risk.
When President Barack Obama signed the Budget Control Act in August of 2011, he did not do so happily. The bill averted the debt ceiling crisis that had threatened to derail his presidency, but it did so at a high cost: It forced Congress either to agree to big near-term deficit cuts, or to accept strict spending limits over the years to come.
It was, as Bloomberg commentator Conor Sen put it this week, the wrong bill for the wrong moment. It suppressed federal spending as America climbed out of the Great Recession, making the early 2010s economic recovery longer than it would have been otherwise. When Trump came into office, he ended the automatic spending limits — and helped to usher in the best labor market that America has seen since the 1990s.
On Thursday, the Republican majority in the House of Representatives passed their megabill — which is dubbed, for now, the “One Big, Beautiful Bill Act” — through the reconciliation process. They did so happily. But much like Obama’s sequestration, this bill is the wrong one for the wrong moment. It would add $3.3 trillion to the federal deficit over the next 10 years. The bill’s next stop is the Senate, where it could change significantly. But if this bill is enacted, it will jack up America’s energy and environmental risks — for relatively little benefit.
It has become somewhat passé for advocates to talk about climate change, as The New York Times observed this week. “We’re no longer talking about the environment,” Chad Farrell, the founder of Encore Renewable Energy, told the paper. “We’re talking dollars and cents.”
Maybe that’s because saying that something “is bad for the climate” only makes it a more appealing target for national Republicans at the moment, who are still reveling in the frisson of their post-Trump victory. But one day the environment will matter again to Americans — and this bill would, in fact, hurt the environment. It will mark a new chapter in American politics: Once, this country had a comprehensive climate law on the books. Then Trump and Republicans junked it.
The Republican megabill will make climate change worse. Within a year or two, the U.S. will be pumping out half a gigaton more carbon pollution per year than it would in a world where the IRA remains on the books, according to energy modelers at Princeton University. Within a decade, it will raise American carbon pollution by a gigaton each year. That is a significant increase. For comparison, the United States is responsible for about 5.2 gigatons of greenhouse gas pollution each year. No matter what happens, American emissions are likely to fall somewhat between now and 2035 — but, still, we are talking about adding at least an extra year’s worth of emissions over the next decade. (Full disclosure: I co-host a podcast, Shift Key, with Jesse Jenkins, the lead author of that Princeton study.)
What does America get for this increase in air pollution? After all, it’s possible to imagine situations where such a surge could bring economic benefits. In this case, though, we don’t get very much at all. Repealing the tax credits will slash $1 trillion from GDP over the next decade, according to the nonpartisan group Energy Innovation. Texas will be particularly hard hit — it could lose up to $100 billion in energy investment. Across the country, household energy costs will rise 2% to 7% by 2035, on top of any normal market-driven volatility, according to the energy research firm the Rhodium Group. The country will become more reliant on foreign oil imports, yet domestic oil production will budge up by less than 1%.
In other words, in exchange for more pollution, Americans will get less economic growth but higher energy costs. The country’s capital stock will be smaller than it would be otherwise, and Americans will work longer hours, according to the Tax Foundation.
But this numbers-driven approach actually understates the risk of repealing the IRA’s tax credits. The House megabill raises two big risks to the economy, as I see it — risks that are moresignificant than the result of any one energy or economic model.
The first is that this bill — its policy changes and its fiscal impact — will represent a double hit to the capacity of America’s energy system. The Inflation Reduction Act’s energy tax credits were designed to lower pollution and reduce energy costs by bringing more zero-carbon electricity supply onto the U.S. power grid. The law didn’t discriminate about what kind of energy it encouraged — it could be solar, geothermal, or nuclear — as long as it met certain emissions thresholds.
This turned out to be an accidentally well-timed intervention in the U.S. energy supply. The advent of artificial intelligence and a spurt of factory building has meant that, in the past few years, U.S. electricity demand has begun to rise for the first time since the 1990s. At the same time, the country’s ability to build new natural gas plants has come under increasing strain. The IRA’s energy tax credits have helped make this situation slightly less harrowing by providing more incentives to boost electricity supply.
Republicans are now trying to remove these tax bonuses in order to finance tax cuts for high-earning households. But removing the IRA alone won’t pay for the tax credits, so they will also have to borrow trillions of dollars. This is already straining bond markets, driving up interest rates for Americans. Indeed, a U.S. Treasury auction earlier this week saw weak demand for $16 billion in bonds, driving stocks and the dollar down while spiking treasury yields.
Higher interest rates will make it more expensive to build any kind of new power plant. At a moment of maximum stress on the grid, the U.S. is going to pull away tax bonuses for new electricity supply and make it more expensive to do any kind of investment in the power system. This will hit wind, solar, and batteries hard; because renewables don’t have to pay for fuel, their cost variability is largely driven by financing. But higher interest rates will also make it harder to build new natural gas plants. Trump’s trade barriers and tariff chaos will further drive up the cost of new energy investment.
Republicans aren’t totally oblivious to this hazard. The House Natural Resource Committee’s permitting reform proposal could reduce some costs of new energy development and encourage greater power capacity — assuming, that is, that the proposal survives the Senate’s byzantine reconciliation rules. But even then, significant risk exists for runaway energy cost chaos. Over the next three years, America’s liquified natural gas export capacity is set to more than double. Trump officials have assumed that America will simply be able to drill for more natural gas to offset a rise in exports, but what if higher interest rates and tariff charges forbid a rise in capacity? A power price shock is not off the table.
So that’s risk No. 1. The second risk is arguably of greater strategic import. As part of their megabill, House Republicans have stripped virtually every demand-side subsidy for electric vehicles from the bill, including a $7,500 tax credit for personal EV purchases. At the same time, Senate Republicans and the Trump administration have gutted state and federal rules meant to encourage electric vehicle sales.
Republicans have kept, for now, some of the supply-side subsidies for manufacturing EVs and batteries. But without the paired demand-side incentives, American EV sales will fall. (The Princeton energy team projects an up to 40% decline in EV sales nationwide.) This will reduce the economic rationale for much of the current buildout in electric vehicle manufacturing and capacity happening across the country — it could potentially put every new EV and battery factory meant to come online after this year out of the money.
This will weaken the country’s economic competitiveness. Batteries are a strategic energy technology, and they will undergird many of the most important general and military technologies of the next several decades. (If you can make an EV, you can make an autonomous drone.) The Trump administration has realized that the United States and its allies need a durable mineral supply chain that can at least parallel China’s. But they seem unwilling to help any of the industries that will actually usethose minerals.
Does this mean that Republicans will kill America’s electric vehicle industry? Not necessarily. But they will dent its growth, strength, and expansion. They will make it weaker and more vulnerable to external interference. And they will increase the risks that the United States simply gives up on ever understanding battery technology and doubles down on internal combustion vehicles — a technology that, like coal-powered naval ships, is destined to lose.
It is, in other words, risky. But that is par for the course for this bill. It is risky to make the power grid so exposed to natural gas price volatility. It is risky to jack up the federal deficit during peacetime for so little gain. It is risky to cede so much demand for U.S.-sourced critical minerals. It is risky to raise interest rates in an era of higher trade barriers, uncertain supply shocks, and geopolitical instability.
This is what worries me most about the Republican megabill: It takes America’s flawed but fixable energy policy and replaces it with, well, a longshot parlay bet that nothing particularly bad will happen anytime soon. Will the Senate take such a bet? Now we find out.
Editor’s note: This story has been updated to correct the units in the sixth paragraph from megatons to gigatons.