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In aligning with fossil fuel companies, the administration is deepening skepticism of carbon removal.

For as long as people have been talking about building machines that suck carbon dioxide from the atmosphere, the concept has sparked fierce debate. Would such a tool be used the way that scientists envision — alongside aggressive emission cuts? Or would it be co-opted to prolong dependence on fossil fuels?
Suddenly these questions have become less theoretical. Last month, Carbon Engineering, one of the first companies to actually build a “direct air capture” machine, was acquired by Occidental Petroleum, a fossil fuel company that plans to use the technology to market “net-zero oil.” The Biden administration has also selected Occidental as a potential recipient of one of two major grants, worth up to $600 million each, to build a “DAC hub” in South Texas near Corpus Christi. As part of the same announcement, the Department of Energy gave funding to oil and gas companies in California, Alaska, and Alabama for the early planning stages of additional hubs.
“Cutting back on our carbon emissions alone won’t reverse the growing impacts of climate change," Energy Secretary Jennifer Granholm said in a press release for the DAC hub awards. "We also need to remove the CO2 that we’ve already put in the atmosphere,”
She’s right. The UN’s Intergovernmental Panel on Climate Change says pursuing carbon removal is “unavoidable” if the world hopes to limit warming to safer temperatures — but it will only work if we stop burning so much oil and gas. In handing the reins of this new industry to fossil fuel companies, the administration has confused the message, stoking the mistrust of those already skeptical of the technology, and giving carbon removal projects with no fossil fuel connections a steeper hill to climb to earn support.
It hasn’t helped that Occidental’s CEO, Vicki Hollub, has described DAC as a “license to continue to operate.” Shortly after the Biden administration’s announcement, she told NPR that thanks to this technology, “there’s no reason not to produce oil and gas forever.” When I reached out to Occidental for clarification, a spokesperson denied that the company will use the technology to pump more oil than it otherwise would. He pointed me to another statement from Hollub in 2022 where she said producing net-zero oil was about “just meeting demand,” and that as long as there was demand for oil, it was better to meet it with a lower-carbon product.
But the aforementioned events have invited fierce blowback. On Wednesday, 17 climate and environmental justice organizations sent a letter to Secretary Granholm calling on the DOE to revoke its funding offers to fossil fuel companies. “There may be paths forward for equitable, climate-positive DAC, but they do not look like the one we’re on now,” they wrote.
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Climate advocates and community groups are not just concerned about giving fossil fuel companies a license to keep producing. Their objection is tied to where these projects are being deployed. The DAC hubs are almost all being planned in economically distressed areas that have hosted fossil fuel production for decades. The bipartisan infrastructure law, which funded the hubs, requires that at least two meet those characteristics.
This makes some economic and political sense. If you need to build pipelines to transport CO2 or drill into the ground to store it, this is where the knowhow resides. The requirement is also intended as a way to create new jobs and transition workers in places that might otherwise be devastated by the decline of the oil and gas industry. But since fossil fuel companies have a track record of polluting these areas with cancerous chemicals and fighting regulations, locals worry about the risks of putting new technology into their hands.
These fears are not unfounded. There are different types of direct air capture technology, but many require energy or heat to separate and compress the CO2 after it is collected, which could create additional pollution depending on how it is generated. The compressed carbon may then have to be transported, via pipeline, to its final destination. While CO2 pipelines have a good safety record, a highly publicized accident in Mississippi that hospitalized 45 people has fanned fears of ruptures.
Perhaps the biggest worry is around what happens next. Some companies, including Occidental, inject CO2 into depleted oil fields in an effort to squeeze the last drops out. But DOE-funded hubs will not be permitted to do this. Instead, the compressed CO2 will likely be injected into a saline aquifer, a layer of permeable rock thousands of feet underground, which is capped by an impermeable layer that prevents the CO2 from leaking out.
Some geological storage wells have been storing carbon successfully for decades, but there are only a handful of such sites operating around the world. A recent report to Congress detailing U.S. experience with CO2 injection summarized several potential risks to human health associated with it, including drinking water contamination, leaks, effects on soil health, and earthquakes. However, it also noted that CO2 injection wells have more stringent construction, testing, and monitoring regulations than other types.
In Kern County, California, where three DAC hubs have been proposed, all of this invokes deja vu. Juan Flores, an organizer for the Center on Race, Poverty and the Environment, one of the signatories to Wednesday’s letter, told me it reminds people of fracking, which brought increased risk of respiratory problems, cancer, preterm birth, and psychological stress to the area. “They experimented with our communities, they denied the new dangers for many years,” he said. “Now our community members are saying, ‘this again?’”
The DOE hubs program required companies to submit a plan for providing community benefits when they applied for funding. But in Kern County, oil and gas companies have squandered their goodwill, Dan Ress, a staff attorney at the Center told me. For example, the California Resources Corporation, an oil and gas company that won an $11 million DOE grant to do an engineering study for a hub in Kern County, recently supported a multi-million dollar campaign to repeal hard-won regulations banning oil drilling next to homes and schools. “This is the same company saying, oh yeah, we want to be good neighbors and do great community benefits? Absolutely not, get out of here,” said Ress.
The feeling of being the unwitting subjects of an experiment also came up in my conversation with Roishetta Ozane, a community organizer in Lake Charles, Louisiana. That’s where another DAC hub called Project Cypress, which could receive up to $600 million from the DOE, is under development. “We don't want to be guinea pigs for something that's never been tried and tested before on this scale,” Ozane told me.
Ozane is the director of the Vessel Project, a grassroots group supporting the needs of black, indigenous, people of color, and low income people in an industrial city where petrochemical production has dramatically expanded over the past decade. (The group was not a signatory on the letter.) She said Lakes Charles is overburdened with pollution and still recovering from a spate of destructive hurricanes in 2020. “We're saying, hey, you might be right. These DAC hubs might work. But why are you testing it in our community?”
There are no fossil fuel companies involved in Project Cypress. But that does not give Ozane any peace of mind. She worries it would “open the floodgates” for companies to keep releasing toxic emissions into the area, as long as they pay someone to pull carbon out of the air afterward.
Multiple people I spoke with in Louisiana and Texas also brought up a history of local officials giving heavy industry a free pass on pollution and major tax breaks. Why should they believe that the DAC hubs will be any better regulated or bring in much-needed revenue?
But local attitudes along the Gulf Coast are varied and complex. Prior to the hubs announcement, Data for Progress, a polling and research non-profit that spearheaded Wednesday’s letter, held a series of focus groups about DAC in Louisiana and Texas. One key finding, Celina Scott-Buechler, a senior fellow who led the research, told me, was that there was a tension between concerns like Ozane’s, and an awareness that fossil fuel companies historically have been the primary sources of good jobs in these communities.
“I think people make a calculated risk decision,” one focus group participant in Lake Charles said. “They're like, oh, so I could be around these chemicals that could have a long-term effect. I may not see them for the next 20, 30 years, but if it's going to take care of my family and give my family a nice home and a good vehicle to drive, then I'll work tirelessly to provide that for my family. But I may die at 65.”
Another stressed that there was a “big need for jobs” and that “sometimes people's need for employment overshadows whether it's good for the environment or not.”
Patrick Nye, who lives in the Corpus Christi area near where Occidental is building its South Texas hub, embodies this tension. Nye owns an energy company that produces oil and generates wind power, but he also runs an environmental group that’s fighting the local expansion of liquified natural gas export facilities and proposed seawater desalination projects. When I asked about his oil business, he said he didn’t have the heart to let his employees go and puts his profits toward his activism.
Nye is skeptical that direct air capture will work, but he thinks it’s worth trying. “If this works, this may help save the planet,” he said. He also sees a lot of potential opportunities flowing to the local university and its graduates. And he thinks the hub will be far enough away from where people live that if things go wrong, few will be impacted. Occidental is building its hub in a largely undeveloped area about 45 miles south of Corpus Christi on King Ranch, the largest private ranch in the country.
At the same time, he’s worried local officials will just rubber stamp the project without proper study. “King Ranch is really well known, they're very politically positioned,” he said. “They have a lot of clout to get this thing done, and it has to be looked at with a very fine tooth comb.”
In addition to requesting DOE withdraw grants for fossil fuel companies, the letter sent Wednesday makes a pitch for how the agency can roll out the DAC hubs program more equitably. The authors propose that projects in areas with extractive industries be co-created or co-owned by communities, actively work to reduce local pollution, have rigorous data transparency, and that locals should have the right to refuse them. They also want community benefits plans to be legally binding, with consequences if companies fail to comply.
All these requirements might sound unfair to companies who are just trying to tackle climate change and make a better world, Scott-Buechler acknowledged. “The question that I ask is, a better world for whom?”
I asked her what it would look like in practice for a community to co-own a DAC hub, considering these are first-of-a-kind projects that are incredibly expensive and financially risky. Would communities be taking on those risks?
This was something that Data for Progress and other groups were still studying, she said, looking at possibilities like having the project held in public trust, or replicating the solar cooperative model. She recognizes that not all communities will be interested in ownership, but thinks it should be an option.
When I asked the DOE how it defends the choice to support fossil fuel company-led projects, a spokesperson told me the agency is “leveraging these companies' significant expertise in managing large energy infrastructure projects and applying this experience to developing DAC projects that are cost-effective, efficient, equitable, and environmentally responsible.”
She also emphasized that Occidental and Project Cypress have only been selected for “award negotiation” and not “officially” awarded yet. “If projects are awarded, DOE and the awardee will have frequent, meaningful engagement with the impacted local community and impacted workers throughout the lifecycle of the project,” she said.
Meanwhile, the agency has also launched a public process to develop a set of safety, environmental stewardship, accountability, and community engagement guidelines for all carbon management projects that it will encourage project developers to (voluntarily) abide by.
But the Biden administration seems eager to support Occidental in its pursuit of direct air capture and encourage more oil and gas companies to follow its lead. During a carbon capture conference last year, Secretary Granholm applauded Oxy’s CEO Vicki Hollub for investing in carbon removal, saying this reflects “exactly the kind of bold thinking we need more of.” Earlier this year, she told a room of oil and gas executives, “We need the energy sector stepping up … few are better positioned to crack open cost-effective carbon management.”
The debate over whether direct air capture is a moral hazard is likely to rage on long after these projects are up and running. But the money is going out the door now. “This is something that is not just coming anymore, it's here,” said Scott Buechler. “Is there a collective vision for what might be able to come next?”
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A handful of startups are promising better, cheaper, safer water purification tech.
The need for desalination has long been clear in water-scarce regions of the planet. But with roughly a quarter of the global population now facing extreme water stress and drought conditions only projected to intensify, the technology is becoming an increasingly necessary tool for survival in a wider array of geographies.
Typically, scaling up desalination infrastructure has meant building costly, energy-intensive coastal plants that rely on a process called reverse osmosis, which involves pushing seawater through semi-permeable membranes that block salt and other contaminants, leaving only fresh water behind. Now, however, a number of startups are attempting to rework that model, with solutions that range from subsea facilities to portable desalination devices for individuals and families.
They could find potential customers across the globe. Many countries in the Middle East — including Saudi Arabia, Israel, Bahrain, Kuwait, and Qatar — rely on desalination for the bulk of their municipal water. Meanwhile, drought-prone regions from Australia to the Caribbean and California have also turned to the technology to shore up supply. But as the Iran war has underscored, this vital infrastructure is increasingly being treated as a military target, exposing a significant vulnerability in a resource relied upon by hundreds of millions.
One more resilient alternative is to move the plants underwater — making them more difficult to target while also harnessing subsurface pressure to do some of the energy-intensive work of desalination.
“I came up with the idea of using natural pressure to run the process,” Robert Bergstrom, a veteran of the water industry and CEO of the desalination startup OceanWell, told me. That meant “putting the membranes in a place where it’s already 800 pounds [of pressure] per square inch” — e.g. inside pods on the ocean floor, each capable of producing 1 million gallons of freshwater daily. By using the natural pressure of the ocean to drive the reverse osmosis process, this approach cuts energy use by about 40%, he said, thus slashing the system’s largest operating cost: electricity.
OceanWell’s design maintains a lower internal pressure within each pod than the surrounding environment, causing seawater to flow passively inside and push through membranes — just like on land, but without the high-pressure pumps. Compact pumps inside the pods then push the freshwater up a pipeline to the shore, while the resulting brine dissipates in the deep ocean.
The method also helps solve another problem with conventional desalination: environmental impact. Today’s facilities typically produce a more concentrated brine that they discharge at the ocean’s surface, which is more disruptive to marine ecosystems. The plants also frequently cause damage to organisms large and small by either trapping them against water intake screens or pulling them into the plant itself. That’s been a big sticking point when it comes to permitting these facilities, especially in California where the startup is based. OceanWell’s system, Bergstrom said, is able to filter out larger organisms while allowing microscopic ones to pass through the pods and return to the ocean.
The company began a trial last year in partnership with Las Virgenes Municipal Water District in southern California, testing its system in a freshwater reservoir full of marine life to verify its safety. Next it will test its pods in the ocean before undertaking a pilot in a to-be-determined location — California, Hawaii, and Nice in southern France are all contenders. If all goes according to plan, OceanWell will follow that up with a full-fledged commercial system targeted for 2030.
But it’s not the only startup pursuing underwater desalination — or even the one with the most aggressive timeline. Two years ago, Norwegian startup Flocean spun out of the subsea pump specialist FSubsea with a similar technical approach and a plan to deploy its first commercial system off Norway’s western coast this year. Flocean has already logged over a year of testing in the deep ocean, a stage OceanWell has yet to reach.
OceanWell thinks it can differentiate itself by meeting the unusually stringent permitting required in California. “If we can get it done in California, then the rest of the world will follow,” Bergstrom told me, meaning more resilient, more energy-efficient freshwater infrastructure for all. But it’s a high bar. The last major effort to build a desalination facility in the state led to a long-running fight that ended in 2022 with a rejection. Over 100 groups opposed the facility proposed for Orange County, citing risks to marine life, as well as high energy requirements and costs, with many arguing that alternatives — such as conservation and wastewater treatment — would be more superior options.
Megan Mauter, an associate professor of civil engineering at Stanford, thinks the groups may have a point, especially when it comes to overall system costs. The high capex of desalination can be hard to justify in California, she told me, since the state doesn’t need it 100% of the time, only in bad drought years. For example, just a few weeks ago, The Wall Street Journal reported that San Diego County’s desalination plant, by far the largest in California, now has a surplus of desalinated water that it’s looking to sell to drought-ridden Western states such as Nevada and Arizona.
And while desalination startups purport to cut overall system costs, she has her doubts about that. “The energy savings that they’re going to get are offset by some pretty high increased costs of the other elements of their plant designs,” Mauter told me. “In a subsea system, you’ve got these unproven and not mass-manufactured skids. You’ve got subsea installation, and then mooring it, and putting in pipelines that you’ve got to maintain all the way to land. You’ve got to convey water back to shore, which takes energy, and you are going to have significantly higher maintenance burdens in an open ocean environment.”
Despite her reservations, she certainly sees the appeal of non-traditional water sources, “even at costs that would have been totally infeasible a decade ago.” Municipal planners are staring down a future of worsening drought at the same time that states in the Colorado River basin remain locked in contentious negotiations over water rights, debating how to allocate cuts as river flows have declined nearly 20% since 2000. California’s narrow continental shelf also makes it an ideal environment for subsea desalination, as having deep water close to shore allows the system to harness pressure depths while minimizing the length of the pipeline needed to transport freshwater to land. Norway is also favored in this way.
“I don’t know whether the cost gaps can be solved, but I bet that the technology gaps could be solved,” Mauter told me.
Ultimately, she thinks the binding constraint is likely to be regulatory rather than technical. “Permitting is going to be a nightmare unless something fundamentally changes,” she said. Bergstrom told me that OceanWell is currently working with the California State Water Resources Control Board to revise its rules that govern desalination facilities in order to account for new technologies, though how long that process will take is anyone’s guess.
There’s one idea emerging in this ecosystem that largely sidesteps the regulatory constraints that control our land and seas. The startup Vital Lyfe has developed a portable desalination unit roughly the size of a small cooler that allows individuals and households to produce freshwater on demand with reverse osmosis — effectively decentralizing the desalination industry in the same way that the startup’s founders, former SpaceX engineers, helped decentralize internet infrastructure with Starlink.
“We’ve seen this paradigm shift coming out of Starlink that traditional, large, centralized, systems are very expensive,” Vital Lyfe CEO Jon Criss told me. “They’re hard to deploy and hard to scale up when you really need them.”
After raising a $24 million seed round in December, the startup launched its first product a few weeks ago, which retails for $750. At that price point, it’s a great deal for sailors spending days or weeks at sea, but likely too expensive for the individuals in remote communities far from water infrastructure that might need it most. Criss’s goal is to quickly iterate on this first product to bring more affordable models to the market in short order.
Portable desalination devices aren’t anything new in and of themselves — they’ve been used in military, maritime, and humanitarian scenarios for decades. The startup’s breakthrough, Criss explained, is more about manufacturing efficiency than technology. “We went all the way back, looked at why every component was designed and how to redesign it for high rate manufacturing. So we were able to substantially drop the cost of ownership and operation of these things.”
You’ll soon find Vital Lyfe’s product in big box retail stores, Criss said, though he also aims to partner with large-scale desalination facilities and utilities to help boost their output. Either way, the startup is already generating buzz — it’s seen significant inbound interest as of late, as the inherent resilience of its small system stands in sharp contrast to the vulnerability of conventional desalination infrastructure now being targeted in the Middle East.
The company is scaling up to meet the moment, building out a facility in Los Angeles county that Criss said will eventually produce 120 portable units per hour. He’s aiming to start production by summer’s end, ramping to full capacity by October. “Within the next three years we plan to account for about 10% of total membrane production at Vital Lyfe alone,” he told me, referring specifically to the production for the desalination industry.
The future of the industry, of course, could look like any combination of all of these approaches — portable devices, conventional plants on land, and modular systems at sea. What seems certain is that as the globe continues to heat up, so will desalination tech.
Why local governments are getting an earful about “infrasound”
As the data center boom pressures counties, cities, and towns into fights over noise, the trickiest tone local officials are starting to hear complaints about is one they can’t even hear – a low-frequency rumble known as infrasound.
Infrasound is a phenomenon best described as sounds so low, they’re inaudible. These are the sorts of vibrations and pressure at the heart of earthquakes and volcanic activity. Infrasound can be anything from the waves shot out from a sonic boom or an explosion to very minute changes in air pressure around HVAC systems or refrigerators.
Knowing some of these facilities also have the capacity to produce significant audible noise, growing segments of the population’s more tech-skeptical and health-anxious corners are fretting some data centers could be making a lot of infrasound, too. The whizzing of so many large computational machines combined with cooling fans and other large devices creating so many new columns of air flow. Add onto that any rotational onsite power generation – think natural gas turbines, for example – and you get quite a lot of movement that could potentially produce what they say is infrasound.
Some of the virality of this chatter about infrasound and data centers comes from a video about infrasound created by audio engineer and researcher Benn Jordan. Currently sitting at more than 1 million views, this short YouTube film documents claims that some data centers are operating like “acoustic weapons” through infrasound and harming people. Andy Masley, an “effective altruist” writer, has become the chief critic of the Jordan video, getting into a back-and-forth that’s raised the issue to Internet discourse territory.
The Jordan-Masley infrasound debate is honestly a bit of a mess. So I want to be clear: I’m not going to get into the science of whether or not infrasound poses any kind of public health risk in this article. We can get to that later. It’s worth saying that this subject may need more study and that work is ongoing. Also, talking about infrasound at all can make you honestly sound a little wacky (see: this study blaming people seeing ghosts on infrasound). It might also remind you of another panic in the Electric Age: electromagnetic fields, also known as EMFs. Developers of transmission lines and solar projects have long had to deal with people worried about transmission lines and large electrical equipment potentially glowing with invisible, unhealthy radiation.
In late 2024, I wrote about how an RFK Jr. supporter worried about this form of electrical emission was helping lead the fight against a transmission line in New Jersey for offshore wind. Maybe that’s why it didn’t surprise me one bit when the Health and Human Services secretary himself told a U.S. Senate Committee last week that he was asking the Surgeon General’s office to “do either meta reviews” or “base studies” on noise pollution and EMF radiation from data centers “so we can better inform the American public.”
“There’s a range of injuries that are very, very well documented. They’re neurological – very, very grave neurological injuries, cancer risk,” Kennedy Jr. told the Senate Health, Education, Labor and Pensions Committee on April 22 in response to a request from Sen. Josh Hawley of Missouri to study the issue. “The risks, to me, are tremendous.”
There’s also the unfortunate reality that infrasound impacts have previously been a cudgel to slow down renewable energy deployment. Wind turbines create infrasound because of the subharmonic frequencies created when one turbine rotates at a slightly different pace than another, producing a slightly dissonant low frequency noise. Groups like the Heartland Institute proudly list this infrasound as one of the reasons wind energy “menaces man and nature.”
But regardless of merit, this concern is already impacting local government decisions around data center projects, much like how one Michigan county sought to restrict solar energy on the same basis.
In February Adrian Shelley, the Texas director for environmental group Public Citizen, implored the city of Red Rock to study changing their noise ordinance to take into account infrasound. “It has effects on sleep patterns, on stress, on cardiovascular health, and it is potentially a very serious concern,” Shelley said at a February 11 city council discussion on data center rules. “It will not be covered by the city’s noise ordinance, which only deals with audible sound.”
Earlier this month in Calvert County, Maryland, a volunteer for their environmental commission recently told the county government that infrasound needs to be factored into their future data center planning. “It will have significant impacts on our region and the Chesapeake and the Patuxent because infrasound isn’t stopped by walls,” commission member Janette Wysocki, a proud land conservationist, said at an April 15 hearing. “It will keep going, it will move through anything. It’s a very long wavelength. So we need to protect our ecosystem.” Wysocki implored the county to consider whether to adjust its noise regulations.
Around the same time, similar concerns were raised in Lebanon, a small city in east-central Pennsylvania. “It permeates through concrete walls, it permeates through the ground,” Thomas Dompier, an associate professor at Lebanon Valley College, said at an April 16 Lebanon County commission hearing on data centers.
Lastly, last week I explained how Loudon County wants to rethink its noise ordinance to deal with low-frequency “hums” from data centers – a concern echoing those who fret infrasound.
Ethan Bourdeau, executive director of standards at Quiet Parks Intentional and a career acoustician and building standards writer, told me that what makes data centers unique is the “constant drone” of noise that could potentially carry subharmonic frequencies. Bourdeau said cities or counties could possibly factor concerns about infrasound into noise ordinances to address those who are most concerned. One way they could do it is by changing how decibels are weighted in the government’s measurements. A-weighting decibel meters are a common form of sound measurement geared toward perceptible noise. Using different systems, like C-weighting or G-weighting, would avoid ways that A-weighting can filter out sub-hearing frequencies.
“These are reporting and weighting systems where a sound level meter taking background noise receives all the unweighted sound and then you apply all these filters afterwards, like an EQ curve,” Bourdeau said.
So I guess if those most concerned about infrasound have their way, a lot of country commissioners and local elected leaders will be heading to the mixing booth.
And more on the week’s top fights around project development.
1. King County, Washington – The Moss Landing battery backlash is alive and well more than a year after the fiery disaster, fomenting an opposition stampede that threatens to delay a massive energy storage project two dozen miles east of Seattle.
2. Prince Williams County, Virginia – It was a big week for data center troubles. Let’s start with Data Center Alley, which started to show cracks this week as data center developer Compass announced it was pulling out of the controversial Digital Gateway mega-project.
3. Washtenaw County, Michigan – Turning to Michigan, real estate firm Sansone abandoned plans to purchase land owned by Toyota to build a hyperscale data center campus after the local township instituted a 6-month moratoria.
4. Okeechobee County, Florida – The backlash to data centers is killing projects in deep-red Florida too, as this county’s commission decides to kill a 205-acre prospective data center campus led by a state college.
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