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Anu Khan is pushing carbon credits to better serve the public good.

There’s a new player in carbon removal. It’s not another startup building machines to suck carbon from the air. And it’s not another trade association or consulting firm or marketplace peddling carbon removal credits. Instead, it wants to help establish a different system for advancing carbon removal — one where the challenging but important goal of scrubbing CO2 from the atmosphere is treated as a public good and not just a business opportunity.
It’s called the Carbon Removal Standards Initiative, and it’s run by Anu Khan, the former deputy director of science and innovation at Carbon180. CRSI (pronounced like the Lannister queen in Game of Thrones, “Cersei”) is a “financially unconflicted, independent nonprofit,” that will provide technical assistance to policymakers, regulators, and nongovernmental organizations in quantifying carbon removal outcomes.
A group providing technical assistance may not sound like a revolutionary development. But Khan hopes CRSI will be a fulcrum around which the entire industry can begin to pivot.
Today’s carbon removal industry is built on selling credits, each of which is supposed to represent one ton of CO2 pulled out of the atmosphere. But the market is almost entirely self-regulated. The standards for measuring and reporting how much carbon a given project is removing have either been developed by the carbon credit registries that take a cut of the sales or by the developers themselves — in both cases a conflict of interest, even if governed by the best of intentions. Plus, there’s a multitude of standards for every type of project, and they vary in quality.
Take carbon farming, for example. If a farmer alters their practices to increase the carbon stored in their soil, they can choose from more than a dozen standards to quantify the effects. In theory, the standards all produce an identical product — a fungible carbon credit equivalent to one ton of carbon removed from the atmosphere. In reality, they vary widely in quality, with some standards producing more accurate results than others.
In watching this environment develop over the past several years, I’ve often wondered if some independent, unbiased entity might eventually step forward to enact one set of standards to rule them all. Khan told me that about a year and a half ago, she had the same thought. “Oh, to be so young,” she said.
At the time, there was growing concern that the carbon removal industry would suffer from the same credibility issues that plagued the wider market for carbon credits. “You have a multiplicity of these verification entities driven by profit motives, some of which have very loose standards,” Wil Burns, the co-executive director of the Institute for Carbon Removal Law and Policy at American University, told me. “From the standpoint of those purchasing credits or those viewing whether companies are doing anything meaningful, nobody can really distinguish.”
In early 2023, dozens of carbon removal suppliers, buyers, verifiers, academics, and nonprofit staff — including Khan — signed an open letter that now reads like an early draft of CRSI’s missions statement. It called for the creation of “an independent, not-for-profit initiative that conscientiously avoids conflicts of interest and has funding that does not depend on issuing or selling carbon credits.” This new body would “provide a trusted, scientific stamp of approval for CDR protocols through an inclusive process to identify scientific consensus.”
The letter focused on the issues with measuring carbon removal in the context of the voluntary sale of carbon credits. But over the next year, it became clear to Khan that carbon removal won’t reach the scale necessary to make a dent in climate change without government policy. “Even the market enthusiasts recognize that we’re going to need policy as quickly as possible to shore this up,” she said, “and it’s going to be policy, long term, that gets us to gigaton scale.”
So instead of providing “a trusted, scientific stamp of approval” to private businesses, CRSI is laser focused on working with policymakers. It’s not entirely clear yet what that will look like, and it’s likely to evolve as CRSI finds its footing. But the group is launching with a few projects that are already underway. It has created a database of “quantification resources,” which is basically a list of all of the methodologies published by companies, academics, government agencies, and international standards organizations, for measuring different kinds of carbon removal. It also has a database of carbon removal policies, both those enacted and proposed. Eventually, Khan plans to have them link out to each other, so you can see which standards underpin which policies.
Khan wants CRSI to be a go-to resource for policymakers and agency staff to ensure that carbon removal programs actually result in climate benefits. “We are fundamentally a mission organization,” she told me. “We believe that carbon removal is a tool for climate justice. Justice requires accountability, and in carbon removal, that means knowing how to count the carbon. We want to make sure that if we're putting public dollars into these policies, that they are backed by the ability to actually measure the carbon.”
Khan isn’t the only one whose thinking on standards has shifted toward a government-led approach. Burns, who also signed the letter, told me he’s seeing more carbon removal companies pushing for a compliance market, where the government requires polluting businesses to buy carbon removal. “They would like to both have government standards that would provide more confidence, for example, to investors,” he said, “and they would like government mandates that generate more demand.”
Freya Chay is the program lead at the nonprofit Carbon Plan, which spearheaded the letter. She told me many in the industry are now thinking about carbon removal programs that don’t revolve around selling credits at all, and therefore may have very different measurement and verification needs.
One of CRSI’s first projects is an illustrative example. Imagine if the Department of Agriculture developed a program to help farmers restore the pH of soils that have gotten too acidic, by adding basalt — a mineral that also happens to capture CO2 from the atmosphere as it dissolves. Today, carbon removal companies that sell carbon credits based on this process are taking hundreds of soil samples to measure the outcomes. The USDA likely wouldn’t need that level of precision — the captured CO2 is a co-benefit, not the entire point of the program — but “at some point you probably do want to know if you removed carbon through this policy,” said Khan. CRSI is working on figuring out how you would do that.
Similarly, we might see the development of building codes that encourage the use of concrete cured with CO2 from the atmosphere, or waste management regulations that govern the injection of carbon-rich organic waste into underground storage wells. Bigger picture, the U.S. will eventually have to measure and report how much carbon removal it’s doing across all of these little programs as part of its obligation under the Paris Agreement.
In many of these cases, those setting the rules won’t be experts in carbon removal science. “They’re going to need technical expertise,” said Khan. “We want to make sure that when they are doing that work, they have access to all of the relevant information, and that it’s organized in a way that’s legible for the expertise that they already have.”
Shuchi Talati, the former chief of staff in the office of fossil energy and carbon management at the Department of Energy, told me that having this kind of centralized resource would definitely have been useful. “The private sector has a lot of power right now in setting standards because the public sector doesn’t have the capacity,” she said. And since the field is so diverse, efforts are spread across a bunch of different agencies that don’t always talk to each other. Talati sits on the board of CRSI, and for her, the focus on government is not just about helping carbon removal scale.
“If we’re allowing the private sector to set standards and norms — and maybe they’re fine right now — but if we continue to let that happen, I can see the actual climate benefit of CDR slipping away,” Talati said. “That’s really where I see Anu’s organization fit in, where we are trying to set standards and norms from this core, foundational principle of a public good.”
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The Iran war has been a gift to the country’s vehicle, solar, and battery business.
This is Heatmap Daily, a weekday evening digest written by our executive editor.
Happy Monday and welcome back. For months now, we’ve been talking about how the U.S. and Israel’s war in Iran has been a boon for electric vehicles, clean energy, and (unfortunately) coal.
But today we got data that confirms: This clean energy export boom is not just a side story. It is one of the brighter spots in the overall Chinese economy, which remains the world’s second largest.
According to economic data released on Monday, China grew 4.5% during the summer quarter as compared to the quarter from a year earlier. That means the country will likely hit its growth target this year, albeit on the low end.
The country’s economic expansion wasn’t driven by domestic consumption, however. Consumer confidence remains low, and residential investment has yet to return after the property crash earlier this decade.
Instead, booming exports are now driving China’s economy. Exports were more than 36% higher in September than a year earlier, driven by chips, ships, electric vehicles, and solar panels and batteries. The country will likely record its biggest trade surplus ever this year.
Some of those categories are clearly flourishing thanks to the global AI boom — think chips and even batteries. But the preponderance of vehicle exports suggests surging oil prices aren’t hurting. Sales of ‘new energy vehicles,’ a category that includes 100% electric vehicles and plug-in hybrids, were up more than 13% on a year-over-year basis in September, according to the Chinese car manufacturer’s trade group. But exports of these vehicles are booming. Battery electric vehicles were up 130% last month compared to the same period in 2025, and plug-in hybrid exports were up more than 200%.
It’s interesting to consider how much the Chinese and U.S. economy are mirroring each other at this moment. Americans are dealing with a remarkable investment boom, which is buoying the labor market and stubbornly maintaining high inflationary pressure. China is struggling with deflation, and exports are its quickest path to growth. (Consumer sentiment in both countries, interestingly, seems to be in the doldrums, even though American consumers appear to be in much better shape.)
When thinking about what artificial intelligence could do for the United States over the next decade, some subject-matter prognosticators (and even some Anthropic employees) imagine a world of 4%, 5%, or even 7% GDP growth. Such a growth rate is difficult even to envision in the modern era, of course, and it seems like it could propel the U.S. economy to staggering prosperity.
I know better than to make a prediction about where we’re headed. But amateur economic commentators should keep China in mind, too: a country that dominates along many technological axes, but where the standard economic math of supply, demand, and consumer sentiment still holds. Except if the United States economy were to stumble, no exterior source of demand will come to our rescue.
Endurance Energy hoped its generator would run for a full year, but the team isn’t afraid of the “error” in “trial and error.”
About 300 miles off the Oregon coast, a mile beneath the ocean’s surface, a startup just drilled the world’s first subsea geothermal well. And for a grand total of exactly 8.7 seconds, its prototype power plant generated about 2 kilowatts of net power. It wasn’t quite the result the Seattle-based Endurance Energy was hoping for — the company’s goal was to run its 100-kilowatt generator for a full year. But it’s not nothing.
“We really proved with this mission that a geothermal well could be drilled and completed on the seafloor, and doing that within 21 months of the company existing I think is really a testament to our pace of progress,” Endurance CEO Andrew Redd told me.
A former SpaceX engineer — as so many climate tech founders seem to be — Redd appears quite comfortable with the rapid trial-and-error cycles that hard tech startups often demand. Or as he stated in the company’s press release, which provides a refreshingly frank account of what this first test did and didn’t accomplish, “We follow the adage ‘make it exist, then make it good.’”
Investors seem to be buying it. In June, the startup raised a $54 million Series A, led by Peter Thiel’s Founders Fund — Endurance’s second funding round in less than two years of existence. Still, the team certainly has their work cut out for them. The ocean is a notoriously difficult operating environment: Saltwater is corrosive and offshore infrastructure is difficult and expensive to build, maintain, and repair.
Indeed, Endurance spent the first 11 days of its three-week stint at sea debugging its drill, which the team had never operated underwater before. But with a vessel chartered and a locked-in deployment date, the company couldn’t afford to wait for everything to work out perfectly. “We were still working on that generator hours before it got on the seafloor,” Redd told me. He’s used to that sort of thing, though, comparing it to making final tweaks to rockets already sitting on the launchpad. “That’s kind of the name of the game,” he said.
The trial took place at Axial Seamount, an active underwater volcano and the only place in the world with a cluster of hydrothermal vents connected to shore by fiber optic cable, which allows the Endurance team to monitor and control its system in real time from Seattle. While this was the company’s fifth deep-sea mission, it was the team’s first attempt to actually drill their own well.
After lowering their drill about a mile below the surface, the team bored two holes and turned the second into a well about 2 inches wide, lining it with pipe and sealing it with cement. But after losing so much time to debugging, the team only managed to drill about 52 feet deep — far short of its original 200-foot target.
Water then flowed up the well at about 260 degrees Celsius (around 500 degrees Fahrenheit), but the narrow borehole proved too restrictive to deliver enough heat for the generator to operate. So the team pivoted, connecting the generator directly to a naturally flowing, hotter hydrothermal vent instead. The generator then ran for a total of 29 seconds, producing about 2 kilowatts of net power for 8.7 seconds. That represents the total electricity the turbine generated, minus the 7 to 8 kilowatts needed to run its supporting components, such as the refrigerant pump and other onboard equipment.
Then a software glitch triggered the onboard battery safety system, which shut down the plant. When the team tried to restart the system, the power cable feeding the refrigerant pump failed, leaving the pump unable to restart. That was the end of the road. The mission wrapped up after three weeks at sea, a far shorter run than the team had hoped.
“The success criteria would be if we had left with the generator still on the seafloor; that would have been an example of sustained net power, and we didn’t get there,” Redd told me. Instead, the team brought the system back to Endurance’s Seattle headquarters, where it’s fixing the software as well as refurbishing and upgrading the hardware — which includes changing how it builds and tests subsea cables — to prepare for another mission sometime this winter. This time, the goal will be to generate sustained power from a much deeper well.
The team will need to demonstrate progress soon to keep its next major milestone on track: a planned 2-megawatt deployment off the coast of Tonga by the end of 2027. The project aims to supply electricity directly to the Tongan grid, which today is heavily dependent on expensive, imported diesel. Redd expects subsea geothermal to be cost-competitive with that fuel in this first pilot.
Getting there, however, is a formidable engineering challenge. While it’s long been a subject of academic curiosity, no one prior to Endurance had ever drilled an offshore geothermal well before, meaning the team can’t simply transplant existing land-based technology to the seafloor. “Every component that you would use terrestrially now needs to be either modified or built completely from scratch,” Redd explained. “And so you multiply that across every component required to make these kinds of infrastructure projects happen, and it’s a lot of work.”
No kidding. But if Endurance can pull it off, Redd sees this resource as “the perfect energy source for the future.” A conference paper presented by the geoscience company Viridien last year estimates that offshore geothermal resources worldwide could yield about 6 terawatts of recoverable electric power — nearly twice the world’s current continuous electricity output.
“We can access terawatts of power. There’s no fuel. We can site next to extremely large cities around the Pacific. We have no surface presence,” Redd said, ticking off the advantages. Plus, the three necessary ingredients for a high-quality geothermal well — permeable rock, high heat, and water — are widely accessible offshore, he added. Eventually, he expects subsea geothermal to undercut natural gas in Endurance’s target markets: electricity grids, industrial facilities, and data centers across the Pacific Islands, the U.S. West Coast, and Northeast Asia, all of which sit along the undersea volcanic zone known as the “Ring of Fire.”
The way Redd sees it, advances in subsea technology pioneered by the offshore wind, oil, and gas industries have cleared much of the technological path to making underwater geothermal a viable clean energy resource. In his view, what’s been missing is simply the ambition to chase the opportunity in the private market. SpaceX, he said, really proved what’s possible for a scrappy startup to achieve.
“It is quite new at industrial scale for a small company with a bunch of fairly young people to go after something like this,” he told me. “Before SpaceX went to launch a rocket as a private company, no one thought you could get to orbit as a private company. And so that has really seeded this ambition.”
On Greenland’s deepsea mining ban, Indonesia floating nuclear, and a solar boom
Current conditions: Hurricane Trudy has weakened from its peak as a Category 2 storm but still threatens up to 8 inches of rain as it swirls off Baja California • A nor’easter is howling through the Mid-Atlantic this week, hammering the coast with winds of up to 70 miles per hour • A humid overcast has settled over Paris this week as French authorities struggle to regain control after protests over living costs gave way to anarchic riots.
At least 47 major data center projects have been delayed, withdrawn, or blocked so far this year, according to data the regulatory intelligence service RegLayer shared with the Financial Times — and that may be a “conservative estimate.” Just 35% of planned data centers are “credible,” analysts told the newspaper, as more than 1,000 communities across the United States now have restrictions on artificial intelligence infrastructure. The data comes as investors look increasingly jittery about AI following ChatGPT-maker OpenAI’s missing a key revenue metric this year.
Those findings stand in contrast with the numbers from our data service, Heatmap Pro. Based on our research, at least 107 projects faced cancellation so far this year, putting 2026 on track to beat last year, which saw 108 proposals nixed.
Unless you’re living off the grid and away from any social media (if so, I’m jealous), then you can probably surmise that not-in-my-backyard opposition prevails in many such cases against proposed data centers. That makes selling would-be neighbors on the projects critical. New polling by the advocacy group GoodPower found that a binding promise to protect local electricity rates boosts support for the projects upward by as much as 14 points. Such a pledge worked primarily on the 78% of voters who distrust data centers. Another potential winner: Pair a data center with renewables. At least 46% of respondents to the poll said their support would increase if a project were powered by renewables. The survey spoke to 2,610 registered voters last month and oversampled in states with at least 200 data centers completed: Arizona, Georgia, Indiana, Pennsylvania, Texas, and Virginia.
Greenland wants to find ways to exploit its mineral riches in hopes of generating enough income from industries other than fishing and tourism to eventually wean off subsidies from the governments of Denmark and the European Union. Earlier this month, as you may recall, the self-governing Danish island gave a project the green light. But the government in Nuuk doesn’t want miners harvesting metals from the seabed surrounding the Arctic island, which are fertile fishing grounds and could, in theory, lead to mineral production without meaningful infrastructure to create jobs for Greenlandic people. Last week, the Greenlandic Parliament adopted a resolution requiring the government to draft legislation banning deep-sea mining. All members present voted to approve the proposal, according to Sermitsiaq, a leading newspaper in Nuuk. The ban would, if adopted, last until the end of 2029, with the possibility of an extension for two years at a time.
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Long before the race for small modular reactors kicked off, Russia launched a floating nuclear power station and sailed the vessel up to the Arctic to power a small town. Now, as you may recall, the state-owned Russian nuclear company Rosatom is making plans to build more floating nuclear plants, and it has a major nuclear newcomer nation as an offtaker. Last week, NucNet reported, Rosatom announced a deal with Indonesia’s state-owned PT Pembangkit Listrik Nuklir to supply electricity to northern Indonesia from at least two floating nuclear plants with a capacity of 200 megawatts each.

Over the past decade, small-scale and rooftop solar systems increased from 18,812 gigawatt-hours to 92,979 gigawatt-hours, an increase of over 394%. That’s according to a new analysis from the Energy Information Administration, which found that California, Arizona, Texas, Florida are the regions with the most abundant solar resources. Even though the state has worse solar resources in general, New York ranked fifth as a result of growing capacity. Still, the rate of growth in generation has slowed over the past three years. l
The Trump administration is pulling out all the stops for Alaskans who want to drill and transport fossil fuels, mine minerals, and log trees. Now he’s easing rules on hunters. A new final rule from the National Park Service has revived a hunting method the Biden administration banned in 2024: Baiting bears with doughnuts soaked in bacon grease. Hunters use the baits to lure bears to close range before shooting them. “Some hunters prefer to use strong-smelling, high-calorie foods like pastries, doughnuts, meat scraps or fish remains to lure bears from miles away,” The New York Times reported. “But some conservationists say the practice is unethical and risks making the bears accustomed to human food, which could endanger people.”