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That means it’s also buying natural gas — but by storing the emissions, the company says, it can still meet its climate goals.

Google is buying gas. The hyperscale tech company — which invented the power purchase agreement as a way to support renewables development in the 2010s and has been a leader in setting standards for and procuring renewable power — announced on Thursday that it is agreeing to buy the majority of the power generated by a planned natural gas-fired plant in Decatur, Illinois. Here’s the twist: The plant will also capture and store its carbon emissions, a first of its kind installation at commercial scale.
The Broadwing Energy Center will be developed by Low Carbon Infrastructure on a site owned by agribusiness giant ADM. The facility features an existing ethanol plant with carbon capture and storage nearby, including the Class VI wells necessary for carbon dioxide sequestration. The plant will provide 400 megawatts of power, as well as steam for the ADM facility.
“We’re going to work with LCI to hopefully have it all up and running by early 2030,” Michael Terrell, Google’s head of advanced energy, told me.
While CCS has not yet been developed at anything like a commercial scale, it is already both a bogeyman and a panacea in the decarbonization debate — or as my colleague Emily Pontecorvo has called it, “an oil exec’s fantasy, an environmentalist’s nightmare, and an energy expert’s object of fascination.”
Natural gas with CCS promises the dispatchability of natural gas — power produced exactly when and in the exact amounts the grid needs — without the greenhouse emissions of traditional gas plants. The problem is that the technology is expensive, meaning that its development has largely been seen to depend on emissions regulations that would essentially force generators to build or install CCS.
Those regulations were finalized during the final year of Biden’s presidency and, unsurprisingly, are no longer happening. That leaves the private sector to bear the cost and technological uncertainty of CCS development, with little obvious financial incentive to do so.
While this is Google’s first gas deal, it is not entirely unexpected. Google hit its initial goal of matching its worldwide energy consumption with renewable energy generation on an annual basis in 2017, upgrading that goal in 2020 to aim at generating clean power on a 24/7 basis in the same area that its energy consumption occurs by 2030.
This meant going beyond wind and solar and procuring power from generators that worked in all weather and at night.
In the same 2020 whitepaper where Google set out its hourly matching goal, it specifically mentioned CCS as one of “a number of emergent technologies” that “appear to be making good progress.”
In another 2023 whitepaper, Google affirmed its commitment to clean firm technology beyond wind and solar, adding that “we must also develop and commercialize new technologies to fully decarbonize electricity systems quickly and cost-effectively while maintaining reliability.” Once again it called out “power generation with carbon capture and storage” by name.
Since then Google has struck a number of deals to support clean firm development, including a development agreement with the advanced nuclear company Kairos and a “clean transition tariff” agreement with utility NV Energy to pay for geothermal power in Nevada produced by the enhanced geothermal company Fervo.
But carbon capture and storage remained in the picture as something that would be key for Google to meet its goals. “We set 24/7 carbon free energy as our North Star,” Terrell told me. “The other critical piece to that is CCS.”
At the same time, Google — and the rest of the technology industry — has been on a data center building spree, moving as fast as it can to put up bigger data centers that turn electricity into artificial intelligence. This has meant rising power usage and emissions. In 2024, Google reported that its emissions had gone up almost 50% over the previous five years, following a similar announcement from Microsoft.
“We’re still committed to those goals. They’re extremely ambitious, and we’ve never been shy about sharing that. 24/7 carbon free energy is a moonshot, but we are pushing very, very hard,” Terrell said.
The turn to CCS is not just driven by the advantages gas has over renewables — namely dispatchability — but also by the current political environment.
Google has a long track record of buying the output from renewables projects, including wind, in the broader Midcontinent Independent System Operator grid, where the Decatur project sits. But on a national basis, Terrell noted, “we’re seeing headwinds in the market due to policy changes” for renewables.
Solar and wind have now lost some of the incentives that spurred huge growth in both sectors in recent years, while projects that can pass the regulatory gauntlet have to linger in interconnection queues to get approved by electricity markets and often require transmission that can be expensive and challenging to build. The Trump administration has specifically targeted renewables — especially wind — for regulatory scrutiny, which will likely hinder renewable development in MISO, which gets 15% of its power from wind — far more than from solar, and about comparable with its nuclear generation.
“The markets are tough because of some of the changes in policy, interconnection rules, and lack of transmission,” Terrell said. “That’s certainly affecting our ability to procure with speed and scale.”
Google and LCI claim that the Broadwing plant will be able to capture and store over 90% of its carbon dioxide emissions.
The project started, LCI chief executive Jonathan Wiens told me, in 2020, primarily as an industrial decarbonization project to provide low-emissions steam to ADM for its food processing efforts, with the rest of the power going to the grid.“In the midst of this development,” Wiens said, “there were data centers that were 40 megawatts. Now they’re aspiring to be a gigawatt-plus, and it’s totally changed the power end of this.”
Of Google, he said, “they put their money where their mouth is and they’re willing to participate in a project.”
Both Terrell and Wiens confirmed that Google wanted to work with LCI beyond developing and purchasing power from the Broadwing facility. “It’s not just this one plant,” Wiens said. “It’s a much broader approach to deploying this in as many places as we can.”
Google did not disclose the terms of the PPA, but Terrell said, “We believe that CCS can be competitive at scale with other generation technologies, and certainly other low carbon or zero carbon generation technologies.”
Over time, he added, LCI and Google should be able to drive down prices as they work on more power plants. “That’s certainly something that we’re hoping to do.”
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Not going to lie, I didn’t see this coming.
Tesla just finished its strongest showing in years. In the second quarter of 2026, the company sold about 480,000 vehicles around the world — well over stock market projections of about 400,000 EVs. Tesla’s sales mark a full 25% year-over-year increase from the second quarter of last year.
If you’re surprised by this news, you’re not alone. Sales of Elon Musk’s EVs had been trending downward over the past few years following a series of self-inflicted wounds. The Cybertruck was a bomb. Tesla appeared to be interested only in building the self-driving cars and autonomous robots of the future, not the electric vehicles of today. Musk’s associations with President Trump and off-putting online politics alienated potential customers everywhere.
Yet here we are. So what happened?
European gas prices, for one thing. Tesla sales actually continued to fall in the U.S., where the electric car market as a whole still hasn’t recovered from tariffs confusion, the loss of federal subsidies, and other chaotic conditions over the past year. Tesla’s rally came instead from China and, interestingly, Europe: Registrations rose 39% in Denmark, 56% in Sweden, and 43% in Portugal and Italy.
It wasn’t so long ago that Musk’s politics had reportedly cratered interest in his cars in those countries. But European gas prices, which are typically much higher than those in the U.S., have also soared because of oil shocks related to the Iran War. EV interest, then, is up — so high that lots of buyers are willing to look past the personality of Tesla’s chief. (It doesn’t hurt that Tesla introduced less-expensive versions of both Model 3 and Model Y, with remarkably cheap leases and loans, to Europe this year to help overcome its struggles there.)
In China, meanwhile, Tesla has had something else up its sleeve to buoy sales. We’ve repeatedly noted the contraction of the company’s EV lineup: With the failure of the Cybertruck as well as the outright cancellation of the older and slow-selling Model S and Model X — the electric cars that pushed Tesla into the mainstream in the 2010s — the brand gets nearly all of its sales (more than 97% in Q2) from just two cars, the Model 3 sedan and Model Y crossover. And there are no signs it has an all-new mass-market car coming soon.
Instead, Tesla cobbled one together by making a new version of an existing car. In China, Musk has been selling the Model Y L, a version of his crossover with its platform stretched out by 6 inches to cram in an extra row of seats. (Tesla has offered a seven-seat version of its ordinary Model Y, but the two little seats in the back had just 25 inches of legroom compared to the 31 inches in this new version.) As a three-row SUV, the longer Model Y lets Tesla compete in a space that it vacated when it killed off the giant, expensive, gullwing-doored Model X. And as of last week, Model Y L is available in the U.S. Tesla hopes the vehicle can lead to a reversal of its sinking fortunes here, where its EV sales shrank by 20% in the second quarter.
Truthfully, the car is a bit of a kluge. Rear seats often require a compromise on comfort and space. In the case of the Model Y L, Jalopnik notes that even with the 6 inches added to the wheelbase, Tesla’s signature sloping roof doesn’t leave much headroom for the occupants of the way-back. Boxier EVs that were built to be three rows to begin with, like the Hyundai Ioniq 9, Kia EV9, and Rivian R1S, are more pleasant for the fifth and sixth passengers. Nevertheless, those who wanted a bigger Tesla at a starting price of around $60,000 can now get one, and that counts.
Model Y L is also a testament to the power of the platform. Yes, building a new vehicle from the ground up would have provided Tesla with a better all-around vehicle than what it got by hacking the Model Y. But the modified Model Y was much faster and cheaper to deliver, providing an entry into a popular segment of the car market just at the moment Tesla needed to right the ship.
Doing more with less, like creating a three-row EV on the platform of your two-row car, looks primed to become a big part of the future of electric vehicles. That’s particularly true when it comes to growing adoption in America, where legacy automakers and startups alike are trying to simplify manufacturing to bring down costs. The solution to get to market for a company like Honda was simply to borrow General Motors’ EV platform and build its first EV on top of it. Rivian has said it has no plans to sell a pickup truck on its new R2 platform the way it has with its original vehicle, but it absolutely could — and arguably should — if market conditions suddenly made such an EV pickup a hot item.
On half-full glasses, Omani polysilicon, and U.S. vs. Chinese nuclear
Current conditions: Guam and the Northern Mariana Islands are carrying out damage assessments after Super Typhoon Bavi made landfall Monday as the equivalent of a Category 5 hurricane • A wildfire has scorched more than 11,000 acres in the French Pyrenees, forcing thousands to evacuate • Heavy rain from Typhoon Maysak has killed at least 15 people in China this week.
The governors of 11 states across the American West signed onto a pact to speed up permitting and increase coordination on the regional electrical grid. The agreement, brokered at the Western Governors’ Association’s annual meeting last week, unites Arizona, Colorado, Idaho, Montana, Nevada, New Mexico, North Dakota, Oregon, Utah, Washington, and Wyoming behind the Western Transmission Expansion Coalition, or WestTEC. The interstate effort to build out the grid across America’s western half published a study in February that found the region needed 12,600 miles of new transmission lines over the next decade, at a cost of roughly $60 billion. Even the energy adviser to Utah Governor Spencer Cox — a Republican who has positioned himself as a vocal champion of “fiscal responsibility” — called the investment “just common sense” for the West. “Getting energy to where it’s needed, when it’s needed, is just as important as generating it in the first place,” Emy Lesofski, who also serves as the director of the Utah Office of Energy Development, said in a statement. “Think of the grid like the roads and highways connecting our communities — it doesn’t matter how much is produced if you can’t move it to where people actually live and work.”
It’s a sign, perhaps, of the counterintuitive but optimistic conclusion of a new study by the Massachusetts Institute of Technology Center for Energy and Environmental Policy Research. Entitled “Glass Half Full,” the report — which my colleague Robinson Meyer published as an exclusive — compared the tax and spending laws passed under the Biden and Trump administrations and also analyzed each administration’s environmental rules. The analysis concludes that 74% of new clean energy capacity that would have gotten built under the Biden administration’s policy by 2035 will still get built under Trump’s policies by that same year. Those new renewables and nuclear plants will generate about 71% of the electricity that would have been expected had Biden’s policies remained law. Roughly 67% of the climate pollution that would have fallen under Biden’s policies will still drop under the trajectory Trump set. “The glass is substantially full,” Lily Bermel, the report’s author and a visiting fellow at the Columbia Center on Global Energy Policy, told Rob. “It’s not barely half full. It’s like three-quarters full.”
The U.S. grid needs to increase its supply of reliable electricity as quickly as possible. But regulators are stretched so thin racing to approve new projects that they can’t risk diverting attention to fast track last-minute design changes to a $2 billion gas-fired plant in the nation’s largest and arguably most stressed grid system. On Monday, Utility Dive reported that the Federal Energy Regulatory Commission decided last week to reject a request for a waiver to allow Advanced Power Services’ Chestnut Run project in eastern Ohio to hook up to the PJM Interconnection system while bypassing certain rules. PJM included the plant — the parent company of which is ArcLight Capital Partners, which in turn sold itself in May to the data center developer DigitalBridge for $1.1 billion — in the initial 51 projects designated under the Reliability Resource Initiative, a program to fast-track roughly 12 gigawatts of additional generation from new and existing power stations.
In a dynamic that echoes what went wrong with Westinghouse’s buildout of two AP1000s at Southern Company’s Plant Vogtle, the process for the program barred any changes to a project’s size and capacity in its interconnection rights. With gas turbines in short order, Advanced Power couldn’t get critical equipment. The Boston-based independent power producer told FERC it had found alternative turbines, but that the new units would change the plant’s configuration, shaving off a modest 55 megawatts from its maximum output of more than 1.2 gigawatts of electricity. It’s barely a 4% difference. But FERC said that “studies resulting from the equipment changes would introduce substantial delays” and “have a ripple effect” on other projects in the queue.

Back in February, Oman’s United Solar opened the Middle East’s largest polysilicon plant. At full capacity, the facility will churn out 100,000 metric tons of polysilicon per year, enough to produce 40 gigawatts of solar panels. That makes the plant the largest of its kind outside China. Initially backed by Oman’s sovereign wealth fund, United Solar has already received $30 million in backing from Waaree Solar Americas, the U.S. subsidiary of an Indian solar giant that Semafor reported was championed by Prime Minister Narendra Modi in recent trade talks in Muscat. On Monday, the Oman Observer reported that United Solar had closed a $1.6 billion deal with the International Finance Corporation, the private sector arm of the World Bank Group. In a statement, the company described the investment as an endorsement of United Solar as a supplier of material that can comply with mounting American and European trade restrictions on Chinese solar panels.
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Cuba’s entire power grid went offline Monday as the Caribbean nation’s energy crisis devolves into catastrophe amid Washington’s blockade on fuel shipments. Energy Minister Vicente de la O Levy told CNN that officials were working to restore energy and that they’ve already activated emergency “microsystems” that supply electricity to critical services. In a plea to the United Nations in May, Francisco Pichón, the highest ranking officer in the Havana office of the U.N.’s Development System, said “time is running out, we need fuel now to save lives.” As in neighboring Puerto Rico, the ongoing grid disaster has spurred a boom in rooftop solar. But NBC News reported that Cubans are also turning to dirtier energy sources such as charcoal to cook indoors, subjecting themselves to dangerous smoke.
I find the comparison to Puerto Rico particularly poignant. Both islands were colonized around the same time, forming the beachhead of Spain’s early empire in the Americas, and rebelled against Madrid’s rule around the same time. Both fell under Washington’s suzerainty after the Spanish-American War of 1898, although the Americans granted Cubans self rule while seizing Puerto Rico as a colony. After the Cuban Revolution, the U.S. invested in Puerto Rico as a manufacturing hub and a symbol of the American system’s superiority. But as the memory of the Cold War faded into the 1990s, the U.S. cut key support for Puerto Rico, flipping over the first domino in a process that ultimately led to the island’s bankruptcy and the total collapse of its electrical system. The islands had opposite experiences of the so-called American Century. Neither one can keep the lights on.
In the early hours of July 4, the microreactor developer Aalo Atomics split atoms at its test reactor for the first time, becoming the fourth company in the Trump administration’s reactor pilot program to go critical. Criticality, on its own, is not a huge deal. But the program supported 10 companies to build test reactors that could generate data that the developers can use in their applications to the Nuclear Regulatory Commission. The Department of Energy, which administered the program, set a July 4 deadline for at least three companies to split atoms for the first time. First came Antares Nuclear, whose microreactor — designed for the military and space — went live at the Idaho National Laboratory early last month. Two weeks later, the gas-cooled microreactor maker Valar Atomics fired up its test reactor at the San Rafael Energy Lab in Utah. A week ago, as I told you, Deployable Energy went critical with its “nuclear battery,” also at the Idaho National Lab. In a statement, Aalo Atomics CEO Matt Loszak called reaching criticality “our most significant milestone to date, as it paves the way for the deployment of” the full-scale power units by smoothing the pathway to NRC approval.
I hope you were soothed by that chaser, because here’s the acrid shot: While we split atoms at test reactors, China just hooked up a whole new gigawatt-scale reactor to its grid. Last week, I told you that the second of six new Hualong One reactors — essentially China’s standardized version of the American AP1000 with an all-domestic supply chain — had hit a critical juncture. Well, now it’s hit the most critical juncture of all: It’s officially supplying power to the grid. Onto the next one.
The offshore wind industry may be in retreat in the U.S., but it’s just picking up in Europe. On Monday offshoreWIND.biz reported that the Netherlands’ 760-megawatt Hollandse Kust West VI offshore wind farm has officially connected to the grid. The 52-turbine plant is expected to reach full capacity by the end of this year.
Any version of the future — even one under Trump — includes bits of the Inflation Reduction Act.
We passed a major milestone over the weekend: the one-year anniversary of President Trump’s One Big Beautiful Bill Act. That piece of legislation — which curtailed the wind and solar tax credits, ended incentives for electric vehicle buyers, and terminated a lot of green industrial policy — was signed into law on July 4, 2025. It also formally ended the era of decarbonization and climate policy experimentation that began when the United States passed the Inflation Reduction Act roughly three years earlier.
Now we’re far enough out to begin assessing the Trump law’s impact. And a fascinating new report, published today by the MIT Center for Energy and Environmental Policy Research, argues that the damage … is not as bad as one might fear — at least in the electricity sector.
The power sector has retained most of the quantifiable benefits associated with Biden’s climate law and Environmental Protection Agency rules, the new report asserts, and about two-thirds of the reductions in heat-trapping pollution expected under Biden’s policies will still happen under Trump’s. The report is called “Glass Half Full,” but its author, Lily Bermel, told me that her own conclusions went even further: “It’s not barely half full,” she said. “It’s like three-quarters full.”
We had the exclusive on the new report at Heatmap — check out our full story for more coverage, including interviews with critics of the analysis. Bermel also joined me on our Shift Key podcast to discuss her findings and what they suggest for the future of climate policy.
But in this more discursive space, I want to address head-on a question I think Bermel’s report raises: Was the Inflation Reduction Act worth it? If two-thirds of the emissions cuts expected under President Biden's policies are going to happen anyway (at least from the power sector), what was the point of those policies?
I posed this question directly to Bermel. She pointed me to a different source of MIT data: the Clean Investment Monitor, which tracks clean energy and industry investment in the United States across a range of sectors. That data shows that wind, solar, and storage investment did increase in the United States after the IRA passed, she said. “What the IRA did for wind and solar was good and impactful, but ultimately no longer necessary and worth the bang for buck,” she told me. (She added that the law’s other policies — such as its incentives for “clean firm” power plants such as geothermal that can run all day — did not go far enough.)
Ben King, a director at the Rhodium Group (which collaborates with MIT on the Clean Investment Monitor data), made another point when we chatted about the MIT report over the weekend. The new report compares visions of what the energy system will look like after Trump’s policies and Biden’s policies. But both of those scenarios contain a lot of the IRA’s policies, he said, because the solar and wind tax credits remain available in some form until the end of this decade. There simply is no version of the future that doesn’t have a lot of the IRA in it.
And that should, perhaps, reframe how we compare the emissions trajectories under Trump’s and Biden’s policies. It might sound like good news that 67% of the emissions cuts expected under Biden’s policies could still materialize under Trump’s. But it might also invite a certain nihilism — if most of the cuts were going to happen anyway, why did we have a big political fight over climate policy in the first place?
So it’s worth stating clearly that any fight over emissions or climate policy is partly about the emissions cuts that have not happened yet. Had the Inflation Reduction Act’s tax credits — or the EPA’s climate rules — been preserved, then emissions cuts might have gone even deeper than we once anticipated. In this way, there is always something proleptic about discussing emissions policy — really, you are trying to secure additional emissions reductions.
To put this another way, Bermel’s model suggests that the United States will build the same amount of offshore wind under Trump’s policies as it would under Biden’s (about 6 gigawatts). That happens, she said, because offshore wind is driven by state policy as much if not more than federal policy — and the state policy environment was souring even before Trump took office. But had Kamala Harris won in 2024, then Trump’s war on wind would never have happened, and states may have worked harder to salvage their offshore wind investments — or gone on to build even more.
There is no world, in other words, where Biden’s policies would have stood alone. Their success was always provisional, and their potential victory was always an invitation to further gains.