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A conversation with the most interesting man on the Federal Energy Regulatory Commission.

It’s not every day that a top regulator calls into question the last few decades of policy in the area they help oversee. But that’s exactly what Mark Christie, a commissioner on the Federal Energy Regulatory Commission, the interstate power regulator, did earlier this year.
In a paper enticingly titled “It’s Time To Reconsider Single-Clearing Price Mechanisms in U.S. Energy Markets,” Christie gave a history of deregulation in the electricity markets and suggested it may have been a mistake.
While criticisms of deregulation are by no means new, that they were coming from a FERC commissioner was noteworthy — a Republican no less. While there is not yet a full-scale effort to reverse deregulation in the electricity markets, which has been going on since the 1990s, there is a rising tide of skepticism of how electricity markets do — and don’t — reward reliability, let alone the effect they have on consumer prices.
Christie’s criticisms have a conservative bent, as you’d expect from someone who was nominated by former President Donald Trump to the bipartisan commission. He is very concerned about existing generation going offline and has called activist drives against natural gas pipelines and other transportation infrastructure for the fossil-fuel-emitting power sources a “national campaign of legal warfare…[that] has prevented the construction of vitally needed natural gas transportation infrastructure.”
Since renewables have become, at times, among the world’s cheapest sources of energy and thus quite competitive in deregulated markets with fossil fuels (especially when subsidized), this kind of skepticism is a growing issue in the Republican Party, which has deep ties to oil and gas companies. The Texas state legislature, for instance, responded to Winter Storm Uri, which almost destroyed Texas’ electricity grid in 2021, with its own version of central planning: billions in low cost loans for the construction of new gas-fired power plants. Former Texas Governor Rick Perry, as secretary of energy in the Trump administration, even proposed to FERC a plan to explicitly subsidize coal and nuclear plants, citing reliability concerns. (FERC rejected it.) Some regions that didn’t embrace deregulation, like the Southeast and Southwest, also have some of the most carbon-intensive grids.
But Christie is not so much a critic of renewable resources like wind and solar, per se, as he is very focused on the benefits to the grid of ample “dispatchable” resources, i.e. power sources that can power up and down on demand.
This doesn’t have to mean uncritical acceptance of existing fossil fuel infrastructure. The idea that markets don’t reward reliability enough can help explain the poor winterization for fossil fuel generation that was so disastrous during Winter Storm Uri. And in California, the recognition that renewables alone can’t power the grid 24 hours a day has led to a massive investment in energy storage, which can help approximate the on-demand nature of natural gas or coal without the carbon pollution.
But Christie is primarily interested in the question of just how the planning is done for a system that links together electric generation and consumers. He criticized the deregulated system in much of the country where power is generated by companies separate from the utilities that ultimately sell and distribute that power to customers and where states have less of a role in overall planning, despite ultimately approving electricity rates.
Instead, these markets for power are mediated through a system where utilities pay independent generators a single price for their power at a given time that is arrived at through bidding, often in the context of sprawling multi-state regional transmission organizations like PJM Interconnection, which covers a large swath of the Midwest and Mid-Atlantic region, or the New England Independent System Operator. He says this set-up doesn’t do enough to incentivize dispatchable power, which only comes online when demand spikes, thus making the system overall less reliable, while still showing little evidence that costs have gone down for consumers.
Every year, grid operators and their regulators — including Christie — warn of reliability issues. What Christie argues is that these reliability issues may be endemic to the deregulated system.
Here is where there could be common ground between advocates for an energy transition and conservative deregulation skeptics like Christie. While the combination of deregulation and subsidies has been great for getting solar and wind from zero to around 13 percent of the nation’s utility-scale electricity generation, any truly decarbonized grid will likely require intensive government supervision and planning. Ultimately, political authorities who are guiding the grid to be less carbon-intensive will be responsible for keeping the lights on no matter how cold, warm, sunny, or windy it happens to be. And that may not be something today’s electricity “markets” are up for.
I spoke with Christie in late June about how FERC gave us the electricity market we have today, why states might be better managers than markets, and what he’s worried about this summer. Our conversation has been edited for length and clarity.
What happened to our energy markets in the 1990s and 2000s where you think things started to go wrong?
In the late ‘90s, we had this big push called deregulation. And as I pointed out in the article, it really wasn’t “deregulation” in the sense that in the ‘70s, you know, the trucking and airlines and railroads were deregulated where you remove government price regulation and you let the market set the prices. That’s not what happened. It really was just a change of the price-setting construct and the regulatory construct.
It took what had been the most common form of regulation of utilities, where utilities are considered to be natural monopolies, and said we’re going to restructure these utilities and we’re going to let the generation part compete in these regional markets.
And, you know, from an economic standpoint, okay, so far so good. But there’s been a lot of questioning as to whether there’s really true competition. Many parts of the country also just didn’t do it.
I think there’s a serious question whether that’s benefiting consumers more than the cost of service model where state regulators set the prices.
So if I’m an electricity consumer in one of the markets that’s more or less deregulated, how might reliability become an issue in my own home?
First of all, when you’re in one of these areas that are deregulated, essentially you’re paying the gas price. If it goes up, that’s what you’re going to pay. If it goes down, it looks really good.
But from the reliability standpoint, the question is whether these markets are procuring enough resources to make sure you have the power to keep your lights on 24/7. That is the big question to a consumer in a so-called deregulated state: Are these markets, which are now the main vehicle for buying generation resources, are they getting enough generation resources to make sure that your lights stay on, your heat stays on, and your air conditioning stays on?
Do you think there’s evidence that these deregulated markets are doing a worse job at that kind of procurement?
Well, let’s take, for example, PJM, which came out with an announcement in February that said they were going to lose in the next five years over 40 gigawatts. A gig is 1,000 megawatts, so that’s a lot of power, that’s a lot of generating resources. And the independent market monitor actually has told me it is closer to 50 gigawatts. So all these units are going to retire and they’re going to retire largely for economic reasons. They’re not getting sufficient compensation to stay open.
The essence of restructuring was that generating units are going to have to make their money in the market. They’re not going to get funding through what's called the “rate base,” which is the regulated, traditional cost-of-service model. They have to get it in the markets and theoretically, that sounds good.
But in reality, if they can’t get enough money to pay their cost, they’re going to retire and then you don’t have those resources. Particularly in the RTOs [regional transmission organizations, i.e. the multi-state electricity markets], you’re seeing these markets result in premature retirements of generating resources. And so, now, why is that? It’s more of a problem in the RTOS than non-RTOS because in the non-RTOS, they procure resources under the supervision of a state regulator through what’s called an integrated resource plan or IRP.
The reason I think the advantage and reliability is with the non-RTOS is that those utilities have to prove to a state regulator that their resource plan makes sense, that they’re planning to buy generating resources. Whether they’re buying wind or solar or gas, whatever, they have to go to a state regulator and say, “Here’s our plan” and then seek approval from that regulator. And if they’re shutting down units, the state regulator can say, “Wait a minute, you’re shutting down units that a few years ago you told us were needed for reliability, and now you’re telling us you want to shut them down.” So the state regulator can actually say , “No, you’re not going to shut that unit down. You’re going to keep running it.”
That’s why I think you have more accountability in the non-RTOS because the state regulators can tell the utility, “you need more resources, go build it or buy it,” or “you already have resources, you’re not going to shut them down, we’re not going to let you.”
You don’t have that in an RTO. In an RTO, it’s all done through the market. The market decides, to the extent it has a mind. You know, it’s all the result of market operations. It’s not anybody saying whether it’s a good idea or not for a certain unit to shut down.
I find it interesting that a lot of the criticism of the deregulated system — and a lot of places that are not deregulated — come from more conservative states that would generally not think of themselves as having this kind of strong state role in economic policy. What’s different about electricity? Why do you think the politics of this line up differently than it would on other issues?
I don’t know. That’s an interesting question. I haven’t even thought about it in those terms.
I think it goes back to when deregulation took place in the mid-to-late ‘90s. Other than Texas, which went all the way, the states that probably went farthest on it were in the Northeast. Part of the reason why is because they already had very high consumer prices. I think deregulation was definitely sold as a way to reduce prices to consumers. It hasn’t worked out that way.
Whereas you look at the Southeast, which never went in for deregulation. The Southeastern states, which are still non-RTO states, had relatively very low rates, so they didn’t see a problem to be fixed.
The other big trend since the 1990s and 2000s is the explosive growth of renewables, especially wind and solar. Is there something about deregulated electricity markets, the RTO system, that makes those types of resources economically more favorable than they would be under a different system?
Well, if you’re getting a very high subsidy, like wind and solar are getting, it means you can bid into the energy markets effectively at zero. So if you can bid in at zero offering, you’re virtually guaranteed to be a winner. In a non-RTO state, a state that's doing it through an integrated resource plan, the state regulator reviews the plan. That's why I think an IRP approach is better actually for implementing wind and solar because you can implement and deploy wind and solar as part of an integrated plan that includes enough balancing resources to make sure you keep the lights on.
To me an Integrated Resource Plan is a holistic process, where you can look at all the resources at your disposal: wind, solar, gas, as well as the demand side. And you can balance them all in a way that you think, “Okay, this balance is appropriate for us for the next three years, or four years, or five years.” Because you’re typically doing an IRP every three to five years anyway. And so I think it’s a good way to make sure you balance these resources.
In a market there’s no balancing. In a market it’s just winners and losers. And so wind and solar are almost always going to win because they have such massive subsidies that they’re going to get to offer in at a bid price of zero. The problem with that is they’re not going to get paid zero. They’re going to get paid the highest price [that all electricity suppliers get]. So they offer in at zero, but they get paid the highest price, which is going to be a gas price. It’s probably going to be the last gas unit to clear, that’s usually the one that’s the highest price unit. And yet because of the single clearing price mechanism, everybody gets that price. So you can offer it at zero to guarantee you clear, but then you’re going to get the highest price, usually a gas combustion turbine peaker.
Do you think we would see as much wind and solar on the grid if it weren’t for the fact that a lot of the resources are benefiting from the pricing mechanism you describe?
I don’t think you can draw that conclusion because there are non-RTO states that have what’s called a mandatory RPS, mandatory renewable portfolio standard. And so you can get there through a mandatory RPS and a cost to service model just as you can end up in a market. And actually, again, I think you can get there in a more balanced way to make sure that the reliability is not being threatened in the meantime.
To get back to what we’re talking about in the beginning, my understanding is that FERC, where you are now, played a large role in encouraging deregulation in the formation of RTOs. Is this something that your staff or other commissioners disagree with you about? How do you see the role you’re playing, where you’re doing public advocacy and reshaping this conversation around deregulation?
First of all, we always have to give the standard disclaimer, you never talk about a pending case. But FERC was really the driving force behind a lot of this deregulation. So obviously, they decided that that’s what they wanted to push, and they did. And so I think it’s appropriate as a FERC regulator to raise questions. I think raising questions about the status quo is an important thing that we do and should do. Ultimately, you advocate for what you think it ought to be and if the votes come eventually, it might take several years, but it’s important.
One of the things I try to do is, I put the consumer at the center of everything I do. It is absolutely my priority. And I think that it should be every regulator’s priority, particularly in the electric area because most consumers in America — in fact, almost all consumers in America — are captive customers. By captive. I mean, they don’t get to choose their electric supplier.
Like, where do you live, Matthew?
I live in New York City.
You don’t get to choose, right? You’re getting electricity from ConEd. And you don’t have any choice. So you’re a captive customer. And most consumers in America are captive customers. We tried this retail choice in a few states that didn’t work. You know, they’re still doing it. I’m not going to say whether it’s working or not, but I know we tried it in Virginia, and it didn’t work at all because of a lot of reasons.
I always put customers first and say, “Look, these customers are captive. We have to protect them. We have to protect the captive customers by making sure they’re not getting overcharged.” So that’s why I care about these issues. And that’s why I wrote this article. I think that customers in a lot of ways in America are not getting treated fairly. They’re getting overcharged and I think they’re not getting what they should be getting. And so I think a big part of it is some of this stuff that FERC's been pushing for the last 25 years.
Our time is running out. So I will leave with a question that is topical: It’s already been quite hot in Texas, but outside of Texas and in FERC-land, where are you concerned about reliability issues this summer?
Well, I’m concerned about everywhere. It’s not a flippant remark. I read very closely the reliability reports that we get from NERC and we have reliability challenges in many, many places. It’s not just in the RTOs. I think we have reliability challenges in the South. Fortunately, the West this year, which has been a problem the last couple of years, is actually looking pretty good because all the rain last winter — even flooding — really was great for hydropower.
I’m from California, and I think it’s the first time in my adult life that I remember stories about dams being 100 percent, if not more than 100 percent, full.
The rains and snowfall were so needed. It’s filled up reservoirs that have been really dry for years. And from an electrical standpoint, it’s been really good for hydro. So they’re looking at really good hydro availability this summer in ways they haven't been for the last several years. So the West actually, because of all the rain and the greater available of hydro, I think is in fairly good shape.
There’s a problem in California with the duck curve, the problem is still there. If you have such a high solar content, when the sun goes down, obviously the solar stops generating and so what do you do you know for the next four to five hours? Because the air conditioners are still running, it’s still hot, but that solar production has just dropped off the table. So they’ve been patching with some battery storage and some gas backup.
But I’m worried about everywhere. I watch very closely the reports that come out of the RTOs and you can’t be shutting down dispatchable resources at the rate we’re doing when you’re not replacing them one to one with wind or solar. The arithmetic doesn’t work and it’s going to catch up to us at some point.
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The enhanced geothermal company just announced a new 19,448-foot well.
Enhanced geothermal company Fervo has drilled another well.
This one is 19,448 feet deep, the company announced Thursday, and includes a 7,500-foot span laterally across the sub-surface. The well — called Sawtooth 7, part of Phase II of its flagship Cape Station project in Milford, Utah — took 21 days to drill, the company said. That matches the time required to drill the wells in Phase I, though the new one is nearly 35% deeper than those, on average, with a 50% greater lateral extension.
The greater depth and distance means greater energy potential from the well, while faster drilling times mean much lower costs. Tim Latimer, Fervo’s co-founder and chief executive, compared the timeline to that of the company’s 2022 Project Red well in Nevada, which achieved a depth of 11,220 feet in 70 days.
“Today, we are drilling deeper, hotter wells that will produce multiples more [megawatts] per well than our Project Red pilot, and we are doing it in a fraction of the time,” Latimer wrote.
Fervo says that its drilling rates at the Cape Station site have improved by 143% since it broke ground there in 2023.
The company says it’s now on track to get project costs down to $5,500 per kilowatt, working toward a goal of $3,000 per kilowatt over the long term. In its IPO filing, Fervo said costs at Cape Station were around $7,000 per kilowatt, indicating significant improvements in drilling efficiency in a relatively short period of time.
The news should be welcome to Fervo and its investors. Shortly after going public in May, the company announced that one of its Utah wells blew out. The company said at the time that there were no injuries, nor was there any environmental damage or “material impact to either cost or schedule of the project” at Cape Station.
Fervo raised almost $2 billion in its IPO, which it said will go to fund further progress on the flagship installation. Shares were trading at around $26 on Thursday afternoon, just shy of their $27 IPO price and up over 13% on the day.
The Earth Fire Alliance is aiming for a constellation of high-resolution sensors that can capture the whole globe every 20 minutes.
Wildfires burn tens of millions of acres worldwide every year, and they’re only becoming more destructive.
For the past few decades, satellites operated by the likes of NASA and NOAA have assisted fire crews in detecting and tracking wildfires in even the most remote, difficult-to-monitor landscapes. But helpful as they are, these systems can’t provide real-time, actionable insights. They typically can’t spot fires until they’ve grown to several acres, for instance. They also only provide an image of the same spot every 12 hours at best, and by the time the data reaches the ground, hours — sometimes days — may have passed.
But the nonprofit Earth Fire Alliance says it’s built a far more capable alternative. In the wee hours of Tuesday morning, it launched three minifridge-sized satellites into orbit, the first components of a purpose-built wildfire detection constellation of more than 50 satellites planned to be fully operational by the 2030s. Designed to detect much smaller blazes than existing systems, the network will give first responders earlier warning and more time to contain fires before they spread. FireSat will also provide the broader scientific community with new data on how and why smaller burns grow into destructive wildfires, helping to improve models of fire behavior amidst a changing climate.
“We’ll be able to see fires as small as five by five meters — that’s the size of a shipping container — and be able to see fires at a lower temperature than a lot of the other satellite systems do,” Karen O’Connor, a founding principal at Earth Fire Alliance, told me. Once the full constellation is in orbit, the goal is to use the satellite’s thermal imaging capabilities to provide updates on fires every 20 minutes. “When you think about how that compares with current systems, they might see two to three acres. They might be over the same region maybe once or twice a day,” O’Connor explained.
The initiative has raised $69 million from a coalition of philanthropic backers, including a $26 million grant from the Bezos Earth Fund, over $15 million from Google.org, and support from the Gordon and Betty Moore Foundation, as well as other donors. The alliance’s technical partner, Silicon Valley startup Muon Space, designed and built the satellites. The company validated its tech last March when it launched a prototype satellite into orbit that detected a small fire in Oregon that existing systems missed.
O’Connor told me the team has interviewed hundreds of firefighters, fire agency officials, and fire scientists since the project kicked off six years ago, so that they could design the system to meet their needs. Those features include ultra-high-resolution sensors and an unusually wide field of view — over 930 miles across. Each satellite can quickly scan vast swaths of land, imaging the entire globe in about 12 hours. With more satellites will come greater imaging frequency: The alliance aims to capture an image of any point on Earth at least once an hour by 2029, reaching every 20 minutes by the early 2030s.
Hourly imaging “gets us within operational decision making timeframes,” O’Connor told me. Many fire agencies already receive intelligence updates from weather monitoring stations on this cadence, meaning at this point FireSat data can fit directly into their existing workflows to inform decisions about if, where, and when to deploy crews.
FireSat also provides a much clearer, more detailed view of active fires than standard Earth observation satellites, whose imagery generally lacks the resolution needed to manage fires in real time. Its specialized sensor captures six distinct bands of light — one visible, one near infrared, and four thermal infrared bands — each revealing different characteristics of the fire and its progression.
Visible light provides a baseline view of the landscape, while near infrared wavelengths reveal how vegetation responds to a fire — a stronger near-infrared signal indicates healthy vegetation. Short-wave infrared allows satellites to see through smoke during active fires and identify the areas burning with the most intensity. Mid-wave infrared is FireSat’s most unique and valuable channel for fire detection. Unlike most systems which use a single mid-wave band, FireSat uses two. One is attenuated — essentially tuned down — to allow the sensor to measure extremely hot fires without its gradations becoming saturated. The other is not, allowing the satellite to pick up smaller, lower-intensity blazes.
Long-wave infrared helps detect cooler parts of a fire as well as the temperature of the surrounding landscape, including smoldering areas, burn scars, and changes in ground temperature. This helps researchers better distinguish fire signatures and understand their impacts on smoke and air quality.
The three newly launched satellites will now undergo about three months of testing and calibration before they begin feeding data directly to FireSat’s early adopters, which include Cal Fire in California as well as fire agencies in Colorado, Oregon, Texas, Africa, Australia and Portugal.
“We’ve started with the operational community because we think that they’re the ones that need to be using the data from the beginning,” O’Connor told me. But as FireSat’s data set grows and researchers build a more exact historical record of recent fires, the patterns that emerge should provide valuable scientific insights such as seasonal shifts in fire behavior, how fires spread across different environments, and their impacts on ecosystems, biodiversity, and emissions.
Fire modeling is already evolving quickly these days, as startups and research labs increasingly integrate AI into their wildfire simulation models and risk assessments. Examples include companies like Pano AI and Technosylva, as well as researchers at the USC Viterbi School of Engineering and the University of Buffalo. O’Connor told me she thinks FireSat’s data will help further improve these models. “By having a real-time, regularly updated fire path, they can actually go back in and train those tools again — like this is how the fire actually behaved — so that in the future those types of tools will be better for the operational decision makers.”
FireSat could also help reveal the true global scale of fire activity. Until recently, existing systems couldn’t reliably detect smaller conflagrations, so the historical record has mostly captured only the largest ones. A more complete picture of fire activity will improve carbon emissions accounting and inform better land management practices.
That said, it remains true that not every fire ought to be put out. Fire is a natural — and often essential — ecological cycle that helps landscapes like grasslands, chaparral, and forests stay healthy while clearing dead vegetation that would otherwise accumulate as fuel for more destructive wildfires. O’Connor expects FireSat to play a role here, as well, giving agencies a better way to monitor prescribed burns and naturally occurring fires alike to ensure they deliver their ecological benefits without getting out of hand.
Even so, there are limits to what better detection and more sophisticated modeling can achieve when it comes to reducing the toll of wildfires. As the deadly Los Angeles fires at the beginning of 2025 demonstrated, even blazes caught in their earliest stages can explode under a dangerous combination of high winds and drought — conditions that are becoming increasingly common with climate change. Furthermore, as people continue to build homes and infrastructure along the wildland-urban interface, there are limits to how much technology can protect developments in landscapes that are naturally adapted to burn.
Still, FireSat’s data stands to make a meaningful difference in our ability to respond to an increasingly fire-prone world, though those benefits won’t arrive overnight, of course. These first three satellites will offer an early glimpse of what FireSat can deliver at scale, with the real value of the constellation beginning to emerge by the end of the decade. “Four of the five biggest wildfire years were in the 2020s,” O’Connor told me. “We can’t afford to go any slower than that.”
On Trump’s mineral paradox, China’s Great Green Wall, and sodium-ion batteries
Current conditions: After devastating the U.S. island of Rota in the Northern Mariana Islands territory, Super Typhoon Bavi is barreling toward Taiwan with winds of up to 200 miles per hour • Rare tornadoes brought on by storms touched down in China’s Hubei province, leaving 11 dead • Temperatures in Madrid are hovering at around 100 degrees Fahrenheit all week as the Spanish capital roasts in Europe’s latest heat wave.
Exactly three weeks after President Donald Trump signed a formal memorandum to halt the bombing campaign against Iran that the United States and Israel embarked on nearly five months ago, the war is back on. After Washington accused Tehran of launching missiles at tankers passing through the Strait of Hormuz this week, Trump officially declared the resumption of combat. Speaking Wednesday morning at the NATO summit in Turkey, Trump called the Iranian regime “scum,” “sick people,” and “vicious, violent people” when asked about the peace pact during a press conference. “If they had a nuclear weapon, they’d use it,” Trump said. “So as far as I’m concerned, it’s over.” He spent the rest of the day posting more than a dozen videos and photos on his Truth Social account purportedly showing U.S. missile strikes in Iran. “This is in retribution for yesterday’s bombing of ships by Iran,” Trump wrote in one post. “If it happens again, it will get much worse!”
The market is certainly preparing for worse. The price of Murban crude, the benchmark for oil flowing out of the United Arab Emirates, spiked nearly 7% on Wednesday. The European benchmark, Brent crude, jumped more than 5%. The American pricing yardstick, West Texas Intermediate crude, rose by just over 1%. Last month, my colleague Matthew Zeitlin cautioned that, despite a ceasefire, it would take a while for the Strait of Hormuz to return to normal — and “even longer” for energy markets. Emphasis on that last part.
The world’s capacity to generate nuclear energy has increased by 2.2 gigawatts already this year as new Chinese reactors have come online at a rapid clip. By 2035, global nuclear capacity is on track to surge by 44% to 535 gigawatts, up from 372 gigawatts last year. That’s according to the latest forecast from the consultancy BloombergNEF. China, the unrivaled global leader in domestic reactor construction, is largely responsible for the projected spike. Today, the People’s Republic is the world’s No. 2 user of atomic energy behind the U.S., which has long operated the largest fleet of plants on the planet. But China is on pace to surpass the U.S. by 2030 with 102 gigawatts of nuclear capacity.
Among the more promising signs for the democratic world: The U.S. is now working with Japan and South Korea to commercialize new small modular reactor technologies. On Tuesday, at the margins of the NATO summit, U.S. Secretary of State Marco Rubio signed onto a memorandum with the foreign ministers of Japan and South Korea. The document “outlines opportunities for our three countries, which have complementary advantages in the civil nuclear field, to encourage mutually beneficial cooperation among their respective nuclear industries,” the State Department said in a statement.
Right after the presidential inauguration in January 2025, Matthew wrote a sharp piece identifying what he called the “paradox of Trump’s critical minerals crusade.” At issue was the fact that the new Trump administration planned to (and ultimately did) kill off policies designed to spur demand for domestically mined and processed minerals such as lithium, cobalt, and rare earths — even as he slashed barriers to increasing the supply of those metals. U.S. production of minerals is picking up as the White House brokers a growing list of deals to give the government equity stakes in mining firms in exchange for federal support for increasing output. Sure enough, the demand just isn’t there in the U.S. On Tuesday, the Financial Times reported that companies backed by the administration, including rare earths miner MP Materials, uranium producer Energy Fuels, and the rare earths refiner Phoenix Tailings are instead selling their goods to buyers in Asia. Japanese customers were “clamoring” for rare earth metals from Phoenix Tailings, CEO Nick Myers said. The materials the firm produces are ending up “primarily in Korea and Japan.”
That isn’t stopping Trump from reviving his calls for Washington to seize Greenland and its resources from Denmark, a founding NATO ally. Speaking at the conference in the Turkish capital of Ankara, the American president repeated his claim that the U.S. invasion of the world’s largest island following Copenhagen’s collapse to Nazi blitzkrieg in April 1940 should have qualified as a permanent conquest. “We took Greenland and then, stupidly, we gave it back,” Trump told reporters. “We shouldn’t have given it back to them. We’re the ones who need it. We need it for protection of the world, not just the United States.”
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Not to be an old man about it, but I remember the Iraq War distinctly — the debates over the role of Baghdad’s oil and the calls from Congress for increased U.S. production with an eye toward energy independence. Here’s some data that will make you want to dismiss your humble millennial correspondent with an “ok boomer.” On Wednesday, the U.S. Energy Information Administration issued a definitive new analysis showing that U.S. petroleum exports hit a record high in April after Iran closed the Strait of Hormuz, forcing overseas buyers to find new sources of fuel. Exports increased to 13.6 million barrels per day, 15% more than the previous record set in March.
On the other end of the American energy spectrum, the nation’s largest provider of home battery and solar equipment just launched a distributed compute pilot program for artificial intelligence servers. Under the program, Sunrun will coordinate “the selling of inference capacity to enterprise compute buyers.” In other words, homeowners can earn money by hosting “compute nodes” — small servers —that then supply output to AI companies in much the same way Sunrun’s customers are paid by giving the virtual power plant operators access to solar panels and batteries. “Over nearly two decades, we have perfected our ability to operationalize, finance, and scale distributed assets,” Paul Dickson, Sunrun’s president and chief revenue officer, said in a press release. “We are now using our leadership position in distributed home energy and proven infrastructure to bring compute closer to the sources of energy and inference.”
Much like the United Nations effort to plant trees at the southern edge of the Sahara to keep the desert at bay, China is building a Great Green Wall. Since 1978, the country has planted 66 billion trees and plans another 34 billion by 2050 in a bid to slow the spread of the Gobi and Taklamakan deserts. A new study using satellite measurements of leafy areas found that the planted forests are greening much faster than wild ones. Younger trees grow faster. But even at similar ages, planted stands grew 4.6% faster, meaning they can absorb more carbon. The findings, according to Fertilizer Daily, “suggest global climate models should better distinguish forest types and age when accounting for carbon.”
Sodium-ion technology, as Heatmap’s Katie Brigham explained two years ago, promises cheaper, less combustible batteries than its dominant lithium-ion cousin. But it remains niche and underdeveloped. Perhaps not for long. On Wednesday, sodium battery startup Peak Energy announced plans for a factory in Sacramento capable of producing 4 gigawatt-hours of sodium battery systems annually. “America needs energy storage that is lower cost, more affordable, more reliable and purpose-built to meet the demand coming onto the grid,” Peak Energy CEO Landon Mossburg said in a statement. “This facility is proof that America can lead not only in inventing the technology, but in building it at scale.”