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Fuel is out. Supply chains are in.
It was not long ago that the combination of “hydrogen” and “automakers” would bring to mind fuel cells, a technology that has already fallen out of favor as buyers flock to electric cars. In its wake, though, green hydrogen is catching the eye of automakers for another reason: It could allow them to decarbonize one of their trickiest supply chains.
In the last two years, major car companies have committed to integrating green or recycled steel, made with hydrogen, into their vehicles. At the forefront of this effort is Volvo, which aims to be the first automaker to use fossil-free steel in its cars. If successful — and, given where the company is in the process, that’s a big if — the Swedish automaker’s efforts could provide a template for how to decarbonize other challenging parts of industrial supply chains.
Steelmaking is responsible for roughly 8% of global energy demand and 2.6 gigatonnes of carbon dioxide emissions per year, a total higher than all of the European Union’s emissions in 2021. Steelmakers use fossil fuels — and especially highly polluting coal — to process iron ore and produce the alloy. At present, there aren’t any surefire paths to reduce these emissions, given how crucial a role steel plays in modern manufacturing.
But green steel has real promise. Hydrogen made using renewable energy can be used to replace coal in steelmaking with near-zero greenhouse gas emissions. The market for green steel is still small, though, in part because there is simply not a lot on offer. In 2019, just 8% of the world’s steel mills had even begun committing to zero-carbon technology, according to the green energy non-profit RMI.
This is largely because the supply of green hydrogen — the ingredient that gives green steel its name and a hot commodity among investors — is itself constrained. Creating the fuel is incredibly energy intensive. To produce 550 million metric tons of green hydrogen annually, the world would need 18 times more solar capacity than it has installed today, according to the Hydrogen Council.
As of 2020, the world demanded 90 million metric tons of hydrogen for refining and industrial applications, which were produced almost entirely by fossil fuels. Of that, just 30,000 metric tons were produced using renewable energy.
For Volvo, the first step of the enormous undertaking of steel decarbonization was to assess the carbon footprint of a car, specifically its first electric vehicle. It found its XC40 Recharge would emit 27 metric tons of carbon dioxide over its lifetime even if it were charged entirely using renewable energy. Of that total, 18% of the materials-related emissions came from the steel used to build the car.
According to Jonas Otterheim, who was until recently the head of climate action for the Swedish automaker (though he is temporarily on leave), this realization drove home that finding suppliers of low- or no-emissions steel would be “critical” to reach the company’s goal of supply chain-wide carbon neutrality by 2040.
Volvo turned to its steel suppliers, namely SSAB, the manufacturer that has long provided the company’s conventional steel. In June 2021, the two partnered to explore developing fossil-free steel for use in its cars as well.
It may seem that substituting green steel for conventional is straightforward, especially given that, per SSAB, “the only difference in the process is that the energy used will be exclusively fossil-free electricity and other fossil-free fuels.” However, with an operation as complicated as auto manufacturing, any material change requires exhaustive testing.
And that’s where Volvo is today. The automaker aims to integrate green steel into its vehicles in 2026, which is when SSAB intends to have its fossil-free plant up and running. In the meantime, Volvo is evaluating “part-by-part” which components of its manufacturing process can safely be replaced with green steel.
“This is [a] very big job over a number of years, before the material can be put into any car,” said Otterheim. The two companies are evaluating whether the switch to green steel will require retooling its plants, which “are built specifically for every car and every material quality we have,” he added.
Otterheim said the deal initially was just exploratory in nature: an opportunity for both companies to explore whether it’s possible to make fossil-free versions of all the different grades of steel that are necessary to build a car, and potentially use it in a concept car.
However, his colleague Stina Klingvall, who is Volvo’s acting head of climate action in Otterheim’s absence, said that things have developed to the point where Volvo is actively starting to prepare to produce components with the new steel.
One promising development has come already from within the Volvo ecosystem. In August 2021, SSAB shipped a batch of green steel made at a pilot plant with renewable electricity and hydrogen to Volvo’s truck-making arm (separate from Volvo Cars), which was then integrated the steel into a dump truck prototype. (SSAB produced this steel under its Hybrit initiative, a collaboration with mining company LKAB and power company Vattenfall.)
One big outstanding question is how much automakers and other green steel buyers will have to pay to use the more sustainable metal.
RMI’s analysis found that hydrogen-based steel production can result in a 20% cost premium, but also that the premium disappears when electricity prices are in the range of $15-$20 per megawatt-hour or lower. This remains out of reach across most of the U.S., though a Lawrence Berkeley National Laboratory study found that the country is on track for solar costing $22 per MWh hour on average by 2035 (down from $34 per MWh in 2020).
Meanwhile, Otterheim said that he hopes that Volvo’s work will “help drive down costs'' to be more in line with the status quo for steel, and that it will push more automakers to make commitments of their own. This represents the most crucial knock-on effect of a single company’s dipping a toe into greener materials: peer pressure.
“Due to the scarcity of these materials over the short-term period, other premium car makers are also starting to act to secure volumes for their supply,” Otterheim said. “The race for such materials is naturally good, creating an even stronger signal to other steel suppliers to follow.”
Volvo may have made the first green steel purchase commitment, but several automaker competitors have followed suit, including BMW and General Motors. While the pool of customers for steel is a big one (and includes the renewables industry), transportation is a particularly big fish in that pool, responsible for 12% of global steel consumption, per the World Steel Association.
When it comes to urging heavy industry to decarbonize, there is strength in numbers. Materials like steel, cement, and chemicals are integral parts of countless other supply chains, which means it’s hard for a single customer to have much sway. As a consequence, heavy industrial companies lack the incentive to innovate, said former New York Times journalist Justin Gillis, who recently published a book on how to push for climate action. There are few market signals “that clean products are going to be favored,” he said.
But some companies are trying to change that dynamic. The First Movers Coalition was formed last year explicitly to create markets for nascent sectors like green steel and carbon dioxide removal. With a market cap of $8.5 trillion between the more than 50 companies involved, their collective pledges to procure climate-friendly products despite the higher price tag offers market certainty. When Ford joined the coalition in May, the company pledged that at least 10% of its steel and aluminum would have near-zero carbon emissions by 2030.
Ultimately, companies that have committed to cleaning up their supply chains have a choice of how to decide to define that supply chain, and how much pressure to put on their suppliers with hard-to-abate emissions.
“How many steps back in the supply chain do you go? The further back you go, the less responsibility any one consumer-facing company can have,” Gillis said. “I do think these companies can play a role by sending market pressure, but they need to be willing to pay a price premium for cleaner supplies or materials.”
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Editor's note: This article was updated at 12:23 pm ET to clarify part of the steelmaking process.
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It’s not perfect, but pretty soon, it’ll be available for under $30,000.
Here’s what you need to know about the rejuvenated Chevrolet Bolt: It’s back, it’s better, and it starts at under $30,000.
Although the revived 2027 Bolt doesn’t officially hit the market until January 2026, GM revealed the new version of the iconic affordable EV at a Wednesday evening event at the Universal Studios backlot in Los Angeles. The assembled Bolt owners and media members drove the new cars past Amity Island from Jaws and around the Old West and New York sets that have served as the backdrops of so many television shows and movies. It was star treatment for a car that, like its predecessor, isn’t the fanciest EV around. But given the giveaway patches that read “Chevy Bolt: Back by popular demand,” it’s clear that GM heard the cries of people who missed having the plucky electric hatchback on the market.
The Bolt died at the height of its powers. The original Bolt EV and Bolt EUV sold in big numbers in the late 2010s and early 2020s, powered by a surprisingly affordable price compared to competitor EVs and an interior that didn’t feel cramped despite its size as a smallish hatchback. In 2023, the year Chevy stopped selling it, the Bolt was the third-best-selling EV in America after Tesla’s top two models.
Yet the original had a few major deficiencies that reflected the previous era of EVs. The most egregious of which was its charging speed that topped out at around 50 kilowatts. Given that today’s high-speed chargers can reach 250 to 350 kilowatts — and an even faster future could be on the way — the Bolt’s pit stops on a road trip were a slog that didn’t live up to its peppy name.
Thankfully, Chevy fixed it. Charging speed now reaches 150 kilowatts. While that figure isn’t anywhere near the 350 kilowatts that’s possible in something like the Hyundai Ioniq 9, it’s a threefold improvement for the Bolt that lets it go from 10% to 80% charged in a respectable 26 minutes. The engineers said they drove a quartet of the new cars down old Route 66 from the Kansas City area, where the Bolt is made, to Los Angeles to demonstrate that the EV was finally ready for such an adventure.
From the outside, the 2027 Bolt is virtually indistinguishable from the old car, but what’s inside is a welcome leap forward. New Bolt has a lithium-ion-phosphate, or LFP battery that holds 65 kilowatt-hours of energy, but still delivers 255 miles of max range because of the EV’s relatively light weight. Whereas older EVs encourage drivers to stop refueling at around 80%, the LFP battery can be charged to 100% regularly without the worry of long-term damage to the battery.
The Bolt is GM’s first EV with the NACS charging standard, the former Tesla proprietary plug, which would allow the little Chevy to visit Tesla Superchargers without an adapter (though its port placement on the front of the driver’s side is backwards from the way older Supercharger stations are built). Now built on GM’s Ultium platform, the Bolt shares its 210-horsepower electric motor with the Chevy Equinox EV and gets vehicle-to-load capability, meaning you’ll be able to tap into its battery energy for other uses such as powering your home.
But it’s the price that’s the real wow factor. Bolt will launch with an RS version that gets the fancier visual accents and starts at $32,000. The Bolt LT that will be available a little later will eventually start as low as $28,995, a figure that includes the destination charge that’s typically slapped on top of a car’s price, to the tune of an extra $1,000 to $2,000 on delivery. Perhaps it’s no surprise that GM revealed this car just a week after the end of the $7,500 federal tax credit for EV purchases (and just a day after Tesla announced its budget versions of the Model Y and Model 3). Bringing in a pretty decent EV at under $30,000 without the help of a big tax break is a pretty big deal.
The car is not without compromises. Plenty of Bolt fans are aghast that Chevy abandoned the Apple CarPlay and Android Auto integrations that worked with the first Bolt in favor of GM’s own built-in infotainment system as the only option. Although the new Bolt was based on the longer, “EUV” version of the original, this is still a pretty compact car without a ton of storage space behind the back seats. Still, for those who truly need a bigger vehicle, there’s the Chevy Equinox EV.
For as much time as I’ve spent clamoring for truly affordable EVs that could compete with entry-level gas cars on prices, the Bolt’s faults are minor. At $29,000 for an electric vehicle in the U.S., there is practically zero competition until the new Nissan Leaf arrives. The biggest threats to the Bolt are America’s aversion to small cars and the rapid rates of depreciation that could allow someone to buy a much larger, gently used EV for the price of the new Chevy. But the original Bolt found a steady footing among drivers who wanted that somewhat counter-cultural car — and this one is a lot better.
“Old economy” companies like Caterpillar and Williams are cashing in by selling smaller, less-efficient turbines to impatient developers.
From the perspective of the stock market, you’re either in the AI business or you’re not. If you build the large language models pushing out the frontiers of artificial intelligence, investors love it. If you rent out the chips the large language models train on, investors love it. If you supply the servers that go in the data centers that power the large language models, investors love it. And, of course, if you design the chips themselves, investors love it.
But companies far from the software and semiconductor industry are profiting from this boom as well. One example that’s caught the market’s fancy is Caterpillar, better known for its scale-defying mining and construction equipment, which has become a “secular winner” in the AI boom, writes Bloomberg’s Joe Weisenthal.
Typically construction businesses do well when the overall economy is doing well — that is, they don’t typically take off with a major technological shift like AI. Now, however, Caterpillar has joined the ranks of the “picks and shovels” businesses capitalizing on the AI boom thanks to its gas turbine business, which is helping power OpenAI’s Stargate data center project in Abilene, Texas.
Just one link up the chain is another classic “old economy” business: Williams Companies, the natural gas infrastructure company that controls or has an interest in over 33,000 miles of pipeline and has been around in some form or another since the early 20th century.
Gas pipeline companies are not supposed to be particularly exciting, either. They build large-scale infrastructure. Their ratemaking is overseen by federal regulators. They pay dividends. The last gas pipeline company that got really into digital technology, well, uh, it was Enron.
But Williams’ shares are up around 28% in the past year — more than Caterpillar. That’s in part, due to its investing billions in powering data centers with behind the meter natural gas.
Last week, Williams announced that it would funnel over $3 billion into two data center projects, bringing its total investments in powering AI to $5 billion. This latest bet, the company said, is “to continue to deliver speed-to-market solutions in grid-constrained markets.”
If we stipulate that the turbines made by Caterpillar are powering the AI boom in a way analogous to the chips designed by Nvidia or AMD and fabricated by TSMC, then Williams, by developing behind the meter gas-fired power plants, is something more like a cloud computing provider or data center developer like CoreWeave, except that its facilities house gas turbines, not semiconductors.
The company has “seen the rapid emergence of the need for speed with respect to energy,” Williams Chief Executive Chad Zamarin said on an August earnings call.
And while Williams is not a traditional power plant developer or utility, it knows its way around natural gas. “We understand pipeline capacity,” Zamarin said on a May earnings call. “We obviously build a lot of pipeline and turbine facilities. And so, bringing all the different pieces together into a solution that is ready-made for a customer, I think, has been truly a differentiator.”
Williams is already behind the Socrates project for Meta in Ohio, described in a securities filing as a $1.6 billion project that will provide 400 megawatts of gas-fired power. That project has been “upsized” to $2 billion and 750 megawatts, according to Morgan Stanley analysts.
Meta CEO Mark Zuckerberg has said that “energy constraints” are a more pressing issue for artificial intelligence development than whether the marginal dollar invested is worth it. In other words, Zuckerberg expects to run out of energy before he runs out of projects that are worth pursuing.
That’s great news for anyone in the business of providing power to data centers quickly. The fact that developers seem to have found their answer in the Williamses and Caterpillars of the world, however, calls into question a key pillar of the renewable industry’s case for itself in a time of energy scarcity — that the fastest and cheapest way to get power for data centers is a mix of solar and batteries.
Just about every renewable developer or clean energy expert I’ve spoken to in the past year has pointed to renewables’ fast timeline and low cost to deploy compared to building new gas-fired, grid-scale generation as a reason why utilities and data centers should prefer them, even absent any concerns around greenhouse gas emissions.
“Renewables and battery storage are the lowest-cost form of power generation and capacity,” Next Era chief executive John Ketchum said on an April earnings call. “We can build these projects and get new electrons on the grid in 12 to 18 months.” Ketchum also said that the price of a gas-fired power plant had tripled, meanwhile lead times for turbines are stretching to the early 2030s.
The gas turbine shortage, however, is most severe for large turbines that are built into combined cycle systems for new power plants that serve the grid.
GE Vernova is discussing delivering turbines in 2029 and 2030. While one manufacturer of gas turbines, Mitsubishi Heavy Industries, has announced that it plans to expand its capacity, the industry overall remains capacity constrained.
But according to Morgan Stanley, Williams can set up behind the meter power plants in 18 months. xAI’s Colossus data center in Memphis, which was initially powered by on-site gas turbines, went from signing a lease to training a large language model in about six months.
These behind the meter plants often rely on cheaper, smaller, simple cycle turbines, which generate electricity just from the burning of natural gas, compared to combined cycle systems, which use the waste heat from the gas turbines to run steam turbines and generate more energy. The GE Vernova 7HA combined cycle turbines that utility Duke Energy buys, for instance, range in output from 290 to 430 megawatts. The simple cycle turbines being placed in Ohio for the Meta data center range in output from about 14 megawatts to 23 megawatts.
Simple cycle turbines also tend to be less efficient than the large combined cycle system used for grid-scale natural gas, according to energy analysts at BloombergNEF. The BNEF analysts put the emissions difference at almost 1,400 pounds of carbon per megawatt-hour for the single turbines, compared to just over 800 pounds for combined cycle.
Overall, Williams is under contract to install 6 gigawatts of behind-the-meter power, to be completed by the first half of 2027, Morgan Stanley analysts write. By comparison, a joint venture between GE Vernova, the independent power producer NRG, and the construction company Kiewit to develop combined cycle gas-fired power plants has a timeline that could stretch into 2032.
The Williams projects will pencil out on their own, the company says, but they have an obvious auxiliary benefit: more demand for natural gas.
Williams’ former chief executive, Alan Armstrong, told investors in a May earnings call that he was “encouraged” by the “indirect business we are seeing on our gas transmission systems,” i.e. how increased natural gas consumption benefits the company’s traditional pipeline business.
Wall Street has duly rewarded Williams for its aggressive moves.
Morgan Stanley analysts boosted their price target for the stock from $70 to $83 after last week’s $3 billion announcement, saying in a note to clients that the company has “shifted from an underappreciated value (impaired terminal value of existing assets) to underappreciated growth (accelerating project pipeline) story.” Mizuho Securities also boosted its price target from $67 to $72, with analyst Gabriel Moreen telling clients that Williams “continues to raise the bar on the scope and potential benefits.”
But at the same time, Moreen notes, “the announcement also likely enhances some investor skepticism around WMB pushing further into direct power generation and, to a lesser extent, prioritizing growth (and growth capex) at the expense of near-term free cash flow and balance sheet.”
In other words, the pipeline business is just like everyone else — torn between prudence in a time of vertiginous economic shifts and wanting to go all-in on the AI boom.
Williams seems to have decided on the latter. “We will be a big beneficiary of the fast rising data center power load,” Armstrong said.
On billions for clean energy, Orsted layoffs, and public housing heat pumps
Current conditions: A tropical rainstorm is forming in the Atlantic that’s forecast to barrel along the East Coast through early next week, threatening major coastal flooding and power outages • Hurricane Priscilla is weakening as it tracks northward toward California • The Caucasus region is sweltering in summer-like heat, with the nation of Georgia enduring temperatures of up to 93 degrees Fahrenheit in October.
Base Power, the Texas power company that leases batteries to homeowners and taps the energy for the grid, on Tuesday announced a $1 billion financing round. The Series C funding is set to supercharge the Austin-based company’s meteoric growth. Since starting just two years ago, Base has deployed more than 100 megawatts of residential battery capacity, making it one of the fastest growing distributed energy companies in the nation. The company now plans to build a factory in the old headquarters of the Austin American-Statesman, the leading daily newspaper in the Texan capital. The funding round included major investors who are increasing their stakes, including Valor Equity Partners, Thrive Capital, and Andreessen Horowitz, and at least nine new venture capital investors, including Lowercarbon, Avenir, and Positive Sum. “The chance to reinvent our power system comes once in a generation,” Zach Dell, chief executive and co-founder of Base Power, said in a statement. “The challenge ahead requires the best engineers and operators to solve it and we’re scaling the team to make our abundant energy future a reality.”
The deal came a day after Brookfield Asset Management, the Canadian-American private equity giant, raised a record $23.5 billion for its clean energy fund. At least $5 billion has already been spent on investments such as the renewable power operator Neoen, the energy developer Geronimo Power, and the Indian wind and solar giant Evren. “Energy demand is growing fast, driven by the growth of artificial intelligence as well as electrification in industry and transportation,” Connor Teskey, Brookfield’s president and renewable power chief, said in a press release. “Against this backdrop we need an ‘any and all’ approach to energy investment that will continue to favor low carbon resources.”
Orsted has been facing down headwinds for months. The Danish offshore wind giant has absorbed the Trump administration’s wrath as the White House deployed multiple federal agencies to thwart progress on building seaward turbines in the Northeastern U.S. Then lower-than-forecast winds this year dinged Orsted’s projected earnings for 2025. When the company issued new stock to fund its efforts to fight back against Trump, the energy giant was forced to sell the shares at a steep discount, as I wrote in this newsletter last month. Despite all that, the company has managed to raise the money it needed. On Wednesday, The Wall Street Journal reported that Orsted had raised $9.4 billion. Existing shareholders subscribed for 99.3% of the new shares on offer, but demand for the remaining shares was “extraordinarily high,” the company said.
That wasn’t enough to stave off job cuts. Early Thursday morning, the company announced plans to lay off 2,000 employees between now and 2027. The cuts represented roughly one-quarter of the company’s 8,000-person global workforce. “This is a necessary consequence of our decision to focus our business and the fact that we'll be finalizing our large construction portfolio in the coming years — which is why we'll need fewer employees,” Rasmus Errboe, Orsted’s chief executive, said in a statement published on CNBC. "At the same time, we want to create a more efficient and flexible organization and a more competitive Orsted, ready to bid on new value-accretive offshore wind projects.”
California Governor Gavin Newsom. Mario Tama/Getty Images
California operates the world’s largest geothermal power station, The Geysers, and generates up to 5% of its power from the Earth’s heat. But the state is far behind its neighbors on developing new plants based on next-generation technology. Most of the startups racing to commercialize novel methods are headquartered or building pilot plants in states such as Utah, Nevada, and Texas. A pair of bills to make doing business in California easier for geothermal companies was supposed to change that. Yet while Governor Gavin Newsom signed one statute into law that makes it easier for state regulators to certify geothermal plants, he vetoed a permitting reform bill to which the industry had pegged its hopes. “Every geothermal developer and energy org I talked to was excited about this bill,” Thomas Hochman, who heads the energy program at the right-leaning Foundation for American Innovation, wrote in a post on X. “The legislature did everything right, passing it unanimously. They even reworked it to accommodate certain classic California concerns, such as prevailing wage requirements.”
In a letter announcing his veto, the governor claimed that the law would have added new fees for geothermal projects. But an executive at Zanskar — the startup that, as Heatmap’s Katie Brigham reported last month, is using new technology to locate and tap into conventional geothermal resources — called the governor’s argument “weak sauce.” Far from burdening the industry, Zanskar co-founder Joel Edwards said on X, “this was a clean shot to accelerate geothermal today, and he whiffed it.”
Last month, Generate Capital trumpeted the appointment of its first new chief executive in its 11-year history as the leading infrastructure investment firm sought to realign its approach to survive a tumultuous time in clean-energy financing. Less publicly, as Katie wrote in a scoop last night, it also kicked off company-wide job cuts. In an interview with Katie, Jonah Goldman, the firm’s head of external affairs, said the company “grew quickly and made some mistakes,” and now planned to lay off 50 people.
Generate once invested in “leading-edge technologies,” according to co-founder Jigar Shah, who left the firm to serve as the head of the Biden-era DOE Loan Programs Office. That included investments in projects involving fuel cells, anaerobic digesters, and battery storage. But from the outside, he said on the Open Circuits podcast he now co-hosts, the firm appears to have moved away from taking these riskier but potentially more lucrative bets. “They ended up with 38 people in their capital markets team, and their capital markets team went out to the marketplace and said, Hey, we have all this stuff to sell. And the people that they went to said, Well, that’s interesting, but what we really would love is boring community solar.”
Three of New England’s largest public housing agencies signed deals with the heat pump manufacturer Gradient to replace aging electric heaters and air conditioners with the company’s 120-volt, two-way units that provide both heating and cooling. The Boston Housing Authority, New England’s largest public housing agency, will kick off the deal by installing 100 all-weather, two-way units that both heat and cool at the Hassan Apartments, a complex for seniors and adults with disabilities in Boston’s Mattapan neighborhood. The housing authorities in neighboring Chelsea and Lynn — two formerly industrial, working-class cities just outside Boston — will follow the same approach.
Public housing agencies have long served a vital role in helping to popularize new, more efficient appliances. The New York City Housing Authority, for example, is credited with creating the market for efficient mini fridges in the 1990s. Last year, NYCHA — the nation’s largest public housing system — signed a similar deal with Gradient for heat pumps. Months later, as Heatmap’s Emily Pontecorvo exclusively reported at the time, NYCHA picked a winner in its $32 million contest for an efficient new induction stove for its apartments.
Three chemists — Susumu Kitagawa, Richard Robson, and Omar Yaghi — won the Nobel Prize for “groundbreaking discoveries” that "may contribute to solving some of humankind’s greatest challenges, from pollution to water scarcity.” Just a few grams of the so-called molecular organic frameworks the scientists pioneered could have as much surface area as a soccer field, which can be used to lock gas molecules in place in carbon capture or harvest freshwater from the atmosphere.