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How Republicans and Democrats came together to seed new industries in specific places

The Biden administration announced on Friday that it would spend up to $7 billion to create seven new “hydrogen hubs” across the country. These hubs will house large-scale industrial facilities specializing in producing, moving, and using hydrogen, a potent gas that could play a range of roles in a climate-friendly economy. Hydrogen, which does not emit carbon pollution when burned, could decarbonize long-distance trucking, energy storage, chemical making, and heavy industry.
These hubs will, as my colleague Emily Pontecorvo writes, become important public-private laboratories for the use of clean hydrogen. They will complement tens of billions of dollars in tax credits that could soon support a clean hydrogen industry.
Although these hubs are a key part of the president’s climate strategy, they are not created by his signature climate law, the Inflation Reduction Act. They were funded, instead, by the bipartisan infrastructure law, which passed in December 2021.
That same legislation also spent $3.5 billion to create new direct air capture hubs, big regional facilities that will deploy technology capable of sucking carbon dioxide from the ambient air. In August, the Energy Department awarded the first of those hubs to Texas and Louisiana.
It matters that these two “hub”-based programs command some measure of bipartisan support. It signals, first, that these programs are likely to endure even if the GOP takes the White House next year. It shows, too, that Republicans in Congress — and especially in the Senate, where 19 Republicans voted for the infrastructure law — can back climate policy under some conditions. (Even if those conditions might involve having to negotiate with a Democratic president.)
It certainly helps, too, that hydrogen and direct air capture are two potentially climate-friendly industries where the fossil fuel industry could play the largest role. The chief executive of Occidental Petroleum, a fossil-fuel company that is building one of the first air-capture hubs, has even argued that carbon removal technology could allow the oil and gas industry to operate for decades to come.
But the bipartisan support for these programs reveal something else, too — a deeper change in how America’s leaders think about governing and growing the economy. Most coverage of the hubs has elided the fact that they’re called “hubs,” almost treating the word “hub” as a synonym for “big new economic thing.” But the hubs are called “hubs” for a reason; don’t snub the hubness of the hubs. The hubs are meant to do more than create new experimental industrial facilities at taxpayer expense. They are meant to seed specific industries in specific places, creating new centers of gravity that will allow new regional economies to form.
The idea behind the hubs goes back more than a decade. In 2010, a team of researchers at the Massachusetts Institute of Technology looked around the U.S. economy and realized something strange: Although many of the world’s most innovative and profitable companies did their R&D, design, and distribution in America, very few of them made their products here. Think of Apple, for instance, whose iPhones then bore the inscription: “Designed in California. Assembled in China.”
Why was that?, the team asked. That arrangement distorted the economy, depriving working-class people of the benefits of new industries. It also seemed unsustainable. “Without production capabilities in the U.S., can we generate new growth and jobs?” asked Suzanne Berger, a political science professor who led the project. “Can we even sustain innovation without manufacturing capabilities in the U.S.?”
The U.S. could not go on like this forever, they concluded, because innovation in design was inseparable from innovation in production. Many industries — including biotech, material science, and clean energy — required engineers to constantly flit back and forth from the factory floor to the lab, bringing problems encountered by assembly technicians back to the design engineers.
But this tight circuit of design, production, and design again didn’t just happen within influential companies, like Ford, AT&T, and 3M. One takeaway from their report, Making in America, is that innovation emerges from skilled communities of practice located in specific places. When a big company opens a factory or R&D lab somewhere, an ecosystem grows up around it. Small- and medium-sized manufacturers with their own expertise cluster around that big firm, because they can make a living by selling their own goods and services to that firm (or its competitors).
Speaking to a Senate committee in 2013, Berger described what happened when her team visited the laboratory of Tonio Buonassisi, a mechanical engineer then building a new type of solar cell. Buonassisi’s lab in Cambridge, Massachusetts, was full of cutting-edge equipment that had been made by an instrument company located only a couple hours away.
“Much of [that] machinery had been made in close collaboration between the lab and the instrument companies as they handed ideas and components and prototypes back and forth,” Berger said. “Used for the first time in the lab, these tools were now being marketed to commercial solar companies.”
At the time, the domestic solar industry was collapsing, and it worried Buonassisi. If American solar-cell makers went out of business, then it would put his specialty toolmaker out of business, too — and slow down or possibly end his own research agenda. “Even in a fragmented global economy with instant connection over the Internet to anywhere in the world,” Berger said, the close geographic ties “that connect research in its earliest stages to production in its final phases remain vital.”
When you start looking, you see endless evidence of these ecologies of production, these skilled communities of practice, everywhere. Silicon Valley once earned its name because it housed a booming semiconductor manufacturing industry nurtured by the Defense Department. A chip conductor at Intel could access a specialty lens maker, or metallurgist, or chemicals maker only a short drive away; even outside of work, these people met at bars and socialized in the same places. Soon, that semiconductor ecosystem gave rise to other adjacent businesses: a software industry that could write code for those semiconductors, and a personal computing industry that could make semiconductors useful to mass-market consumers; those industries gave rise to today’s tech industry.
Nor was that region’s power solely rooted in its technicians. The banks near Silicon Valley grew so familiar with the hardware and software industries that they could finance companies there more easily and cheaply than other financial institutions. One of those institutions even named itself after Silicon Valley.
Today, America has relatively few of these innovative clusters left. The point of the hub-based strategy is to build them back. The idea of the hubs isn’t only that America will get seven new large-scale facilities that produce or process hydrogen, or four new facilities that suck carbon out of the air. The object is that these big facilities will anchor new skilled communities of practice, the same way that, say, a deep-sea volcanic vent gives rise to an entire colorful food chain. President Biden might be announcing a new Philadelphia-based hydrogen hub today, but we won’t know if that hub will be a success until it’s scuttling with metallurgists and chemists and financiers and specialty electricians in 10 years.
The hydrogen and direct air capture facilities, in other words, are meant to grow into true hubs — hubs of engineering, hubs of finance, hubs of innovation. The government, having recognized that new industries and industrial centers will not form naturally, is now trying to seed them intentionally.
That is far from the laissez faire approach to innovation once embraced by policymakers. And it matters that Democrats and Republicans alike have embraced it in the infrastructure law: It reveals the growing belief that free markets alone will not keep America at the top of the global economy. Today’s announcement might be the first time you hear about a new federally supported “hub.” It probably won’t be the last.
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Co-founder Mateo Jaramillo described how the startup’s iron-air battery could help address the data center boom — and the energy transition
Well before the introduction of ChatGPT and Claude, Ireland underwent a data center construction boom similar to the one the U.S. is experiencing today.
That makes it a fitting location for Form Energy’s first project outside the U.S. Mateo Jaramillo, the CEO of the long-duration energy storage startup, described Ireland as “a postcard from the future” at Heatmap House, a day of conversations and roundtables with leading policymakers, executives, and investors at San Francisco Climate Week.
In a one-on-one interview with Robinson Meyer, Jaramillo went on to explain the potential of a 100-hour battery, calling it the duration at which you can “functionally replace thermal resources on the grid or compete with them.” Such storage capacity would not only bolster data centers’ power reliability but also speed up the transition from oil and gas to renewables.
Form Energy, which Jaramillo co-founded in 2017, is best known for its iron-air battery that can continuously discharge energy for 100 hours. In February, the startup announced a partnership with Google and the utility Xcel Energy to build the highest-capacity battery in the world, capable of storing 30 gigawatt-hours of energy, as Heatmap’s Katie Brigham reported.
Despite the troublesome state of renewables deployment in the U.S., energy storage firms like Form appear to be doing well, thanks to record load growth. “When we founded the company, we didn’t anticipate the boom of data center demand that we’re currently experiencing,” said Jaramillo. “But we did bet on the overall mega-trend being pretty firmly in place, which is electricity growth.”
In addition to load growth, battery manufacturers are still benefiting from the Inflation Reduction Act’s energy storage tax credits, which survived the deep cuts Republicans made to the signature climate law last summer. Jaramillo noted that customers can still claim a tax credit for purchasing energy systems, while a manufacturing protection credit also remains in place. “We absolutely qualify for both those things,” Jaramillo said. “In fact, 100 hours as a duration is written into the legislative text for the manufacturing [tax credit].”
Though batteries can help accelerate the retirement of natural gas plants by providing firm energy to supplement renewables’ generation, politicians’ fear of load growth seems to have forged a bipartisan consensus supporting batteries. For its part, Form Energy is focused on continuing to drive down the cost of its iron-air battery.
From “where we sit today,” Form Energy is “quite confident that we will hit that roughly $20 a kilowatt-hour cost within a very short period of time,” Jaramillo said.
At San Francisco Climate Week, John Reynolds discussed how the state is juggling wildfire prevention, climate goals, and more.
Blessed with ample sun and wind for renewables but bedeviled by high electricity prices and natural disasters, California encapsulates the promise and peril of the United States’ energy transition.
So it was fitting that Heatmap House, a day of conversations and roundtables with leading policymakers, executives, and investors at San Francisco Climate Week, kicked off with John Reynolds, president of the California Public Utilities Commission.
The CPUC oversees the most-populous state’s utilities and has the power to approve or veto electricity and natural gas rate increases. At Heatmap House, Reynolds — “one of California’'s most important climate policymakers,” as Heatmap’s Robinson Meyer called him — affirmed that affordability has been top of mind as power bills have risen to become a mainstream political issue across the country. California’s electricity prices are the second-highest in the nation, behind only Hawaii, according to the Electricity Price Hub.
“I’d really like to see us drive down the portion of household income that is consumed by energy prices,” Reynolds said in a one-on-one interview with Rob. “That’s a really important metric for making sure that we’re doing our job to deliver a system that’s efficient at meeting customer needs and is able to support the growth of our economy.”
The Golden State’s power premium has been exacerbated by the fallout from multiple wildfires that have devastated various parts of the state in recent years, which have necessitated costly grid upgrades such as undergrounding power lines. California-based utility PG&E has also invested in more futuristic fire solutions such as “vegetation management robots, power pole sensors, advanced fire detection cameras, and autonomous drones, with much of this enhanced by an artificial intelligence-powered analytics platforms,” as Heatmap’s Katie Brigham wrote shortly after last year’s fires in Los Angeles.
Affordability affects not just Californians’ financial wellbeing, but also the state’s ability to decarbonize quickly. “The affordability challenge that we’re seeing in electric and gas service is one that is going to make it more difficult to meet our climate goals as a state,” Reynolds said.
One contentious — and somewhat byzantine — aspect of California’s energy transition is how much of a financial incentive the CPUC should offer for residents to install rooftop solar. Net metering is a billing system that rewards households with solar panels for sending excess generation back to the grid. Three years ago, the CPUC adopted a new standard that substantially lowered the rate at which solar panel users were compensated.
“We had to slow the bleeding,” Reynolds said, referring to the greater financial burden paid by utility customers without solar panels. “The net billing tariff did slow the bleeding, but it didn’t stop it.”
Asked whether he is focused more on electricity rates (the amount a customer pays per kilowatt-hour) or bills (the amount a utility charges a ratepayer), Reynolds said both are important.
“If we can drive down electric rates, we’re going to enable more electrification of transportation and of buildings,” Reynolds said. “It’s really important to look at bills, because that is fundamentally what hits households. People’s wallets are limited by their bills, not by their rates.”
The state has terminated an agreement to develop substations and other necessary grid infrastructure to serve the now-canceled developments.
Crucial transmission for future offshore wind energy in New Jersey is scrapped for now.
The New Jersey Board of Public Utilities on Wednesday canceled the agreement it reached with PJM Interconnection in 2021 to develop wires and substations necessary to send electricity generated by offshore wind across the state. The board terminated this agreement because much of New Jersey’s expected offshore wind capacity has either been canceled by developers or indefinitely stalled by President Donald Trump, including the now-scrapped TotalEnergies projects scrubbed in a settlement with his administration.
“New Jersey is now facing a situation in which there will be no identified, large-scale in-state generation projects under active development that can make use of [the agreement] on the timeline the state and PJM initially envisioned,” the board wrote in a letter to PJM requesting termination of the agreement.
Wind energy backers are not taking this lying down. “We cannot fault the Sherrill Administration for making this decision today, but this must only be a temporary setback,” Robert Freudenberg of the New Jersey and New York-focused environmental advocacy group Regional Plan Association, said in a statement released after the agreement was canceled.
I chronicled the fight over this specific transmission infrastructure before Trump 2.0 entered office and the White House went nuclear on offshore wind. Known as the Larrabee Pre-Built Infrastructure, the proposed BPU-backed network of lines and electrical equipment resulted from years of environmental and sociological study. It was intended to connect wind projects in the Atlantic Ocean to key points on the overall grid onshore.
Activists opposed to putting turbines in the ocean saw stopping the wires as a strategy for delaying the overall construction timelines for offshore wind, intensifying both the costs and permitting headaches for all state and development stakeholders involved. Some of those fighting the wires did so based on fears that electromagnetic radiation from the transmission lines would make them sick.
The only question mark remaining is whether this means the state will try to still proceed with building any of the transmission given rising electricity demand and if these plans may be revisited at a later date. The board’s letter to PJM nods to the future, asserting that new “alternative pathways to coordinated transmission” exist because of new guidance from the Federal Energy Regulatory Commission. These pathways “may serve” future offshore wind projects should they be pursued, stated the letter.
Of course, anything related to offshore wind will still be conditional on the White House.