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When I was an analyst at the U.S. Treasury, my team’s work centered around promising private investors that we would make it easier for them to invest in renewable energy projects across the Global South. I kept hearing that our job was ultimately to make these projects “bankable.” As the logic went, “there is a sizeable universe of good projects that fall just below many private investors’ desired rate of return,” and therefore lowering the risks of investing in these “good projects” would put them within reach of private investors’ return expectations. To make decarbonization possible, we had to make decarbonization profitable.
This claim cuts straight through Brett Christophers’ latest book, The Price is Wrong: Why Capitalism Won’t Save the Planet, which argues that the cost of developing and generating renewable energy is not what will determine the speed or scale of its uptake. It might finally be cheaper to build solar panels and wind farms than a coal or gas plant, that’s for sure. But given the structure of our energy markets today, it does not follow that assets that are cheap to build are necessarily profitable enough to provide adequate returns to investors.
My old colleagues might have already been aware of this fact, but as Christophers highlights, it’s certainly not intuitive, even to many analysts. Nor are its implications: Decarbonization won’t happen if it’s not profitable enough ― and it’s not profitable enough.
Christophers is a professor at Sweden’s Uppsala University in its “department of human geography,” whose research focuses on how capitalism and the modern financial system shape our lives; in this book, that also includes our energy systems. To make his case, he highlights the vicious feedback loop affecting renewables endemic to today’s energy markets. Government support to build renewable energy drives down its marginal cost, but because there’s now more renewable energy available at any given moment, the falling costs cut into developers’ expected returns, requiring more government support to keep investors and developers interested in the sector.
Combine this dynamic with technical features endemic to renewable energy generation, including its intermittency, and the result is a wholesale electricity market with perennially unstable prices. This volatility throttles the expected returns on any investment in renewable energy. No matter how cheap it is to build renewable energy, private investors and developers won’t decarbonize our globe at the speed or scale we deserve ― not under these financial conditions, at least.
Christophers leans on two theoretical guideposts here. First, Andreas Malm, whose assessment of how the profit motive, not relative costs, drove Britain’s first energy transition from water-wheels to coal and steam is an unmistakable conceptual parallel to today’s transition. Second, Karl Polanyi, whose theory of “fictitious commodities” — referring to land, labor, and money, each of which the state and society must painstakingly regulate into fungible market-friendly products ― Christophers aptly applies to electricity and the artificial markets created around it.
But rather than hew to theory to justify why the energy system needs to be socialized to achieve decarbonization ― which is definitely true, by the way; the profit motive is supremely unhelpful here ― Christophers embraces a holistic understanding of the economy as a set of financial relationships, supply chains, planned markets, and legal institutions connecting various public and private entities with different motives.
That means interviewing investors, who tell him things like: “Low returns and volatility don’t go. No bank in the world will take power price risk at low returns.” Christophers also produces a detailed and data-rich breakdown of the interlocking global energy crises in 2021 and 2022, jumping between Texas, China, India, Australia, and across Europe, to make a larger point about energy markets. These crises were “not taken to be evidence of the failings of markets, or even a reason to question their role as the pre-eminent mechanism of coordination to the state’s electricity sector,” he writes; “the market was regarded as the very means to manage the crisis.” But the markets aren’t working. Something has to give.
He ends the book with a call for socialized power, inspired by the Green New Deal and New York’s Build Public Renewables Act, championed by the state’s democratic socialists on the explicit grounds that, because delivering on the state’s emissions targets is not profitable enough for the private sector to do alone, the public sector must get the job done. With the force of the whole book’s arguments and evidence behind it, this policy prescription hardly appears radical.
Public developers can accept lower profitability thresholds, and public finance institutions can provide debt on more forgiving terms; under the public aegis, rates of return and costs of capital become policy choices. Christophers admits in his introduction that he is more focused on unearthing the fragile relationships among actors across the renewable energy industry than on describing the ways a New York-inspired socialized power sector could function. Given how much there is to unearth, it’s a reasonable choice, but it leaves readers without a working heuristic for the different ways states can intervene in the business of energy.
Here’s my attempt: Energy must be financed, generated, distributed, and consumed. Government intervention in favor of decarbonization looks distinct at each step.
Governments can provide consumption support by shielding ratepayers from the higher electricity bills that come from potential utility investments into renewable energy procurement and decarbonization-related grid management, backstopping utility investments through a demand guarantee. Consumption support is equitable, but it’s also indirect and incomplete — it might provide a utility with more financial breathing room to procure or develop renewables, but if renewables are not available to procure on the grid or are not easy to develop, this demand guarantee likely just pads the utility’s bottom line.
Governments can provide distribution support by encouraging utilities to purchase renewable energy. Distribution support most often takes the form of regulatory nudges: In the United States, mandates like Renewable Portfolio Standards force utilities to increase their clean energy procurement, guaranteeing purchase demand for clean electricity and Renewable Energy Certificates, which companies might buy to clean up their own energy portfolios.
These demand-guarantee interventions have helped speed up renewable energy development nationwide, but with limits. In particular, utility power purchase agreements don’t provide developers with adequate price stability because utilities fix the quantity of energy they purchase rather than the price; corporate PPAs, meanwhile, cannot be relied on at scale because there aren’t enough large creditworthy corporations like Google and Amazon willing to commit to buying energy from new projects at a fixed price. For these reasons and more, supporting utilities’ efforts to decarbonize will not call forth adequate renewable energy generation sources into existence.
Generation support is what most governments already do. Whether through feed-in tariffs, production tax credits, or contracts for difference, generation support entails propping up generators’ profitability, ensuring that the sale price of their energy is never too low. Christophers explains why this mechanism — that is, a revenue guarantee rather than a demand guarantee — is deeply necessary: Renewable energy sources and the energy markets they’re plugged into are both structurally volatile, so, no matter how much energy they generate, they never generate all that much profit. Withdrawing generation support would be, in no uncertain terms, a death knell for renewables development.
And, finally, financing support targets renewable energy sources as capital-intensive assets requiring huge amounts of upfront debt. Whether through the investment tax credit, viability gap funding, concessional financing, or other forms of cost-share plans, financing support is another form of direct price support for generation companies; by lowering a project’s cost of capital, it helps lower its developer’s threshold for project profitability, meaning that generators pay less debt service and keep more of their revenues. High interest rates have lately forced up the cost of debt for renewable energy projects to unsustainable levels, far above private developers’ prospective rates of return. Financing support is a must-have these days ― and it’s all the more necessary across the Global South, where the costs of capital are far higher.
None of this is to say that socializing generation and finance solves every problem ― as far as the United States is concerned, non-financial barriers abound, such as regulations and interconnection queues ― but within the existing structure of energy markets, public ownership does solve a lot.
What does direct government intervention into energy consumption and distribution look like? Public ownership of local distribution utilities is a start. Unlike private utility companies, they don’t need to promise ten percent returns to shareholders, and can use the financial breathing room that comes from lower profitability thresholds to tamp down rate hikes and, perhaps more importantly, rate volatility. Public utilities will not drive decarbonization, but they could potentially help advance transmission reform and better integrate distributed energy resources into the grid.
Christophers all but argues that the best thing governments can do for all four support categories is to redesign energy markets. Beyond simply incentivizing the deployment of clean firm and battery technologies to complement renewables, policymakers’ biggest task is to build an energy system where volatile wholesale energy prices ― which even publicly owned renewable energy developers will have to face for the foreseeable future ― are not the reason that a project fails to get built. That would be a policy failure, and we don’t have time for those.
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On MARVEL’s market, a climate retraction, and Eavor’s geothermal milestone
Current conditions: A nor’easter dumping as much as a foot of snow on parts of the Upper Midwest is set to dust New York City on its way to deliver heavier snow to northern New England • Temperatures nearly topped 90 degrees Fahrenheit in Charlotte Amalie, U.S. Virgin Islands, as America’s third-most populous overseas territory endures a record December heatwave • South Australia, Victoria, and Tasmania are all under severe fire warnings.
It was the best of times, it was the worst of times, it was the age of smashing solar installation records, it was the age of phasing out the federal tax credits that so successfully spurred the boom in the first place. The United States added 2 gigawatts of utility-scale solar in September, bringing the total installed this year to 21 gigawatts. That, as Utility Dive noted of newly released Federal Energy Regulatory Commission data, is slightly above the 20 gigawatts installed in the same period last year. Of the 28 gigawatts of new generation the U.S. installed so far in 2025, 75% was solar, followed by wind at 13% and gas at 11%. Still, natural gas makes up the largest share of the U.S. grid’s electricity capacity, with 42% compared to the combined 31% that wind, solar, and hydro comprise. And the picture isn’t getting better. As Heatmap’s Jael Holzman wrote yesterday, the solar industry is “begging Congress for help with Trump.”

For the past four years, the Department of Energy has been developing its very own microreactor. The Microreactor Application Research Validation and Evaluation, or MARVEL, is a 10-kilowatt, liquid-metal cooled microreactor currently under construction at the Idaho National Laboratory. On Thursday, the lab unveiled the “first potential end users for MARVEL,” including Amazon Web Services, energy equipment giant GE Vernova, oil giant ConocoPhillips, and the data center operator DCX. “With access to MARVEL, companies can explore how microreactors will potentially help us win the global AI race, solve water challenges, and so much more,” John Jackson, national technical director for the microreactor program at the Energy Department’s Office of Nuclear Energy, told Power magazine. “The MARVEL testbed exemplifies how nuclear energy can open the door to a stronger, safer and more prosperous future for our country.”
It’s part of the strides the Trump administration has taken on nuclear power recently. Earlier this week, as I wrote here, the Energy Department awarded $400 million each to two small modular reactor projects aiming to build the first lower-powered versions of third-generation units based on the light water reactors already in operation today. Last month, as I covered in this newsletter, the agency put up a $1 billion loan to fund the restart of the working reactor at the Pennsylvania plant once known as Three Mile Island. There is, after all, what Heatmap’s Katie Brigham called a very “real” nuclear dealmaking boom afoot.
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The prestigious journal Nature has retracted a study published last year that concluded that climate change would cause a catastrophic drop in economic output of 62% by the end of the century, a jarring finding taken so seriously that central banks worked the warning into risk-assessment models. But a team of economists noticed an error in data from Uzbekistan. Excluding the Central Asian republic from the calculation pegged the predicted plunge in economic activity at 23%. That doesn’t mean climate change isn’t an economic threat, as the papers detractors noted to The New York Times. “Most people for the last decade have thought that a 20% reduction in 2100 was an insanely large number,” said Solomon Hsiang, a professor of global environmental policy at Stanford University who in August co-wrote the critique of the original study. “So the fact that this paper is coming out saying 60% is off the chart.”
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The advocacy group Rewiring America is out with an interesting new thought experiment on the potential benefits of making the country’s households more energy efficient as a means of clearing space on the grid for data centers. Upgrading U.S. houses, condos, and apartments with efficient appliances, solar panels, and batteries could create enough capacity to meet the rising electricity demand of large data centers over the next five years. Doing so would create more than 600,000 jobs for carpenters, electricians, and others involved in the supply chain. Virtual power plants — software systems that allow utilities to pay homeowners for the right to tap into rooftop solar panels, batteries, plugged-in electric vehicles, and smart thermostats to balance the grid — are, advocates say, emerging as a potential source of large-scale power that can be harnessed in the next few years, a timescale relevant to many data center projects that are expected to complete construction before new power plants can come online.
Back in October, I told you the next-generation geothermal startup Eavor was on the brink of completing its first power plant south of Munich, Germany. Now the Calgary-based company has entered into commercial operation. Eavor officially delivered its first electrons to the German grid from its facility in Geretsried. Eavor hailed the milestone as proof not just of its potential to operate a generating plant but a victory for its in-house drilling technology designed to carve a closed-loop well deep underground. “With Geretsried now on-stream, we’re more confident than ever that our closed-loop geothermal system, designed for adaptability and suited to the world’s diverse regions, will secure its place as the leading solution for commercial geothermal application,” CEO Mark Fitzgerald said in a statement. It’s not the only geothermal startup making waves. As I wrote in yesterday’s newsletter, Zanskar, the Salt Lake City-based company using artificial intelligence to find new conventional geothermal resources, just claimed one of the biggest discoveries in the U.S. in more than 30 years.
You may also recall another newsletter from October where I told you that all Trump’s nominees to serve on the board of the Tennessee Valley Authority vowed to stand against privatizing the federally-owned utility, easing fears that the president’s recent boardroom meddling wasn’t an attempt at selling off the power provider on which more than 10 million Americans depend for cheap electricity. If you agree with analyses showing public ownership as the best way to keep prices down, then I have good news for you. When businessman and Republican megadonor Lee Beaman came before the Senate for a confirmation Wednesday, the nominee for the board said his preference for private enterprise came with an exception for the TVA. “Although I generally believe that the private sector is more efficient than government, in the case of TVA, I think TVA is more uniquely, appropriately operated as a government entity,” Beaman told the Senate Environment and Public Works Committee, per E&E News.
A letter from the Solar Energy Industries Association describes the administration’s “nearly complete moratorium on permitting.”
A major solar energy trade group now says the Trump administration is refusing to do even routine work to permit solar projects on private lands — and that the situation has become so dire for the industry, lawmakers discussing permitting reform in Congress should intervene.
The Solar Energy Industries Association on Thursday published a letter it sent to top congressional leaders of both parties asserting that a July memo from Interior Secretary Doug Burgum mandating “elevated” review for renewables project decisions instead resulted in “a nearly complete moratorium on permitting for any project in which the Department of Interior may play a role, on both federal and private land, no matter how minor.” The letter was signed by more than 140 solar companies, including large players EDF Power Solutions, RES, and VDE Americas.
The letter reinforces a theme underlying much of Heatmap’s coverage since the memo’s release — that the bureaucratic freeze against solar decision-making has stretched far beyond final permits to processes once considered ancillary. It also confirms that the enhanced review has jammed up offices outside Burgum’s purview, such as the Army Corps of Engineers, which oversees wetlands, water crossings, and tree removals, and requires Interior to sign off on actions through the interagency consultation process.
SEIA’s letter asserts that the impacts of Burgum’s memo stretch even to projects on private lands seeking Interior’s assistance to determine whether federally protected species are even present — meaning that regardless of whether endangered animals or flowers are there, companies are now taking on an outsized legal risk by moving forward with any kind of development.
After listing out these impacts in its letter, SEIA asked Congress to pressure Interior into revoking the July memo in its entirety. The trade group added there may be things Interior could do besides revoking the memo that would amount to “reasonable steps” in the “short-term to prevent unnecessary delays in energy development that is currently poised to help meet the growing energy demands of AI and other industries.” SEIA did not elaborate on what those actions would look like in its letter.
“Businesses need certainty in order to continue making investments in the United States to build out much-needed energy projects,” SEIA’s letter reads. “Certainty must include a review process that does not discriminate by energy source.” It concludes: “We urge Congress to keep fairness and certainty at the center of permitting negotiations.”
Notably, the letter arrived after American Clean Power — another major trade group representing renewable energy companies — backed a major GOP-authored permitting bill called the SPEED Act that is moving through the House. Although the bill has some bipartisan support from the most moderate wing of the House Democratic caucus, it has yet to win support from Democrats involved in bipartisan permitting talks, including Representative Scott Peters, who told me he’d back the bill only if Trump were prevented from stalling federal decision-making for renewable energy projects.
SEIA has deliberately set itself apart from ACP in this regard, telling me last week that it was neutral on the legislation as it stands. In a statement released with the letter to Congress, the trade group’s CEO, Abigail Ross Hopper, said that while “the solar industry values the continued bipartisan engagement on permitting reform, the SPEED Act, as passed out of committee, falls short of addressing this core problem: the ongoing permitting moratorium.”
“To be clear, there is no question we need permitting reform,” Hopper stated. “There is an agreement to be reached, and SEIA and our 1,200 member companies will continue our months-long effort to advocate for a deal that ensures equal treatment of all energy sources, because the current status of this blockade is unsustainable.”
In a statement to Heatmap News, Interior spokesperson Alyse Sharpe confirmed the agency is using its “current review process” on “federal resources, permits or consultations” related to solar projects on “federal, state or private lands.” “This policy strengthens accountability, prevents misuse of taxpayer-funded subsidies and upholds our commitment to restoring balance in energy development.” The agency declined to comment on SEIA’s request to Congress, though. “We don’t provide comment on correspondence to Congress regarding Interior issues via the media,” Sharpe said.
A new model from Johns Hopkins’ Net Zero Industrial Policy Lab uses machine learning to predict tomorrow’s industrial powerhouses.
It’s no secret that China, Japan, and Germany are industrial powerhouses, with vast potential in clean tech manufacturing. So how’s a less industrialized nation with an eye on the economy of the future supposed to compete? Are protectionist policies such as tariffs a good way to jumpstart domestic manufacturing? Should it focus on subsidizing factory buildouts? Or does the whole game come down to GDP?
According to a new machine learning tool from Johns Hopkins’ Net Zero Industrial Policy Lab, none of the above really matters all that much. Many of the policies that dominate geopolitical conversations aren’t strongly correlated with a country’s relative industrial potential, according to the model. The same goes for country-specific characteristics such as population, percentage of industry as a share of GDP, and foreign direct investment, a.k.a. FDI. What does count? A nation’s established industrial capabilities, and the degree to which they cross over to climate tech.
The purpose of the tool, named the Clean Industrial Capabilities Explorer, is to help policymakers “X-ray your country’s existing industrial base to identify what are your genuine strengths,” Tim Sahay, co-director of the lab, told me. The model, he explained, can identify “which core capabilities in your underlying industrial know-how are weak. That is like a diagnosis of what you should get into.”
The model calculates competitiveness across 10 clean energy technologies: solar, wind, batteries, electrolyzers, heat pumps, permanent magnets, nuclear, biofuels, geothermal, and transmission. That analysis ultimately surfaced five “core capabilities” that are most predictive of a country’s relative strength in each technology area: electronics, industrial materials, machinery, chemicals, and metals. Strength in geothermal, for example, is highly correlated with a machinery-focused industrial base, since building a geothermal plant requires expertise in making drilling rigs, heat exchangers, and steam turbines.
This “X-ray” of national capabilities not only confirms the dominance of leading Asian and European manufacturing economies, it also surfaces a group of lesser-known nations that appear well-positioned to become major future producers and exporters of key clean technologies. These so-called “future stars” include a handful of Central European countries — Czechia, Slovenia, Hungary, Slovakia, and Poland — plus the Southeast Asian economies of Malaysia, the Philippines, Thailand, and Vietnam. In Africa, Ethiopia emerges as the most promising economy.

Take Hungary as an example — its core competencies are machinery, electronics, and chemicals, making the country highly competitive when it comes to producing components for batteries, biofuels, and the machinery critical for geothermal power plants. The U.S., by comparison, excels at nuclear, electrolyzers, biofuel, and geothermal.
Many of the European future stars appear to benefit from their proximity to Germany, long an industrial stronghold in the region. “Poland, for example, received a huge amount of German FDI in the late 90s, early 2000s,” Sahay told me, explaining that countries in this region built up strength in their chemicals and metals sectors under the influence of the Soviet Union. Germany then set up these countries as key suppliers for its various industries, from autos to chemicals.
Of the 10 countries identified as rising stars, all of them received Chinese investment sometime in the past 10 years, Sahay said. “What we are seeing is decisions that have been made over the last couple of decades are bearing fruit in the 2020s,” he said, explaining that all of the countries on the list “were identified as places for potential investment by the world’s leading industrial firms in the 2000s or 2010s.”
This has led Bentley Allan, a political science professor and co-director of the policy lab, to think that China is likely doing some modeling of its own to determine where to direct its investments. Whatever the country is working with, it’s arriving at essentially the same conclusions regarding which nations show strong industrial potential, and are thus attractive targets for investment. “China isn’t the only one who can benefit from that strategy, but they’re the only ones being strategic about it at the moment,” Allan told me.
Allan’s hope is that the tool will democratize the knowledge that’s helped China dominate the global clean tech economy. “No one’s produced a global tool that enables not just China to invest strategically, but enables the U.S. to invest strategically, enables the UK to invest strategically in the developing world,” he explained. That’s critical when figuring out how to build an industrial base that can weather geopolitical tensions that might necessitate, say, a shift away from Chinese imports or Russian gas.
While it might not be particularly surprising that a country’s existing industrial capabilities strongly correlate with its potential industrial capabilities, the reality is that in many cases, getting a clear view of a country’s actual core competencies is not so straightforward. That’s because, as Allan told me, economists simply haven’t made widely available tools like this before. “They’ve made other tools for managing the macroeconomic environment, because for 60 years we basically thought that that was the only lever worth pulling,” he said.
Due to that opacity around industrial strength, model was able to yield some findings that the researchers found genuinely surprising. For example, not only did the tool show that countries such as the Philippines and Malaysia have stronger manufacturing bases than Allan would have guessed, it ranked Italy higher than Germany in overall competitiveness, showing solid potential in the nuclear, transmission, heat pump, electrolyzer, and geothermal industries.
That illustrates another complication the model solves for — namely that the countries with the most potential aren’t always the ones pursuing the most robust or intentional green industrial strategies. Both Italy and Japan, for instance, are well-positioned to benefit from a more explicit, structured focus on climate tech manufacturing, Allan told me.
Industrial strength will likely not be achieved through broad economic policies such as tariffs, subsidies, or grant programs, however, according to the model. Say for example that a country wants to deepen its expertise in solar manufacturing. “The things that you might want to invest in are things like precision machinery to produce the cutters that actually are used to cut the polysilicon into wafers,” Allan told me. “It’s more about making targeted investments in your industrial base in order to produce highly competitive niches as a way to then make you more competitive in that final product.”
This approach prevents countries from simply serving as final assemblers of battery packs or solar panels or other green products — a stage that provides low value-add, as countries aren’t able to capture the benefits of domestic research and development, engineering expertise, or intellectual property. Pinpointing strategic niches also helps countries avoid wasting their money in buzzy industries where they’re simply not competitive.
“The industrial policy race is very much hype-driven. It’s very much driven by, oh my god, we need a hydrogen strategy, and, oh my god, we need a lithium strategy,” Sahay told me. “But that’s not necessarily going to be what your country is going to be good at.” By pointing countries towards the industries and links in the supply chain where they actually could excel, Sahay and Allan can demonstrate they stand to benefit from the clean energy transition at large.
Or to put it more broadly, when done correctly, “industrial policy is climate policy, in the sense that when you advance industry generally, you are actually advancing the climate,” Allan told me. “And climate policy is industrial policy, because when you are trying to advance the climate, you advance the industrial base.”