You’re out of free articles.
Log in
To continue reading, log in to your account.
Create a Free Account
To unlock more free articles, please create a free account.
Sign In or Create an Account.
By continuing, you agree to the Terms of Service and acknowledge our Privacy Policy
Welcome to Heatmap
Thank you for registering with Heatmap. Climate change is one of the greatest challenges of our lives, a force reshaping our economy, our politics, and our culture. We hope to be your trusted, friendly, and insightful guide to that transformation. Please enjoy your free articles. You can check your profile here .
subscribe to get Unlimited access
Offer for a Heatmap News Unlimited Access subscription; please note that your subscription will renew automatically unless you cancel prior to renewal. Cancellation takes effect at the end of your current billing period. We will let you know in advance of any price changes. Taxes may apply. Offer terms are subject to change.
Subscribe to get unlimited Access
Hey, you are out of free articles but you are only a few clicks away from full access. Subscribe below and take advantage of our introductory offer.
subscribe to get Unlimited access
Offer for a Heatmap News Unlimited Access subscription; please note that your subscription will renew automatically unless you cancel prior to renewal. Cancellation takes effect at the end of your current billing period. We will let you know in advance of any price changes. Taxes may apply. Offer terms are subject to change.
Create Your Account
Please Enter Your Password
Forgot your password?
Please enter the email address you use for your account so we can send you a link to reset your password:
The effort to preserve the beloved landmark from sea-level rise epitomizes an existential struggle for historic waterfronts

When San Francisco’s Ferry Plaza Farmers Market is in full Saturday swing, one way to dodge the determined foodies and casual browsers is to retreat to the plaza just 30 steps south of the Ferry Building. It sits atop three tiers of dark-veined granite, accessible by two flights of nine stairs or a ramp that ascends along the water to a trio of ferry gates that, like the plaza, were completed in 2021.
The chosen height hints at what someday might be the norm — the elevation where San Francisco’s constructed shoreline will need to be to serve as a protective buffer between the natural bay and the developed city. Here, more than any place on today’s Embarcadero, you confront the existential predicament facing the Ferry Building, nearby piers, and resurrected waterfronts in other coastal American cities: sea level rise.
According to projections that were modeled by climate scientists in 2018, San Francisco Bay faces a 66% likelihood that average daily tides will rise 40 inches by 2100, with roughly half of the increase during the next 50 years and the pace accelerating after that. The same report includes an extreme but peer-reviewed scenario where the projected increase soars to 93 inches during that same period — making grim numbers profoundly worse.
So-called king tides already arrive monthly during the winter, a natural occurrence related to the moon’s gravitational pull that can send waves washing past Pier 14 into the Embarcadero’s protected bike lane. Behind Pier 5, water swells up and over the edge of the public walkway. For now, that occasional splash of excitement is less fearsome than fun — but if current forecasts are anywhere near accurate, future generations will face a double bind.
The threat isn’t just that tides might creep upward as temperatures increase. It’s that the extreme rainfall patterns we already experience will grow more intense, those destructive storms that in recent years have introduced terms like atmospheric rivers and bomb cyclones into conversations about the weather. For instance, if daily tides are a foot higher in 2050 than they are now — the “likely” projection — a major storm could surge 36 inches beyond where it would register today.
In the case of the Embarcadero, the hypothetical one-foot rise coupled with an “intense storm” — the sort that in the past might occur every five years — would send bay waters rushing toward the roadway in a dozen locations if the storm hit when winds were brisk and the tide was high. Kick the downpour’s fervor to the scale of the bomb cyclone that hit the Bay Area in October 2021 — a day-long deluge that was the equivalent of what scientists call a 25-year storm — and the Embarcadero could be closed for nearly a mile between Folsom Street and Pier 9. Water spilling across the roadway could flow down into the BART and Muni subway beneath Market Street, potentially paralyzing both systems.
The new plaza and the elevated ferry gates might rebuke the surging tides to come, but the landmark next door would be more vulnerable than ever. The Ferry Building has ridden out many perils since opening day in 1898, from earthquakes and the onslaught of automobiles to political tumult, misguided renovations, and the wear and tear of urban life. Now it faces the implacable though seemingly far-off threat of rising waters, as if nature was determined to restore the marshes and tidal flats that long-dead San Franciscans covered and forgot.
The addition of the granite plaza is an indicator of the danger facing the icon to its north. And it’s not as if our hefty landmark with that vaulted concrete foundation can be jacked up out of harm’s way.
Or can it?

Steven Reel headed west from Philadelphia in 1992 to earn a structural engineering degree at Stanford University because, he says now, “structural engineering means ‘earthquakes’ at Stanford, and earthquakes make structural engineering a lot more interesting.” The Bay Area was a good place to live, and local governments were investing heavily in seismic upgrades after the 1989 Loma Prieta earthquake. In 2010, Reel successfully applied for a job at the Port of San Francisco and, to his surprise, grew intrigued by the historic aspects of making an urban shoreline function in the here and now.
“I’d start studying old engineering drawings for projects and then go down the rabbit hole,” recalls Reel, an easygoing bureaucrat with a beard that approached Rasputin-like proportions during the pandemic (he since has trimmed it back). He also began to notice regional planners stressing sea level rise in meetings.
His first project at the port was Brannan Street Wharf, where two ramshackle piers midway between the Bay Bridge and the ballpark were torn out and replaced by a four-hundred-foot-long triangular green. The response to climate concerns involved a slight upward incline from the Embarcadero promenade and a concrete lip along the edge (the same move since used for the plaza near the Ferry Building).
There was another natural threat to consider — the possibility that a tremor on the scale of the Great 1906 San Francisco Earthquake could strike again. Would the Ferry Building and the seawall hold, as before? Or would the three-mile-long agglomeration of boulders and concrete give way after all this time? Reel found himself with a new job title — manager of the seawall program — and responsibilities that included a $450,000 study with consultants being told to diagnose the barrier’s health and prescribe possible remedies.
The findings, released in April 2016, answered some questions and posed a host of others.
The good news is that even with a cataclysmic earthquake, “complete failure of the seawall is unlikely.” The rocks and boulders that form a dike beneath the concrete wouldn’t scatter like marbles. The Financial District wouldn’t be sucked into the bay toward Oakland. But the combination of sandy fill atop soft mud, behind an aged barrier with thousands of potentially moving parts of varying size, is a dangerous combination. The fill was “subject to liquefaction,” the report confirmed, making it likely that the seawall could slump and lurch outward.
“A repeat of the 1906 earthquake is predicted to cause as much as $1b in damage and $1.3b in disruption costs,” the report declared. Better to strengthen the entire three-mile seawall before a disaster struck — though the cost estimates to do this were “on the order of $2 to $3 billion.” The consultants also emphasized that even with an upgraded seawall, the slow-moving threat posed by sea level rise “will necessitate intervention ... over the next 100 years.” Figure that in, and the combined price tag approached $5 billion.
The city approached voters with a $425 million bond in 2018 to fund the first round of projects; smartly, the campaign emphasized seismic concerns, lightening the ominous message with such creative touches as a neighborhood brewpub’s limited-release sour beer dubbed “Seawall’s Sea Puppy.” The bond passed with 83% support. “The earthquake message resonates,” Reel says. “Without it, I don’t think all this would have moved forward as it did.”
It makes sense to tackle the easiest fixes early, given the seismic threats posed to the Bay Area by the San Andreas and other faults. Breaking a daunting future into manageable parts also allows the Port and City Hall to shift attention from the more eye-popping aspects of climate adaptation — such as how potions of the Embarcadero might need to be raised as much as seven feet to prepare for 2100’s more extreme projected water levels.
Which leads us back to the Ferry Building.
As so often has been the case during the landmark’s history, far more is at stake than one particular structure. If the Ferry Building in its heyday represented San Francisco’s prominence within the region and beyond, in the 21st century it embodies how urban waterfronts can be reinvented without sacrificing their past identities. At the same time, the building remains essentially the same as it was in 1898 — a heavy structure of concrete and steel that covers two acres and rises from a foundation atop bundled piles of tree trunks.
The assumption for the past 25 years has been that the landmark’s impressive performance in 1906 and 1989 should ensure similar resilience when the next big earthquake hits. But the most recent geotechnical exam revealed a weak link: the section of the seawall behind the Ferry Building rests in a trench filled with liquefiable sand rather than the rubble that underlies almost everything else. That detail places “the 125-year-old Ferry Building Seawall, building substructure, and surrounding piers at risk of damage in large earthquakes,” according to the most recent Port update.
This isn’t just a concern for architecture buffs. San Francisco’s disaster relief plans treat the outdoor spaces around the landmark as crucial spots for retreat and regrouping. In a worst-case scenario where the Bay Bridge is knocked out of commission, as was the case in 1989, reliable access to a functioning ferry system will be crucial for evacuating people from the downtown scene safely. The new plaza can also serve as a staging area for bringing medical aid and supplies into the city over the water. Regular people who need to connect with family and friends know there won’t be confusion if someone says “let’s find each other at the Ferry Building.”
One solution could be to erect an entirely new seawall around the edge of the Ferry Building’s foundation, in essence creating a basement beneath it. And if you’re doing that, it’s only one more step — albeit sure to be costly and complex — to raise the entire building by several feet and resolve the challenge of sea level rise for another lifetime or two.
“With the Ferry Building, the one thing I know about it is that it has to be saved … it has such a strong identification with the city,” Elaine Forbes, the executive director for the Port, says. “So I talked myself into okaying this big expenditure.”

Realistically, adaptation planning in San Francisco and other waterfront cities will involve a variety of responses at a variety of scales. But the situation facing the Ferry Building, as at so many times in its history, is unique unto itself. This time around, the task is to remake a bustling civic icon so that life seemingly goes on as before. If anyone has challenged the need to invest what likely will be hundreds of millions of dollars to save a 125-year-old structure, the argument has gained no traction.
“The price would have to be really, really high before anything would think twice” about whether the Ferry Building’s salvation is more trouble than it’s worth, Reel says. He describes how during the public discussions on what to do about the Embarcadero, attendees would be asked to list priorities. What are you concerned about? What do you love?
In the latter category, Reel recalls, “the Ferry Building kept getting named. People want to see it forever.”
This still leaves an array of unanswered questions. How to decide how big of an engineering gamble to take. Whether to raise the structure, as implausible as that sounds, or build a new seawall to the east that would destroy the immediacy of the connection to the water. And what becomes of the tenants inside the building, especially the locally based merchants, if the building once again becomes a construction zone.
In a much different context, one San Franciscan offered a fatalistic take on what the future might hold: Lawrence Ferlinghetti.
Four years before his death in 2021, still living in North Beach, Ferlinghetti sat down in a neighborhood café to talk with a Washington Post writer about the beat era, the 97-year-old poet’s life, and his enduring love for the city that he embraced long ago. At one point, the writer asked Ferlinghetti about what might happen after he was gone.
“It’s all going to be underwater in 100 years or maybe even 50,” Ferlinghetti said with a half-smiled shrug. “The Embarcadero is one of the greatest esplanades in the world. On the weekends, thousands of people strut up and down like it’s the Ramblas in Barcelona. But it’ll all be underwater.”
This article was excerpted and condensed from John King’s book Portal: San Francisco’s Ferry Building and the Reinvention of American Cities, available on Nov. 7 from W. W. Norton & Company ©2023.
Log in
To continue reading, log in to your account.
Create a Free Account
To unlock more free articles, please create a free account.
Current conditions: A cluster of storms from Sri Lanka to Southeast Asia triggered floods that have killed more than 900 so far • A snowstorm stretching 1,200 miles across the northern United States blanketed parts of Iowa, Illinois, and South Dakota with the white stuff • In China, 31 weather stations broke records for heat on Sunday.
The in-house market monitor at the PJM Interconnection filed a complaint last week to the Federal Energy Regulatory Commission urging the agency to ban the nation’s largest grid operator from connecting any new data centers that the system can’t reliably serve. The warning from the PJM ombudsman comes as the grid operator is considering proposals to require blackouts during periods when there’s not enough electricity to meet data centers’ needs. The grid operator’s membership voted last month on a way forward, but no potential solution garnered enough votes to succeed, Heatmap’s Matthew Zeitlin wrote. “That result is not consistent with the basic responsibility of PJM to maintain a reliable grid and is therefore not just and reasonable,” Monitoring Analytics said, according to Utility Dive.
The push comes as residential electricity prices continue climbing. Rates for American households spiked by an average of 7.4% in September compared to the same month in 2024, according to new data from the Energy Information Administration.

The Environmental Protection Agency made some big news on Wednesday, just before much of the U.S. took off for Thanksgiving: It’s delaying a rule that would have required oil and gas companies to start reducing how much methane, a potent greenhouse gas, is released from their operations into the atmosphere. The regulation would have required oil and gas companies to start reducing how much methane, a potent greenhouse gas, is released from their operations into the atmosphere. Drillers were supposed to start tracking emissions this year. But the Trump administration is instead giving companies until January 2027 as it considers repealing the measure altogether.
The New York Power Authority, the nation’s second largest government-owned utility after the federal Tennessee Valley Authority, is staffing up in preparation for its push to build at least a gigawatt of new nuclear power generation. On Monday morning, NYPA named Todd Josifovski as its new senior vice president of nuclear energy development, tasking the veteran atomic power executive with charting the strategic direction and development of new reactor projects. Josifovski previously hailed from Ontario Power Generation, the state-owned utility in the eponymous Canadian province, which is building what is likely to be North America’s first small modular reactor project. (As Matthew wrote when NYPA first announced its plans for a new nuclear plant, the approach mirrors Ontario’s there.) NYPA is also adding Christopher Hanson, a former member of the Nuclear Regulatory Commission whom President Donald Trump abruptly fired from the federal agency this summer, as a senior consultant in charge of guiding federal financing and permitting.
The push comes as New York’s statewide grid reaches “an inflection point” as surging demand, an aging fleet, and a lack of dispatchable power puts the system at risk, according to the latest reliability report. “The margin for error is extremely narrow, and most plausible futures point to significant reliability shortfalls within the next ten years,” the report concluded. “Depending on demand growth and retirement patterns, the system may need several thousand megawatts of new dispatchable generation over that timeframe.”
Sign up to receive Heatmap AM in your inbox every morning:
Zillow, the country’s largest real estate site, removed a feature from more than a million listings that showed the risks from extreme weather, The New York Times reported. The website had started including climate risk scores last year, using data from the risk-modeling company First Street. But real estate agents complained that the ratings hurt sales, and homeowners protested that there was no way to challenge the scores. Following a complaint from the California Regional Multiple Listing Service, which operates a private database of brokers and agents, Zillow stopped displaying the scores.
The European Commission unveiled a new plan to replace fossil fuels in Europe’s economy with trees. By adopting the so-called Bioeconomy Strategy, released Thursday, the continent aims to remove fossil fuels in products Politico listed as “plastics, building materials, chemicals, and fibers” with organic materials that regrow, such as trees and crops. Doing so, the bloc argued, will help to preserve Europe’s “strategic autonomy” by making the continent less dependent on imported fuels.
Canada, meanwhile, is plowing ahead with its plans to strengthen itself against the U.S. by turning into an energy superpower. Already, the Trans Mountain pipeline is earning the federal coffers nearly $1.3 billion, based on my back-of-the-napkin conversion of the Canadian loonies cited in this Globe and Mail story to U.S. dollars. Now Prime Minister Mark Carney’s government is pitching a new pipeline from Alberta to the West Coast for export to Asia, as the Financial Times reported.
Swapping bunker fuel-burning engines for nuclear propulsion units in container ships could shave up to $68 million off annual shipping expenses, a new report found. If small modular reactors designed to power a cargo vessel are commercialized within four years as expected, the shipping companies could eliminate $50 million in fuel costs each year and about $18 million in carbon penalties. That’s according to data from Lloyd’s Register and LucidCatalyst report for the Singaporean maritime services company Seaspan Corporation.
If it turns out to be a bubble, billions of dollars of energy assets will be on the line.
The data center investment boom has already transformed the American economy. It is now poised to transform the American energy system.
Hyperscalers — including tech giants such as Microsoft and Meta, as well as leaders in artificial intelligence like OpenAI and CoreWeave — are investing eyewatering amounts of capital into developing new energy resources to feed their power-hungry data infrastructure. Those data centers are already straining the existing energy grid, prompting widespread political anxiety over an energy supply crisis and a ratepayer affordability shock. Nothing in recent memory has thrown policymakers’ decades-long underinvestment in the health of our energy grid into such stark relief. The commercial potential of next-generation energy technologies such as advanced nuclear, batteries, and grid-enhancing applications now hinge on the speed and scale of the AI buildout.
But what happens if the AI boom buffers and data center investment collapses? It is not idle speculation to say that the AI boom rests on unstable financial foundations. Worse, however, is the fact that as of this year, the tech sector’s breakneck investment into data centers is the only tailwind to U.S. economic growth. If there is a market correction, there is no other growth sector that could pick up the slack.
Not only would a sudden reversal in investor sentiment make stranded assets of the data centers themselves, which will lose value as their lease revenue disappears, it also threatens to strand all the energy projects and efficiency innovations that data center demand might have called forth.
If the AI boom does not deliver, we need a backup plan for energy policy.
An analysis of the capital structure of the AI boom suggests that policymakers should be more concerned about the financial fundamentals of data centers and their tenants — the tech companies that are buoying the economy. My recent report for the Center for Public Enterprise, Bubble or Nothing, maps out how the various market actors in the AI sector interact, connecting the market structure of the AI inference sector to the economics of Nvidia’s graphics processing units, the chips known as GPUs that power AI software, to the data center real estate debt market. Spelling out the core financial relationships illuminates where the vulnerabilities lie.

First and foremost: The business model remains unprofitable. The leading AI companies ― mostly the leading tech companies, as well as some AI-specific firms such as OpenAI and Anthropic ― are all competing with each other to dominate the market for AI inference services such as large language models. None of them is returning a profit on its investments. Back-of-the-envelope math suggests that Meta, Google, Microsoft, and Amazon invested over $560 billion into AI technology and data centers through 2024 and 2025, and have reported revenues of just $35 billion.
To be sure, many new technology companies remain unprofitable for years ― including now-ubiquitous firms like Uber and Amazon. Profits are not the AI sector’s immediate goal; the sector’s high valuations reflect investors’ assumptions about future earnings potential. But while the losses pile up, the market leaders are all vying to maximize the market share of their virtually identical services ― a prisoner’s dilemma of sorts that forces down prices even as the cost of providing inference services continues to rise. Rising costs, suppressed revenues, and fuzzy measurements of real user demand are, when combined, a toxic cocktail and a reflection of the sector’s inherent uncertainty.
Second: AI companies have a capital investment problem. These are not pure software companies; to provide their inference services, AI companies must all invest in or find ways to access GPUs. In mature industries, capital assets have predictable valuations that their owners can borrow against and use as collateral to invest further in their businesses. Not here: The market value of a GPU is incredibly uncertain and, at least currently, remains suppressed due to the sector’s competitive market structure, the physical deterioration of GPUs at high utilization rates, the unclear trajectory of demand, and the value destruction that comes from Nvidia’s now-yearly release of new high-end GPU models.
The tech industry’s rush to invest in new GPUs means existing GPUs lose market value much faster. Some companies, particularly the vulnerable and debt-saddled “neocloud” companies that buy GPUs to rent their compute capacity to retail and hyperscaler consumers, are taking out tens of billions of dollars of loans to buy new GPUs backed by the value of their older GPU stock; the danger of this strategy is obvious. Others including OpenAI and xAI, having realized that GPUs are not safe to hold on one’s balance sheet, are instead renting them from Oracle and Nvidia, respectively.
To paper over the valuation uncertainty of the GPUs they do own, all the hyperscalers have changed their accounting standards for GPU valuations over the past few years to minimize their annual reported depreciation expenses. Some financial analysts don’t buy it: Last year, Barclays analysts judged GPU depreciation as risky enough to merit marking down the earnings estimates of Google (in this case its parent company, Alphabet), Microsoft, and Meta as much as 10%, arguing that consensus modeling was severely underestimating the earnings write-offs required.
Under these market dynamics, the booming demand for high-end chips looks less like a reflection of healthy growth for the tech sector and more like a scramble for high-value collateral to maintain market position among a set of firms with limited product differentiation. If high demand projections for AI technologies come true, collateral ostensibly depreciates at a manageable pace as older GPUs retain their marketable value over their useful life — but otherwise, this combination of structurally compressed profits and rapidly depreciating collateral is evidence of a snake eating its own tail.
All of these hyperscalers are tenants within data centers. Their lack of cash flow or good collateral should have their landlords worried about “tenant churn,” given the risk that many data center tenants will have to undertake multiple cycles of expensive capital expenditure on GPUs and network infrastructure within a single lease term. Data center developers take out construction (or “mini-perm”) loans of four to six years and refinance them into longer-term permanent loans, which can then be packaged into asset-backed and commercial mortgage-backed securities to sell to a wider pool of institutional investors and banks. The threat of broken leases and tenant vacancies threatens the long-term solvency of the leading data center developers ― companies like Equinix and Digital Realty ― as well as the livelihoods of the construction contractors and electricians they hire to build their facilities and manage their energy resources.
Much ink has already been spilled on how the hyperscalers are “roundabouting” each other, or engaging in circular financing: They are making billions of dollars of long-term purchase commitments, equity investments, and project co-development agreements with one another. OpenAI, Oracle, CoreWeave, and Nvidia are at the center of this web. Nvidia has invested $100 billion in OpenAI, to be repaid over time through OpenAI’s lease of Nvidia GPUs. Oracle is spending $40 billion on Nvidia GPUs to power a data center it has leased for 15 years to support OpenAI, for which OpenAI is paying Oracle $300 billion over the next five years. OpenAI is paying CoreWeave over the next five years to rent its Nvidia GPUs; the contract is valued at $11.9 billion, and OpenAI has committed to spending at least $4 billion through April 2029. OpenAI already has a $350 million equity stake in CoreWeave. Nvidia has committed to buying CoreWeave’s unsold cloud computing capacity by 2032 for $6.3 billion, after it already took a 7% stake in CoreWeave when the latter went public. If you’re feeling dizzy, count yourself lucky: These deals represent only a fraction of the available examples of circular financing.
These companies are all betting on each others’ growth; their growth projections and purchase commitments are all dependent on their peers’ growth projections and purchase commitments. Optimistically, this roundabouting represents a kind of “risk mutualism,” which, at least for now, ends up supporting greater capital expenditures. Pessimistically, roundabouting is a way for these companies to pay each other for goods and services in any way except cash — shares, warrants, purchase commitments, token reservations, backstop commitments, and accounts receivable, but not U.S. dollars. The second any one of these companies decides it wants cash rather than a commitment is when the music stops. Chances are, that company needs cash to pay a commitment of its own, likely involving a lender.
Lenders are the final piece of the puzzle. Contrary to the notion that cash-rich hyperscalers can finance their own data center buildout, there has been a record volume of debt issuance this year from companies such as Oracle and CoreWeave, as well as private credit giants like Blue Owl and Apollo, which are lending into the boom. The debt may not go directly onto hyperscalers’ balance sheets, but their purchase commitments are the collateral against which data center developers, neocloud companies like CoreWeave, and private credit firms raise capital. While debt is not inherently something to shy away from ― it’s how infrastructure gets built ― it’s worth raising eyebrows at the role private credit firms are playing at the center of this revenue-free investment boom. They are exposed to GPU financing and to data center financing, although not the GPU producers themselves. They have capped upside and unlimited downside. If they stop lending, the rest of the sector’s risks look a lot more risky.

A market correction starts when any one of the AI companies can’t scrounge up the cash to meet its liabilities and can no longer keep borrowing money to delay paying for its leases and its debts. A sudden stop in lending to any of these companies would be a big deal ― it would force AI companies to sell their assets, particularly GPUs, into a potentially adverse market in order to meet refinancing deadlines. A fire sale of GPUs hurts not just the long-term earnings potential of the AI companies themselves, but also producers such as Nvidia and AMD, since even they would be selling their GPUs into a soft market.
For the tech industry, the likely outcome of a market correction is consolidation. Any widespread defaults among AI-related businesses and special purpose vehicles will leave capital assets like GPUs and energy technologies like supercapacitors stranded, losing their market value in the absence of demand ― the perfect targets for a rollup. Indeed, it stands to reason that the tech giants’ dominance over the cloud and web services sectors, not to mention advertising, will allow them to continue leading the market. They can regain monopolistic control over the remaining consumer demand in the AI services sector; their access to more certain cash flows eases their leverage constraints over the longer term as the economy recovers.
A market correction, then, is hardly the end of the tech industry ― but it still leaves a lot of data center investments stranded. What does that mean for the energy buildout that data centers are directly and indirectly financing?
A market correction would likely compel vertically integrated utilities to cancel plans to develop new combined-cycle gas turbines and expensive clean firm resources such as nuclear energy. Developers on wholesale markets have it worse: It’s not clear how new and expensive firm resources compete if demand shrinks. Grid managers would have to call up more expensive units less frequently. Doing so would constrain the revenue-generating potential of those generators relative to the resources that can meet marginal load more cheaply — namely solar, storage, peaker gas, and demand-response systems. Combined-cycle gas turbines co-located with data centers might be stranded; at the very least, they wouldn’t be used very often. (Peaker gas plants, used to manage load fluctuation, might still get built over the medium term.) And the flight to quality and flexibility would consign coal power back to its own ash heaps. Ultimately, a market correction does not change the broader trend toward electrification.
A market correction that stabilizes the data center investment trajectory would make it easier for utilities to conduct integrated resource planning. But it would not necessarily simplify grid planners’ ability to plan their interconnection queues — phantom projects dropping out of the queue requires grid planners to redo all their studies. Regardless of the health of the investment boom, we still need to reform our grid interconnection processes.
The biggest risk is that ratepayers will be on the hook for assets that sit underutilized in the absence of tech companies’ large load requirements, especially those served by utilities that might be building power in advance of committed contracts with large load customers like data center developers. The energy assets they build might remain useful for grid stability and could still participate in capacity markets. But generation assets built close to data center sites to serve those sites cheaply might not be able to provision the broader energy grid cost-efficiently due to higher grid transport costs incurred when serving more distant sources of load.
These energy projects need not be albatrosses.
Many of these data centers being planned are in the process of securing permits and grid interconnection rights. Those interconnection rights are scarce and valuable; if a data center gets stranded, policymakers should consider purchasing those rights and incentivizing new businesses or manufacturing industries to build on that land and take advantage of those rights. Doing so would provide offtake for nearby energy assets and avoid displacing their costs onto other ratepayers. That being said, new users of that land may not be able to pay anywhere near as much as hyperscalers could for interconnection or for power. Policymakers seeking to capture value from stranded interconnection points must ensure that new projects pencil out at a lower price point.
Policymakers should also consider backstopping the development of critical and innovative energy projects and the firms contracted to build them. I mean this in the most expansive way possible: Policymakers should not just backstop the completion of the solar and storage assets built to serve new load, but also provide exigent purchase guarantees to the firms that are prototyping the flow batteries, supercapacitors, cooling systems, and uninterruptible power systems that data center developers are increasingly interested in. Without these interventions, a market correction would otherwise destroy the value of many of those projects and the earnings potential of their developers, to say nothing of arresting progress on incredibly promising and commercializable technologies.
Policymakers can capture long-term value for the taxpayer by making investments in these distressed projects and developers. This is already what the New York Power Authority has done by taking ownership and backstopping the development of over 7 gigawatts of energy projects ― most of which were at risk of being abandoned by a private sponsor.
The market might not immediately welcome risky bets like these. It is unclear, for instance, what industries could use the interconnection or energy provided to a stranded gigawatt-scale data center. Some of the more promising options ― take aluminum or green steel ― do not have a viable domestic market. Policy uncertainty, tariffs, and tax credit changes in the One Big Beautiful Bill Act have all suppressed the growth of clean manufacturing and metals refining industries like these. The rest of the economy is also deteriorating. The fact that the data center boom is threatened by, at its core, a lack of consumer demand and the resulting unstable investment pathways is itself an ironic miniature of the U.S. economy as a whole.
As analysts at Employ America put it, “The losses in a [tech sector] bust will simply be too large and swift to be neatly offset by an imminent and symmetric boom elsewhere. Even as housing and consumer durables ultimately did well following the bust of the 90s tech boom, there was a one- to two-year lag, as it took time for long-term rates to fall and investors to shift their focus.” This is the issue with having only one growth sector in the economy. And without a more holistic industrial policy, we cannot spur any others.
Questions like these ― questions about what comes next ― suggest that the messy details of data center project finance should not be the sole purview of investors. After all, our exposure to the sector only grows more concentrated by the day. More precisely mapping out how capital flows through the sector should help financial policymakers and industrial policy thinkers understand the risks of a market correction. Political leaders should be prepared to tackle the downside distributional challenges raised by the instability of this data center boom ― challenges to consumer wealth, public budgets, and our energy system.
This sparkling sector is no replacement for industrial policy and macroeconomic investment conditions that create broad-based sources of demand growth and prosperity. But in their absence, policymakers can still treat the challenge of a market correction as an opportunity to think ahead about the nation’s industrial future.
With more electric heating in the Northeast comes greater strains on the grid.
The electric grid is built for heat. The days when the system is under the most stress are typically humid summer evenings, when air conditioning is still going full blast, appliances are being turned on as commuters return home, and solar generation is fading, stretching the generation and distribution grid to its limits.
But as home heating and transportation goes increasingly electric, more of the country — even some of the chilliest areas — may start to struggle with demand that peaks in the winter.
While summer demand peaks are challenging, there’s at least a vision for how to deal with them without generating excessive greenhouse gas emissions — namely battery storage, which essentially holds excess solar power generated in the afternoon in reserve for the evening. In states with lots of renewables on the grid already, like California and Texas, storage has been helping smooth out and avoid reliability issues on peak demand days.
The winter challenge is that you can have long periods of cold weather and little sun, stressing every part of the grid. The natural gas production and distribution systems can struggle in the cold with wellheads freezing up and mechanical failure at processing facilities, just as demand for home heating soars, whether provided by piped gas or electricity generated from gas-fired power plants.
In its recent annual seasonal reliability assessment, the North American Reliability Corporation, a standard-setting body for grid operators, found that “much of North America is again at an elevated risk of having insufficient energy supplies” should it encounter “extreme operating conditions,” i.e. “any prolonged, wide-area cold snaps.”
NERC cited growing electricity demand and the difficulty operating generators in the winter, especially those relying on natural gas. In 2021, Winter Storm Uri effectively shut down Texas’ grid for several days as generation and distribution of natural gas literally froze up while demand for electric heating soared. Millions of Texans were left exposed to extreme low temperatures, and at least 246 died as a result.
Some parts of the country already experience winter peaks in energy demand, especially places like North Carolina and Oregon, which “have winters that are chilly enough to require some heating, but not so cold that electric heating is rare,” in the words of North Carolina State University professor Jeremiah Johnson. "Not too many Mainers or Michiganders heat their homes with electricity,” he said.
But that might not be true for long.
New England may be cold and dark in the winter, but it’s liberal all year round. That means the region’s constituent states have adopted aggressive climate change and decarbonization goals that will stretch their available renewable resources, especially during the coldest days, weeks, and months.
The region’s existing energy system already struggles with winter. New England’s natural gas system is limited by insufficient pipeline capacity, so during particularly cold days, power plants end up burning oil as natural gas is diverted from generating electricity to heating homes.
New England’s Independent System Operator projects that winter demand will peak at just above 21 gigawatts this year — its all-time winter peak is 22.8 gigawatts, summer is 28.1 — which ISO-NE says the region is well-prepared for, with 31 gigawatts of available capacity. That includes energy from the Vineyard Wind offshore wind project, which is still facing activist opposition, as well as imported hydropower from Quebec.
But going forward, with Massachusetts aiming to reduce emissions 50% by 2030 (though state lawmakers are trying to undo that goal) and reach net-zero emissions by 2050 — and nearly the entire region envisioning at least 80% emissions reductions by 2050 — that winter peak is expected to soar. The non-carbon-emitting energy generation necessary to meet that demand, meanwhile, is still largely unbuilt.
By the mid 2030s, ISO-NE expects its winter peak to surpass its summer peak, with peak demand perhaps reaching as high as 57 gigawatts, more than double the system’s all-time peak load. Those last few gigawatts of this load will be tricky — and expensive — to serve. ISO-NE estimates that each gigawatt from 51 to 57 would cost $1.5 billion for transmission expansion alone.
ISO-NE also found that “the battery fleet may be depleted quickly and then struggle to recharge during the winter months,” which is precisely when “batteries may be needed most to fill supply gaps during periods of high demand due to cold weather, as well as periods of low production from wind and solar resources.” Some 600 megawatts of battery storage capacity has come online in the last decade in ISO-NE, and there are state mandates for at least 7 more gigawatts between 2030 and 2033.
There will also be a “continued need for fuel-secure dispatchable resources” through 2050, ISO-NE has found — that is, something to fill the role that natural gas, oil, and even coal play on the coldest days and longest cold stretches of the year.
This could mean “vast quantities of seasonal storage,” like 100-hour batteries, or alternative fuels like synthetic natural gas (produced with a combination of direct air capture and electrolysis, all powered by carbon-free power), hydrogen, biodiesel, or renewable diesel. And this is all assuming a steady buildout of renewable power — including over a gigawatt per year of offshore wind capacity added through 2050 — that will be difficult if not impossible to accomplish given the current policy and administrative roadblocks.
While planning for the transmission and generation system of 2050 may be slightly fanciful, especially as the climate policy environment — and the literal environment — are changing rapidly, grid operators in cold regions are worried about the far nearer term.
From 2027 to 2032, ISO-NE analyses “indicate an increasing energy shortfall risk profile,” said ISO-NE planning official Stephen George in a 2024 presentation.
“What keeps me up at night is the winter of 2032,” Richard Dewey, chief executive of the neighboring New York Independent System Operator, said at a 2024 conference. “I don’t know what fills that gap in the year 2032.”