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:

Ask any climate wonk what’s holding back clean energy in the U.S. and you’re likely to get the same answer — not enough power lines. But what if the problem isn’t the number of power lines, but rather the outdated metal wires they’re made of?
Restringing transmission lines with more advanced wires, a process known as “reconductoring,” has the potential to double the amount of electricity our existing transmission system can handle, for less than half the price of building new lines. That’s the main finding of a recently published working paper from researchers at the University of California, Berkeley, and Gridlab, an energy consulting firm.
There are a few reasons that something as boring and seemingly ubiquitous as power lines are so crucial to the energy transition. Electrifying our cars and homes will increase demand for electricity, and much of the system is already too congested to integrate new wind and solar power plants. Plus, there just aren’t enough lines that run from the sunniest, windiest places to the places where most people actually live.
To realize the emission reduction potential of the clean energy subsidies in the Inflation Reduction Act, we have to more than double the rate of transmission expansion, according to research from Princeton University’s Repeat Project. Clean energy projects already face major delays and are often hit with exorbitant bills to connect to the grid. A study from Lawrence Berkeley National Laboratory called “Queued Up” found that at the end of 2022, there were more than 10,000 power plant and energy storage projects waiting for permission to connect to the grid — enough to double electricity production in the country. Some 95% of them were zero-carbon resources.
The main problem is permitting. Establishing rights-of-way for new power lines requires extensive environmental review and invites vicious local opposition. People don’t want to look at more wires strung across the landscape. They worry the eyesore will decrease their property value, or that the construction will hurt local ecosystems. New power lines often take upwards of 10 years to plan, permit, and build.
But it’s possible to avoid this time-consuming process, at least in many cases, by simply reconductoring lines along existing rights-of-way. Most of our existing power lines have a steel core surrounded by strands of aluminum. Advanced conductors replace the steel with a lighter but stronger core made of a composite material, such as carbon fiber. This subtle shift in materials and design enables the line to operate at higher temperatures, with less sag, significantly increasing the amount of power it can carry.
Advanced conductors cost two to four times more than conventional power lines — but upgrading an existing line to use advanced conductors can be less than half what a new power line would cost because it eliminates much of the construction spending and fees from permitting for new rights-of-way, the Berkeley study found.
“The most compelling, exciting thing is that it only requires a maintenance permit,” Duncan Callaway, an associate professor of energy and resources at Berkeley and one of the authors said while presenting the research over Zoom last week.
The paper highlights a 2016 project in southeastern Texas. Due to rapid population growth in the area, the local utility, American Electric Power, was seeing higher demand for electricity at peak times than it was prepared for, leading to blackouts. It needed to come up with a solution, fast, and decided that reconductoring 240 miles of its transmission lines would take less time than permitting new ones. The project ended up finishing ahead of schedule and under budget, at a cost of $900,000 per mile. By comparison, the 3,600 miles of new lines built under Texas’ Competitive Renewable Energy Zone program, which were built to connect wind-rich areas to population centers, cost more than double, at an average of $1.9 million per mile.
Callaway and his co-authors also plugged their findings into a power system expansion model — basically a computer program that maps out the most cost-effective mix of technologies to meet regional electric power demand. They fed the model a scenario where the only option for transmission was to build new lines at their slow, historical rate, as well as a scenario where there was also an option to reconductor along existing rights-of-way. The second scenario resulted in nearly four times as much transmission capacity by 2035, enabling the country to achieve a more than 90% clean electric grid by that date.
There are cases where new power lines are needed — for example, to establish a new route to access a high-quality renewable resource, Emilia Chojkiewicz, another author of the study, told me in an email. But she said it nearly always makes sense to consider reconductoring given the potential to double capacity and do so much more quickly. “Unfortunately,” she added, “current transmission planning practices do not tend to incentivize or even consider reconductoring.”
This all seems so ridiculously easy that it begs the question: Why aren’t utilities already rushing to do it? During the webinar last week, Chojkiewicz and her co-authors said part of the problem is just a lack of awareness and comfort with the technology. But the bigger issue is that utilities are not incentivized to look for cheaper, more efficient solutions like reconductoring because they profit off capital spending.
To change this, they suggested that the Federal Energy Regulatory Commission, which oversees interstate transmission, and state public service commissions, which regulate utilities at the state level, mandate the consideration of reconductoring in transmission and resource planning processes, and to properly value the benefits that advanced conductors provide. The Department of Energy could also consider instituting a national conductor efficiency standard, so that all new wires installed, whether along existing rights-of-way or new routes, achieve a minimum level of performance.
Reconductoring isn’t the only no-brainer alternative to building new power lines. Another study from the clean energy think tank RMI published last week illustrates the opportunity with even cheaper tweaks called “grid enhancing technologies.” One option is to install sensors that collect data on wind speed, temperature, and other factors that affect power lines in real time, called dynamic line ratings. These sensors allow utilities to safely increase the amount of power transmitted when weather conditions permit it. There are also power flow controls that can redirect power away from congested lines so that it can be transmitted elsewhere rather than wasted.
RMI found that in the PJM interconnection — a section of the grid in the eastern U.S. that is so congested the grid operator has frozen new applications to connect to it — these grid enhancing technologies could open up more than 6 gigawatts of new capacity to wind, solar, and storage projects in just three years. For reference, in 2022, nearly 300 gigawatts-worth of energy projects were waiting for permission to connect in PJM at the end 2022.
The cost savings are not just theoretical. In 2018, the PJM grid operator determined that a wind farm expansion in Illinois was going to require $100 million of grid upgrades — including building new lines and reconductoring existing ones — over a timeline of about three years before it would be able to connect. The developer countered that the needed upgrades could be achieved through power flow controls, which could be installed for a cost of just $12 million in less than half the time. PJM approved the idea, and the project is currently underway.
Congress is still debating how to reform permitting processes. But while that’s still a necessary step, it’s becoming increasingly clear that there’s a host of other outside-the-box solutions that can be deployed more quickly, in the near term. The IRA may have convinced the environmental movement that building new stuff was worth it, but there are still a lot of cases where the smarter choice is to renovate.
Editor’s note: This story has been updated to correct the cost of adding power flow controls to the PJM interconnection.
Log in
To continue reading, log in to your account.
Create a Free Account
To unlock more free articles, please create a free account.
Automakers aren’t sure what to do with their EVs in the age of Trump.
The Los Angeles Auto Show over the years has been the launchpad for lots of new electric vehicles and a place for carmakers to declare their EV ambitions. It’s a fitting stage given California’s status not only as the home of American car culture, but also as the United States’ biggest EV market by far.
At the 2025 show, which had its media day on Thursday, electrification was more off to the side than front-and-center, however. The new breed of affordable models that could give many more drivers access to the electric car market — such as the Nissan Leaf and Chevy Bolt revivals and the upcoming Toyota C-HR electric — could be found on the show floor, waiting to be discovered by the car fans who would descend on the L.A. Convention Center in the days to come.
But fanfare over the electric future was decidedly tamped down. The atmosphere reflected the uneasy state of EVs in America in this first year of the new Trump administration. During Kia’s press conference to start the day, for example, the EV9 three-row electric crossover lingered at the edge of the stage while brand bigwigs revealed a redesign of its petroleum-powered cousin, the best-selling Telluride, whose climate credentials go only as far as a 30-miles-per-gallon hybrid version.
Hyundai has been perhaps the most successful brand outside of Tesla in selling America on EVs, but its L.A. presentation pushed battery power into niche corners of the car world, the racetrack and the trail. One of its two attractions was the North American reveal of the limited-edition Ioniq 6N, the powered-up sports car version of the Ioniq 6 electric sedan, which the brand revealed at this very show three years ago.
This 641-horsepower battery-powered beast was an inevitability, given that Hyundai’s high-performance “N” division has built limited-edition racing versions of many of the carmakers’ stock vehicles, and its muscular version of the Ioniq 5 hatchback has been one of the best-regarded performance-focused EVs yet to hit the car market. Like its predecessor, Ioniq 6N is a test case in how to make electric power appeal to car enthusiasts who crave stick shifts and snarling V8s, so Hyundai built in simulated gear shifts and sounds to simulate the sensations of pushing a combustion car to its limits.
More compelling — and curious — was the Crater, the kind of otherworldly angular tank that Tesla’s Cybertruck wishes it were. A concept car rather than a vehicle ready to go into real production, the Crater is meant to signify the vision of Hyundai’s XRT sub-brand that makes off-roading versions of the brand’s vehicles, combustion ones included.
Although Hyundai barely said the “e” word during its presentation, Crater is meant to at least suggest an all-electric version of a supremely rugged vehicle that would compete with the likes of the Jeep Wrangler and Ford Bronco. The concept has no tailpipe or engine, and the pixelated lights are taken from those used on the Ioniq series. Yet even this is uncertain: Having been burned by the back-and-forth of regime change in America, with Biden-era EV incentives disappearing just as the Korean brands were adjusting their production lines to meet the rules, the carmakers are wondering how hard to push battery power here.
Even the all-electric car brands didn’t arrive with sound and fury to show off all-new cars that would invigorate the EV market. Instead, they are doing the slow and steady work that legacy car companies have been doing for years, hoping to build long-term stability by filling out their vehicle lineups with more subtly different versions at more price points.
The Rivian R2 sat at the edge of the brand’s small display, giving many people their first in-person look at what could be the make-or-break vehicle for the EV startup. Its quiet presence was a subtle reminder that the smaller SUV is coming next year at a promised price of around $45,000, which would provide a (more) affordable option for drivers who’ve lusted after the brand’s $70,000-plus initial slate of electric SUVs and pickup trucks.
Likewise, Lucid took the mic after Hyundai to introduce a somewhat more attainable version of its electric SUV. The Gravity Touring edition brings the vehicle’s starting price from six figures down to $80,000, thanks in part to a smaller battery pack that still delivers more than 300 miles of range thanks to the carmaker’s hyper-focus on aerodynamics and efficiency. The price is still high, but this is a compelling vehicle: Gravity is a spacious three-row vehicle that goes 0 to 60 miles per hour in four seconds and recharges its battery at blazing speed thanks to 1,000-volt architecture that can add a claimed 200 miles in 15 minutes.
Car show stories come with a big caveat: These events don’t have the status they did in the heyday of old media, when new vehicles greeted the world for the first time in front of the assembled reporters. Tesla has always hosted its own vehicle events rather than share the stage, and these days, lots of brands have followed suit. Rivan revealed the R2 and R3 on its own turn last year, which is why the R2 could loom, unheralded, in a quiet corner of the show floor in Los Angeles.
Yet what the car industry chooses to show and say in front of the car media is still a telling indicator. What the companies said and didn’t say on Thursday suggests an industry that’s clearly struggling to navigate the electrification transition in America. Kia has been at the forefront of building great EVs for the States; its trumpeting of a hybrid Telluride is welcome, but 10 years out of date. The absence of EV hype in press events reveals an industry putting the brakes on the big talking points and preparing to lean back toward fossil fuels to maintain their profitability through this era of American EV limbo.
The Paris Agreement goal of limiting warming to 1.5 degrees Celsius is now all but impossible. Limiting — and eventually reversing — the damage will take some thought.
For the second year in a row, the United Nations climate conference ended without a consensus declaration that tackling global warming requires transitioning away from fossil fuels. The final agreement at COP30 did, however, touch on another uncomfortable subject: Countries resolved to limit “the magnitude and duration of any temperature overshoot.”
In the 2015 Paris Agreement, 197 nations pledged to try to prevent average temperature rise of more than 1.5 degrees Celsius above pre-industrial temperatures. Now 10 years later, scientists say that exceeding that level has become inevitable. It may be possible to turn the thermostat back down after this “overshoot” occurs, though — a possibility this year’s COP agreement appears to endorse.
The idea demands a far meatier discussion than world leaders have had to date, according to Oliver Geden, a senior fellow at the German Institute for International and Security Affairs, and a key contributor to the Intergovernmental Panel on Climate Change’s scientific reports. If limiting warming to 1.5 degrees now requires surpassing that level and coming back to it later, and if this is something that countries actually want to attempt, there are a lot of implications to think through.
Geden and Andy Reisinger, an associate professor at Australian National University and another IPCC author, published an article last week spelling out what it would mean for policymakers to take this concept of “temporary overshoot” seriously. For example, the final agreement from COP30 encourages Parties to align their nationally determined contributions towards global net zero by or around mid-century.” Net zero, in this case, means cutting CO2 emissions as far as possible, and then cancelling out any residuals with efforts to remove carbon from the atmosphere.
Scientists now estimate that if the world achieves that balance by 2050, we’ll pass 1.5 and bring warming to a peak of about 1.7 degrees above pre-industrial levels. At that point, the planet will not begin to cool on its own. Ensuring that an “overshoot” of 1.5 degrees is temporary, then, requires removing even more carbon from the atmosphere than is being emitted — it requires achieving “net-negative” emissions.
Suffice it to say, you will not find the words “net negative” in any COP agreements. “If 1.5 degrees C is to remain the core temperature goal, then net zero can no longer be seen as an end point but only as a transition point in climate policy,” Geden and Reisinger wrote. The two stress that this wouldn’t prevent all of the harms of going past that level of warming, but it would reduce risk, depending on the magnitude and duration of the overshoot.
I spoke to Geden on Thursday, while the UN climate conference was still underway in Belém, Brazil, about what policymakers are missing about overshoot and the 1.5 degree goal. Our conversation has been lightly edited for clarity.
I’ve had scientists tell me they don’t like the term “overshoot” because the 1.5 degree boundary is arbitrary. How do you think about it?
You can apply the concept of overshoot to any level. You could also apply it to 2 degrees or 1.6 or 1.7. It’s just saying that there is a defined level you care about, and it’s about exceeding that level and returning to it later. That is the basic concept, and then 1.5 is the logical application right now in terms of where climate policy is. That return idea is not very well represented, but that’s how it has been used in the IPCC for quite some time — exceedance and return.
What was the impetus for writing the article with Reisinger and what was your main message?
We wanted to explain the concept of overshoot because it seems that it’s now being discussed more. The UN secretary general started using it in a speech to the World Meteorological Association two weeks before Belém, and now has continuously done so. It also led to some irritation because people interpret it as, He just called 1.5 off, although he usually says, “Science tells us you can come back to it.”
These overshoot trajectories and pathways for 1.5 degrees have been around since at least the Special Report on 1.5 Degrees in 2018, and then increasingly dominated the modeling of 1.5. But we feel that the broader climate policy community never quite got the point that it is baked into these trajectories whenever scientists say 1.5 is still possible. But then this element of, what does this now mean? Who has to do what? How is it possible to get temperature down? That’s even more obscure, in a way, in the political debate, because it means net-zero CO2 is not enough. Net-zero CO2 would halt temperature increase. To get it down, you need to go net negative. And then the obvious question, politically, would be, who’s going to do that?
In the paper, you write that the amount of net-negative emissions required to reduce global average temperatures by just 0.1 degrees is about equal to five years of current annual emissions, or 100x our current annual carbon removal, which is mostly from planting trees. Given that, is it realistic to talk about reversing warming?
That’s not for me to say. If you think about the trajectory — how would, let’s say, a temperature trajectory in the 21st century look? What you would get now is a peak warming level above 1.5. Then really the question is, what happens afterwards? If everybody only talks about going to net-zero CO2 then we should assume it’s that new peak temperature level, and then we just stay there. But if you want to say the world needs to go back down to 1.5 by the end of the century then we have to talk about net-negative levels, and we still may find out that it’s not realistic.
This kind of circumvents the conversation of how good we look on getting to net zero. We all assume that’s doable. I also assume that’s doable. But you cannot forget the fact that right now, our emissions are still rising.
One of the policy implications you write about in the piece is that if Europe were to set a target to go net negative, its carbon pricing scheme could go from a source of income to a financial burden. Can you explain that?
If you have carbon pricing and you have emitters, you can finance carbon dioxide removal through the revenues from carbon pricing. But if you want to go net negative, you need more removals than you have emissions. The question is, who’s going to pay for it? You would always have residual emitters, but if you want to go deeply into net negative, you will run out of revenue sources to finance these removals.
One of the big problems is, conceptually, a government can say, Okay, your factory does not have a license to produce anymore, and you can force it to close down. But you cannot force any entity to remove CO2 for you. So how can a government guarantee that these removals are really going to happen? Would the acceleration of this carbon dioxide removal actually work? Which methods do we prefer? Do we have enough geological storage? It’s all unresolved. This paper is not a call to Europe to say hey, just make a promise. [It’s saying,] can you please really think about it? Can we please stop assuming somebody is going to organize all this to go net negative and then it magically happens? You need to make a serious plan. And you may find out that it’s too hard to do.
Another question is, how will other actors react? I think that’s part of the reluctance to talk about going net negative. The mental model right now of being a frontrunner is going down to the net zero line and then waiting there for the others to come. But if you enter net negative territory, it becomes basically bottomless. So every developing country could, reasonably so, demand ever higher levels of you. In the European Union, where you have 27 member states, even there, you would get into distributional challenges because some member states may ask others to go net negative because they are disadvantaged.
Also, which sectors would be forced to go net negative, which ones can stay net positive? Agriculture, at least as long as you have livestock, will be net positive. Then you have a country like Ireland, with 30% of the emissions coming from agriculture. They will stay a net-positive country, probably, and then others would have to go net negative. So you can imagine what kind of tensions you would get in.
I know you’re not in Belém, but from what you’ve read and from what you’re hearing, do you think that overshoot and all of these questions that you raise are being discussed more there? Do you get the sense that they are making their way into the conversation more?
A bit. The talk you hear is only just about 1.5 and 1.5-aligned, and it makes you wonder what governments or NGOs think, how this is going to happen. In the text presented by the Brazilian government, overshoot is mentioned, and “limiting or minimizing magnitude and duration of overshoot.” But it does not talk about what that actually means.
The whole 1.5 conversation, I think it’s hard for governments to understand. At the same they’re getting told, “if you just look at the pledges, you will end up at 2.6 or 2.7 or 2.8 by the end of the century, you have to do more.” Of course they all have to do more, but to really get to 1.5 they have to do more than they can imagine. If the world does not want to cross 1.5, never ever, it would need to be at net-zero CO2 in 2030, between 2030 and 2035. And if you go later, then you have to go net negative. It’s actually quite easy, but it seems to be uncomfortable knowledge. And then the way we communicate the challenge — governments, scientists, media — it’s not very straightforward.
All these temperature targets are special in the sense that they set an absolute target. Usually policymakers, governments, set relative targets, like 0.7% of national GDP for overseas development aid — you can miss that every year, but then you can say, next year we’re going to meet it. That logic does not apply here. Once you are there, you are there. Then it’s not enough to say that next year we are going to put more effort into it. You just then can limit the extra damage.
Current conditions: Thunderstorms are rolling through eastern Texas today into Arkansas, Louisiana, and Mississippi • More than 11,000 people in seven Malaysian states say they’re affected by heavy flooding • America’s two most populous overseas territories at opposite sides of the planet are experiencing diverging rip tides, with a dangerously powerful undertow in Guam but a weak pull this week in Puerto Rico.

The final resolution that concluded the United Nations climate summit in Brazil made no mention of fossil fuels, in what The New York Times called “a victory for oil producers like Saudi Arabia and Russia.” But the so-called COP30 confab in the northeastern Amazonian city of Belém made some notable progress. This was the first conference to seriously broach the effects of mining the metals needed for the energy transition, as I wrote here last week. The event had other firsts, as the Financial Times noted: It was the first completely spurned by the U.S. administration, “the first since the world hit 1.5 degrees Celsius of global warming for an entire calendar year,” and — it turned out — “the first with a venue plagued by extreme heat, flooding — even a fire that brought the talks to a standstill for much of their second-last day.” But, FT columnist Pilita Clark continued, Brazil’s turn at the yearly summit “still managed something these huge annual gatherings should have done years ago: a shift away from showy pledges to tackling the real world complexities of cutting carbon emissions.”
The COP30 statement “does not spell out the implications or required response as bluntly as many want to see,” Heatmap’s Emily Pontecorvo wrote, “It does, however, introduce an important new concept that could become a key part of the negotiations in the future. For the first time, the text references a resolve to ‘limit both the magnitude and duration of any temperature overshoot.’ This not only acknowledges that it’s possible to bring temperatures back down after warming surpasses 1.5 degrees, but that the level at which temperatures peak, and the length of time we remain at that peak before the world begins to cool, are just as important. The statement implies the need for a much larger conversation about carbon removal that has been nearly absent from the annual COPs, but which scientists say that countries must have if they are serious about the Paris Agreement goals.”
The U.S. Export-Import Bank plans to invest $100 billion in overseas energy projects to promote President Donald Trump’s global energy dominance. The first tranche of funding will go to projects in Egypt, Pakistan, and Europe. In his first interview since taking office in September, the federal lender’s newly-appointed chair, John Jovanovic, told the FT the administration was focusing the bank on “efforts to secure U.S. and allied supply chains for critical minerals, nuclear energy, and liquified natural gas to counter western reliance on China and Russia.” In short, Jovanovic said, the Ex-Im Bank is “back in a big way, and it’s open for business.”
Wyoming Governor Mark Gordon last week announced $4 million in state matching funds to study building a second coal-fired unit at the Dry Fork Station power plant in Gillette. The move, Cowboy State Daily reported, “could be the first step toward building a new coal-fired power plant” in the sparsely populated state’s third-largest city. “This is clear proof that coal is not dead and a reminder that Wyoming’s strength has always come from our ability to innovate without abandoning our values,” Gordon, a Republican, said in a statement. If built, the plant would be the first new coal-fired unit to open in the U.S. since 2013.
The Trump administration is trying to keep existing coal plants open. But it’s running into the problem that their equipment keeps breaking down, as Heatmap’s Matthew Zeitlin wrote. The trend toward coal isn’t unique to Trump’s America. Coal demand is rising globally.
Sign up to receive Heatmap AM in your inbox every morning:
Oregon Governor Tina Kotek ordered state agencies last week to speed up the government’s performance on permitting, energy efficiency, electrification, and low-carbon fuel. In a speech, the Democrat said her administration would pursue the cheapest pathway to the state’s 2040 target of decarbonizing electricity, E&E News reported. “We’re talking about what we really need to meet our [climate] goals in an affordable way… where we’re not getting help from the federal government,” Kotek said Wednesday at a press conference.
Democratic states are largely in a moment of flux on climate policy. California eased permitting restrictions and passed a series of bills on energy and emissions, as Emily laid out at the time. As I reported here last week, Pennsylvania took the opposite approach and withdrew from the multi-state cap-and-trade market under pressure to contain costs. New York, meanwhile, has required a federal judge to intervene to force its government to enforce climate regulations. It's all part of the emerging tension between Democrats' affordability campaigns and the party's desire to cut planet-heating pollution, as Heatmap's Robinson Meyer wrote.
Regular readers of this newsletter scarcely need reminding of two basic realities about the American oil and gas industry right now: Trump is opening virtually everywhere he can to production, but drilling has largely remained flat. But the market is looking good to the British developer Harbour Energy. In an interview with The Wall Street Journal, Linda Cook, the company’s chief executive, said Harbour Energy is exploring a potential acquisition or merger with rivals in the U.S. offshore and onshore drilling business as a way to enter “the biggest market in the world” where the London-headquartered firm isn’t already present. In a sign of confidence in Trump’s as-yet-unrealized promise to “drill, baby, drill,” Harbour Energy has widened its scope from its past inquiries into only U.S. offshore assets to also look at onshore drilling.
Beyond COP30, Brazil has at least one more first. The country’s National Nuclear Energy Commission approved construction of Latin America’s first nuclear waste repository, set to start next year, World Nuclear News reported. While Brazil is one of the only nations in the region with atomic energy, the country has just two reactors. Despite approaching nuclear power more hesitantly than neighboring Argentina, breaking ground on the first storage site would signal a significant step forward for the nascent industry in South America.