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Implementing the new rules could mean reshaping the entire U.S. energy system.

The most generous, lucrative, and all-around lavish subsidy in President Joe Biden’s climate law, the Inflation Reduction Act, is the new tax credit for clean hydrogen production. Under the policy, a company can get a bounty of up to $3 for each kilogram of hydrogen made with clean electricity that it produces and sells. There are few legal limits to what a company can earn.
So it figures, then, that this subsidy has been the subject of maybe the most acrimonious, dramatic, hair-tearing fight over the law so far, one that saw snoozy lobbyists and power plant operators take out Spotify spots and full-page New York Times ads in order to make their point.
On Friday, the first phase of that battle ended — and the side supported by most environmental groups claimed a provisional victory. The Biden administration proposed strict rules governing the tax credit, designed to ensure that only zero-carbon electricity meeting rigorous standards can be used to make subsidized hydrogen. The rules, which some industry groups allege could stunt the field in its infancy, will have far-reaching consequences not only for hydrogen itself, but for how America’s power grid prepares for an age of abundant, zero-carbon electricity. It will create a system for organizing clean electricity that could soon determine how companies, consumers, and the federal government buy and sell that electricity — even when it has nothing to do with hydrogen.
But all of that is in the future. Now, to get the highest value of the tax credit, companies must — like other subsidies in the law — demonstrate that they paid a prevailing wage and took advantage of local apprenticeship programs.
They also must demonstrate that they used clean, zero-carbon electricity to power their electrolyzers, the energy-hungry machines that pull hydrogen out of water or other molecules. And defining clean electricity has proven to be an enormous challenge. However the Biden administration chose to define it, someone was going to be left out — or let in.
Consider just one hypothetical. Pretend you own a fancy new electrolyzer. If you buy power for it from a wind farm that’s already hooked up to the grid, then another power plant will have to replace the electrons that you’re now using. That marginal electricity will probably have to come from a coal or natural gas power plant, meaning that it will need to burn extra fuel, meaning it will release extra carbon pollution. Does that mean that the electricity that you bought is actually clean? And if not, do you still get the tax credit?
Earlier this year, climate groups proposed that any clean electricity used to make hydrogen had to meet three requirements: It had to come from a truly new source of power on the grid; it had to generate power at the same time that it was used; and it had to be produced on essentially the same grid where it was used. The Biden administration largely adopted those requirements in Friday’s proposal. On a briefing call with reporters ahead of the rule's release, Deputy Secretary of the Treasury Wally Adeyemo was effusive about the new rule’s benefits. “We’ve developed a structure that will drive innovation and create good-paying jobs in this emerging industry while strengthening our energy security and reducing emissions in hard-to-transition sectors of the economy,” he said.
Not everyone feels that way. Senator Joe Manchin, who provided a key vote for the IRA, told Bloomberg that the draft is “horrible” and promised that “we are fighting it.”
“It doesn’t do anything the bill does. They basically made it 10 times more stringent for hydrogen,” he said. The trade group for the nuclear industry has also expressed its “disappointment,” arguing, more or less correctly, that the proposal “effectively eliminates all existing clean energy from qualifying” for the credit.
But debate about the proposal has not quite run on green vs. industry lines. Air Products, the world’s largest hydrogen producer, has backed the administration’s approach, as have half a dozen other hydrogen companies. So has Synergetic, a hydrogen developer that recently left the trade group the American Clean Power Association to protest its laxer stance. “Consumer groups are behind these rules, and environmental justice has also come out to express support,” Rachel Fakhry, a policy director at the Natural Resource Defense Council, told me.
The excessive focus on the hydrogen tax credit has been, in one sense, surprising. If you care most about cutting carbon pollution in the near-term, the hydrogen tax credit is unlikely to be the most important part of the IRA. Other policies — such as the clean electricity tax credit, which could add vast amounts of new wind and solar to the grid, or new subsidies for electric vehicles — will likely reduce greenhouse gas pollution by far more in the next decade.
But a clean hydrogen industry could soon be crucial to the climate fight. Hydrogen could eventually be used to fuel medium- and heavy-duty trucks, which are responsible for roughly a quarter of the country’s transportation emissions.
It could also decarbonize the production of steel, chemicals, and fertilizer, all of which require fossil fuels today. These are a looming climate problem: By the middle of this decade, heavy industry will pollute the climate more than any other sector of the American economy, according to the Rhodium Group, an independent research firm.
Yet this does not explain why the hydrogen tax credit attracted so much attention. It became a big fight, in short, because it stood the biggest chance of backfiring. Because the tax credit is so generous, incentivizing hydrogen companies to use more and more power, it risked gobbling up too much electricity and distorting the country’s power markets. In the disaster-movie scenario, the tax credit could wind up like the federal government’s ethanol subsidies, which have cost billions while doing nothing to help the climate.
The hydrogen tax credit “has been the most challenging piece of policy that we’ve had to contend with,” John Podesta, the White House adviser in charge of implementing the IRA, told me on the sidelines of COP28 in Dubai earlier this month.
He described the administration as balancing between two extremes. On the one hand, overly strict rules could cause companies to invest more in so-called “blue hydrogen,” which is produced by separating natural gas and capturing the resulting carbon. Yet overly loose rules could cause emissions to balloon and power prices to soar.
“We could kind of blow it in either direction, I think,” he said.
This hasn’t always been seen as a problem. Since the IRA passed last year, the clean hydrogen tax credit has stood out for its extreme generosity, which goes far beyond what is contemplated by other tax credits in the law.
Once the Treasury Department decides that a hydrogen project qualifies for the tax credit, for instance, then that project can receive credits for the next 10 years. For five of those years, it can even get that money as a direct payment from the government, rather than as a tax cut. What’s more, projects can qualify for the tax credit as long as they begin construction by 2033. That means the tax credit will still be used well into the 2040s, even if Congress does not extend it.
Almost no other policy in the law spends federal dollars so lavishly or directly. Manchin, who negotiated the final text of the IRA with Senate Majority Leader Chuck Schumer, has long championed the hydrogen industry and seen it as a way to use fossil-fuel assets, such as pipelines, in the energy transition.
Soon after the IRA passed, however, climate advocates realized that this generosity could pose risks to the rest of the law. In the summer of 2022, Wilson Ricks, an engineering Ph.D. student at Princeton, was interning for the Department of Energy, studying how to measure the climate impact of hydrogen produced by electrolysis.
Ricks had already concluded that the “lifecycle” of the electricity used to make hydrogen mattered: If electricity from a nuclear power plant was sent to an electrolyzer instead of the power grid, thereby forcing a natural-gas plant to turn on and send power to the grid instead, then so-called “clean hydrogen” could actually result in more climate pollution than the traditional approach of using natural gas to make hydrogen.
Then the IRA passed, and “potentially hundreds of billions of dollars hinged on that question,” he told me. In January, Ricks and his colleagues at Princeton’s ZERO Lab published a study urging the Biden administration to adopt stringent guidelines for the tax credit. Without hourly matching, they concluded, the subsidy could wreak havoc in the country’s electricity markets.
Ricks wasn’t the only expert suddenly worried about what a giant new hydrogen subsidy could do to electricity markets. Nearly a year earlier, Taylor Sloane, an energy developer for the utility and power company AES, virtually predicted the hydrogen fight in a Medium post.
“The reason it matters that we get these rules right is that we don’t want to have an environmental backlash against green hydrogen in a few years demonstrating how it actually increases emissions,” he wrote. “Getting the rules right from the start will ensure more stable long-term growth of green hydrogen.”
Ultimately, the administration decided that nearly all clean electricity used to produce hydrogen must meet three requirements — largely inherited from the climate groups’ proposals. They also mirror hydrogen regulations already adopted in the European Union.
First, the electricity must come from a relatively new source of zero-carbon power, such as a wind or nuclear plant: You can’t use electrons that once would have powered homes or cars to power an electrolyzer.
Second, the electricity must be produced at roughly the same time that it is used to make hydrogen: You can’t buy cheap solar power at noon and claim that you’re using it to make hydrogen at midnight.
Finally, the electricity must have been made on the same power grid that the electrolyzer itself is using: You can’t buy wind power in Iowa and claim that you’re using it to make hydrogen in Massachusetts.
Today, no power company in the country has a way of certifying that its electricity meets all three requirements of the new hydrogen rule — and none has any way of selling it, either. So the rules also require local power grids to set up and sell “energy attribute certificates,” or EACs, which certify that a given kilowatt-hour of electricity was produced on a certain grid, at a certain time, and using a certain source of clean energy.
Utilities and grid managers have until 2028 to launch this new system; until then, hydrogen companies can keep using the existing system of renewable energy credits, or RECs, which certify only that zero-carbon electricity was generated during a certain year.
Although this new system of EACs may sound like so much bureaucratic legerdemain, it could eventually become more important than the hydrogen tax credit itself, because it could all but reshape how the country’s electricity systems work.
Right now, even though the availability of clean energy rises and falls throughout the day — solar panels make more power at noon than at midnight, for instance — there is no way to buy or sell claims to that power. By creating a systematic way to describe and sell an hour of clean electricity, EACs could actually create a market for 24/7 clean electricity.
The existence of that system could alter corporate sustainability pledges, climate-friendly government orders, and even how companies measure their own progress toward meeting their Paris Agreement goals. Even though hundreds of American companies say that they buy their electricity from zero-carbon sources, only Google, Microsoft, and a few other companies have committed to buying 24/7 clean electricity.
“I know the administration faced absurd amounts of pressure given how lucrative this is,” Ricks told me. “But it seems like they pretty much held firm and went with the science.”
That said, the proposal kicks two issues down the road. It asks companies whether it should allow any exceptions to the general rule requiring that clean electricity come from clean sources. Some nuclear power plant operators, for instance, have argued that electricity from a nuclear plant should count toward the credit if the plant would otherwise be slated to shut down.
That decision could shape other administration priorities. Two of the government’s seven proposed “hydrogen hubs,” new industrial facilities funded by the bipartisan infrastructure law, are planning to use nuclear power to generate clean hydrogen. Under the current rules, these hubs may not qualify for the generous hydrogen tax credit, even though they could still earn billions in other subsidies.
The proposal also asks for advice about how to count so-called renewable natural gas, which is captured methane released from cows or landfills. Some environmentalists worry that the rules for this technology, if poorly drafted, could allow companies to engage in aggressive carbon accounting that does not align with reality. But so far, the Biden administration seems to have little appetite for that approach.
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A new 60-home pilot program aims to expand vehicle-to-grid charging.
When energy experts imagine the grid of the future, they often dream of millions of electric vehicles moonlighting as mobile power banks, using their hefty batteries to send electricity back to the grid when it needs a boost. But despite rapid EV adoption, this utopia has remained largely out of reach. Most vehicles don’t yet support bidirectional power flow, and most markets lack incentives for customers to feed power back to the grid in the first place.
That’s finally starting to change. While vehicle-to-grid — a.k.a. V2G — technology is still in its earliest innings, a new Massachusetts program announced on Thursday is working to make the technology something closer to commonplace. Funded by the Massachusetts Clean Energy Center, the state’s economic development agency, the initiative will install 60 bidirectional charging systems in participating residents’ homes.
The program has already begun enrolling its first participants, joining a small but growing group of V2G demonstrations across the country. But the field remains so nascent that even a 60-home project stands out. Kip Hack, who leads the distributed energy resource management company EnergyHub’s EV work, told me he very much considers it a “leading program for North America.”
The Massachusetts initiative brings together a wide variety of partners: utility companies Eversource and National Grid, EnergyHub, and technology partners Sunrun and The Mobility House, which each provide the software and device integrations needed to connect various EV models to the grid. Depending on their vehicle, eligible customers will enroll in the program through either Sunrun or The Mobility House, which will then connect them to their utility’s existing demand flexibility program, ConnectedSolutions. This decade-old initiative pays customers to reduce strain on the grid by leveraging smart thermostats, batteries, and other commercial and industrial energy systems. Now EVs will join the mix.
“They don’t actually care what the participating technology is. They only care about the output,” EnergyHub’s president, Seth Frader-Thompson told me, referring to ConnectedSolutions’ technology-agnostic design, which runs on EnergyHub’s software platform. That means the program can readily incorporate new distributed energy resources as they become available, simplifying the entire process in a way that many other regions have yet to figure out. “So when V2G technology was ready, nobody had to create a new program. You already had a program structure, an incentive structure, et cetera, that you could just have these vehicles participate in.”
Each distributed energy asset enrolled in the program can earn up to $275 per average kilowatt of grid support provided during the summer months. But customers don’t receive that payment directly from their utility. Rather Sunrun and The Mobility House set their own customer incentive structures based on that underlying $275 per kilowatt value.
Chip Silverman, Sunrun’s director of grid services and virtual power plants, told me that its customers will receive a fixed payment simply for signing up, just as the company’s stationary battery storage customers do. That gets new participants in the door — they can then earn additional performance incentives if they actually discharge power back to the grid during a demand response event. “We want to incentivize people to plug in 5:00 p.m. to 8:00 p.m. on weeknights because we want to get you to try to hit the peak events whenever possible,” Silverman told me.
The pool of qualifying vehicles remains quite limited, however. Sunrun’s system only supports the Ford F-150 Lightning, while The Mobility House’s software integrates with chargers compatible with the Kia EV9, Volvo XC90, Polestar 3, and several Nissan Leaf models. Teslas with V2G capability — which today means just the Cybertruck — are not eligible. That’s because while every other vehicle in this program places the requisite DC to AC power converter within the wall charger, Tesla installs this hardware in the car itself. While that will likely prove to be a smarter, cheaper long-term approach, for now it doesn’t align with how utilities certify and approve grid-connected equipment.
Yet even at this early stage, with limited scale and narrow eligibility requirements, Massachusetts’ early adopters are already demonstrating the technology’s value. “It has been quite hot, unseasonably hot in New England these last several weeks,” Hack told me, explaining that participants’ EV batteries have already been tapped to discharge power “more than once” since enrollment began earlier this month.
The potential for far greater impact is enormous. “The size of the battery in the car is remarkable,” Frader-Thompson told me. While a typical home battery stores around 10 to 15 kilowatt-hours of energy, an EV battery can hold on the order of 70 to 100 kilowatt-hours. “So if the vehicle is plugged in, it essentially has the ability to export the equivalent of an entire residential battery every hour during an event,” he explained.
To truly turn V2G from a promising concept into a reliable grid resource, however, utilities and grid operators will need much more data on when these batteries are available and how much power EV owners are actually willing to provide. By the end of this summer, Massachusetts’ latest experiment could offer some of the first real-world answers.
On Trump’s power pledge, America’s offshore nuclear, and Japan’s offshore wind
Current conditions: A new heat dome is spreading temperatures above 100 degrees Fahrenheit across the Central United States, from Texas north to the Dakotas • Tropical Storm Bertha made landfall over southern Louisiana with winds of up to 45 miles per hour • Tasmania is facing a cold front with freezing wind chills.

On December 8, 1953 — just eight years after the United States demonstrated the destructive power of splitting atoms in the form of a mushroom cloud over Hiroshima — then-President Dwight D. Eisenhower pledged to lead the world in harnessing fission to constructive ends. In his famed “Atoms for Peace” speech, he vowed to help other nations build nuclear power stations that he believed would bring about a new era of global prosperity built atop a foundation of abundant electricity. Under the law Congress passed the next year to lay the groundwork for a nuclear buildout, Washington didn’t make it easy for foreign countries to import American technology. Before any U.S. nuclear company can sell its wares abroad, the Senate needs to approve what’s known as a 123 Agreement, essentially a treaty in which the partner nation agrees not to use the technology for weapons proliferation. When Abu Dhabi set out to build the Arab world’s first nuclear power station, the U.S. struck a new, special 123 Agreement with the United Arab Emirates in 2009, in which the Gulf monarchy swore off ever enriching or recycling its own fuel. That deal became the gold standard for U.S. nuclear pacts — and one Washington had planned to make a requirement for any other countries in the region. Saudi Arabia, however, wasn’t happy with those restrictions, particularly as its rival Iran pressed ahead with construction of its second and third reactors at its debut Russian-made nuclear station. With the Biden administration putting up resistance, Riyadh began flaunting talks with Beijing to buy Chinese reactors, in what would mark a major entry of the People’s Republic into the nuclear export market.
All of which you needed to know to appreciate what a huge deal the latest news is. On Wednesday, The Wall Street Journal, The New York Times, and the Associated Press confirmed that Saudi Arabia had reached a deal with the Trump administration that would likely allow Riyadh to enrich and recycle its own fuel on its soil. While a formal announcement is expected this week, Secretary of State Marco Rubio already acknowledged the deal by telling reporters any such agreement would not lead to weapons proliferation. On the face of it, the deal is a major win for the U.S. over its arch adversaries. Russia dominates global nuclear exports, and is currently building the debut plants in Bangladesh, Egypt, and Turkey. China, meanwhile, has dramatically brought down the cost and time it takes to build its own domestic reactors, which are based on the leading American design, and Beijing is widely expected to make an export push in the coming years. The U.S. has managed to win deals in Eastern Europe to build Poland’s first nuclear plant. But so far, American technology has struggled to compete on both price and construction competence. A moment when Iran is firing missiles at America’s Arab allies may seem ill-suited to embarking on a civilian nuclear program, but the Atlantic Council researcher Allison Minor, who previously served as a U.S. deputy special envoy to Yemen, said the war had added urgency to brokering the Saudi-U.S. deal. “By keeping the door open for uranium enrichment inside Saudi Arabia, the nuclear deal sends a powerful message to Tehran,” she wrote in a blog post. “By securing a 123 agreement that appears to have more preferable terms than the United Arab Emirates and dozens of other U.S. partners have committed to, Riyadh also signals its role as a major global player, even if it is not among the ranks of nuclear-armed nations.”
In March, the White House organized a voluntary industry pledge in which hyperscalers and data centers developers promised to pay above and beyond the normal rate for electricity to ease the strain on Americans. On Thursday, the Trump administration plans to announce a vast expansion of the pact to include the nation’s largest utilities, Reuters reported. Utilities NextEra Energy and Duke Energy joined data center developers Equinix and Digital Realty along with roughly 200 other entities on a list of signatories The Wall Street Journal obtained.
The move comes a day after ratepayer advocates accused the Federal Energy Regulatory Commission of failing to address the cost of upgrading infrastructure in its latest order meant to ease the impacts of data centers, Utility Dive reported. Polling from Heatmap Pro has shown repeatedly that public support for data centers is collapsing.
The Colorado River’s largest reservoirs, Lake Mead and Lake Powell, hit record lows in what experts described to the Los Angeles Times this week as a “five-alarm fire.” On Tuesday, Secretary of the Interior Doug Burgum met with the governors of seven states virtually ahead of his agency’s anticipated release of a plan to cut back on water use to ease shortages. That states appear to be welcoming a federal intervention marks a break with more than a century of Western states fighting to manage their water supplies among themselves with minimal oversight from Washington. Yet “far from a brash commandeering of the system,” E&E News reported, Burgum’s plan “is effectively a kick-the-can exercise for managing the drought-riddled river that supplies water” for one in 10 Americans. “At best, the Trump administration’s plan will leave economies — from the bucolic ranches of the Rocky Mountains to the mansions of Los Angeles, the tech hub of Phoenix and the powerhouse farms along the border with Mexico — in a state of limbo, without clear rules for who will have access to vital supplies in the years to come,” reporter Annie Snider wrote. “At worst, it dares the region’s political leaders — most especially Arizona Governor Katie Hobbs, who is facing one of the country’s closest gubernatorial races in the fall — to launch a destabilizing court fight.” As former Heatmap reporter Neel Dhanesha wrote in 2023, sometimes plans can at least buy some time.
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Russia officially kicked off the global race for small modular reactors in 2019 with the launch of its first floating nuclear station, which is still pumping out power in an Arctic port today. Since then, dozens of companies have proposed small reactors on land, and a handful of startups has looked to build nuclear-propelled civilian ships. But no one has really attempted any major offshore nuclear energy projects yet. Still, the Trump administration is preparing for the potential new sector. On Wednesday, the Department of the Interior’s Marine Minerals Administration — the agency recently formed out of combining the Bureau of Ocean Energy Management with the Bureau of Safety and Environmental Enforcement — signed a memorandum of understanding with the Nuclear Regulatory Commission to “responsibly respond to industry requests” and support new technologies.
“Submerged reactor systems have been safely deployed in naval applications for decades, demonstrating their potential as a reliable source of energy in demanding marine environments,” Matt Giacona, the acting director of the Marine Minerals Administration, said in a statement. “While no commercial deployment on the Outer Continental Shelf is planned or approved at this time, it could greatly strengthen America’s energy security in the future.”
China unveiled a new set of rules for the solar industry last week that are expected to “do a good job in cutting out low-cost, outdated technology across the value chain,” according to a new report from the research division at the magazine PV Tech. The new national regulations, set to take effect on January 1, 2027, phase out weaker panels and conventional polysilicon products. “These new restrictions are very interesting as the Chinese government now sees a need to stop the oversupply, maybe coming from lowered deployment in China in the first half of the year,” Joe Hennessy, co-author of the report and analyst at PV Tech Research, told PV Tech. “This will affect the smaller producers the most, as they are less likely to have upgraded lines during the period of losses.” Larger solar manufacturers are already producing panels with efficiency rates of up to 24%, the report found.
This is a story I’m planning to keep a close eye on, given the forthcoming results of the Department of Commerce’s 232 investigation into whether domestic U.S. producers of polysilicon need new tariffs to protect them against Chinese imports. My best-placed sources say the agency is on track to release its findings by next month, though others close to the process say the 74-day government shutdown could give the administration until early September to meet its legal deadlines.”
Koloma, the startup seeking to tap into naturally occurring hydrogen deposits, has a third exploration deal in the Philippines. On Thursday, Heatmap editorial fellow Ameya Hadap broke news that the company has inked an agreement for exclusive rights to a roughly 817-square-mile area of Luzon’s Zambales Province. The Colorado-based firm now has the rights to more than 1,600 square miles of the country.
The deal, shared exclusively with Heatmap, is the startup’s third in the oil-importing country.
Hydrogen fuel comes in myriad forms. There’s green hydrogen, which is extracted from water molecules using zero-carbon electricity. There’s blue hydrogen, derived from methane and scrubbed clean by carbon capture. And then there’s white hydrogen. Otherwise known as natural or geologic hydrogen, this type of hydrogen comes directly from naturally occurring deposits in the earth, can accumulate in considerable quantities and concentrations, and is highly energy-efficient to extract compared to manufacturing pathways such as electrolyzers and steam methane reforming.
It’s a seductive promise, but finding deposits with enough hydrogen to make the economics of exploration work is difficult. That’s where Koloma comes in. The startup uses a bespoke subsurface data set, which its founders developed over 20-plus years, to flag the areas most likely to hold sufficient hydrogen, after which they can extract it for power and derivative fuels.
On Thursday, the startup announced its latest exploration deal, its third in the Philippines, which will give it exclusive rights to a roughly 817-square-mile area in western Zambales Province on the island of Luzon. Altogether, the company now has rights to explore more than 1,600 square miles of the island.
The Philippines until recently imported 98% of its oil from the Middle East. Since the onset of the U.S. and Israel-led war in Iran and the subsequent closure of the Strait of Hormuz, the country’s responses have included declaring an energy emergency, imposing a four-day workweek, tripling solar panel imports from China, and even planning to dust off the Bataan Nuclear Power Plant, which has sat idle since 1986.
The country also sits between three active tectonic plates, which means it has a lot of young iron-rich rock formations exposed to water — exactly the conditions that continuously produce natural hydrogen.
“The Philippines is like the poster child of that,” Pete Johnson, Koloma’s CEO, told me. “The geology is very, very good.” Accordingly, the prospect of a plentiful, easy-to-tap domestic energy source has gotten Philippine policymakers excited. The government collects data on natural leaks of hydrogen from the ground to help companies like Koloma narrow their search.
In theory, once a viable deposit is discovered, extraction is straightforward. “If you drill a hole into that pressurized reservoir, the gas is going to flow by itself. It’s just like poking a hole in a balloon,” Johnson told me. Where electrolyzers need around 55 megawatt-hours of energy to produce a ton of hydrogen and gas-powered reformers need around 40 megawatt-hours, natural hydrogen extraction would take 3 megawatt-hours maximum, according to the CEO. And unlike some methods to artificially stimulate the formation of hydrogen deposits, which my colleague Katie Brigham wrote about last week, tapping into natural wells doesn’t require injecting high-pressure fluids, which keeps the structural integrity of the subsurface intact.
Koloma has no hard agreement with the Philippine government to earmark any of the hydrogen it may produce there for domestic consumption, Johnson told me. But given the difficulty of transporting the lightweight gas and the projected growth of the Philippine economy, he expects the country would be the overwhelming beneficiary of Koloma’s activities there.
Once it’s extracted, Koloma could sell the hydrogen as a primary resource (major population and industrial centers like Manila are close to exploration sites) or as a feedstock for products like ammonia and sustainable aviation fuel, which local manufacturers could then export. There may also be opportunities to sequester captured CO2, which easily bonds with the types of rock often found in natural hydrogen deposits and can in turn make the rock more reactive for hydrogen generation.
Hydrogen has figured heavily in the decarbonization and energy security plans of import-dependent East and Southeast Asian economies for a long time. As Katie explained earlier this year, it’s also a centerpiece of China’s latest five-year plan. Japan, meanwhile, has been a leader since the industry’s inception, rolling out the world’s first hydrogen strategy in 2017. The Philippines’ partnership with Koloma is a bet that there are enough hydrogen balloons under its land to put its energy plans on the same trajectory.