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Home to two million people, the Gaza Strip sits squeezed between Israel and the Mediterranean Sea on a bit of land just twice the size of Washington, D.C. Gaza is the smaller part of Palestine’s two territories; you could walk the length of its southern border with Egypt in under three hours. But land is not the only thing that’s long been in short supply in Gaza. As the war between Israel and Hamas, the Palestinian militant group that rules the region, has made clear, Gaza is also increasingly bereft of water.
Over the course of the tragic war, water infrastructure has played an unprecedented role. In the aftermath of Hamas’s massacre and kidnapping of Israeli civilians on October 7, the Israeli government took measures to halt drinking water — as well as aid, food, and electricity — from entering the Strip. First, on October 9, Israel shut off the pipelines that usually send water into Gaza and halted deliveries by truck. And while it turned back on some of the pipelines on October 15, it didn’t restart the electricity or the fuel shipments that power Gaza’s desalination and wastewater treatment plants.
Yet these harsh measures in recent weeks belie a much longer-term problem, as a deeper dive into the region’s infrastructure reveals. Palestinians in Gaza have not had access to safe or ample drinking water for decades.
“The water crisis that Gaza is facing is a chronic crisis,” Dr. Shaddad Attili, the former Palestinian minister of water and head of the Palestinian Water Authority (PWA) from 2008 to 2014, told me. “But now water is being used as a weapon. If they don’t get killed by missiles, they will die from the contaminated water that they’re using.”
The Israeli Defense Forces, the water authority in the West Bank, and COGAT, the Israeli body responsible for the government activities in the Palestinian territories, all did not reply to requests for comment by the time of publication.
There are three natural water resources that run through Israel and Palestine: the Jordan River Basin on the eastern border; the Mountain Aquifer, which runs directly through the West Bank; and the Coastal Aquifer, on which Israel is upstream and Gaza is downstream. The majority of the water comes from these three sources, but since the region is a desert geography, water is generally in short supply.
Israel acquired control over all the water that runs through the Israeli and Palestinian territories in the Six-Day War in 1967 when it seized the Gaza Strip from Egypt, the West Bank from Jordan, and the Golan Heights in the north from Syria. In November of that year, Israel introduced a military order stating that Palestinians could not construct any new water infrastructure without first obtaining a permit from the Israeli army. Israel gave, and continues to give, these permits sparingly.
Today, the water discrepancy is striking. While there are eight times more Palestinians living in the West Bank than Israeli settlers, 70% of the water output is given to the settlements, where it is largely used for farming, according to an April 2023 report on the West Bank’s water deprivation by the Israeli humanitarian organization, B’Tselem.
During the Oslo Accords in the mid-1990s, the West Bank won some rights to run their own pumping stations in select parts of the territory. Today, they still need to earn permits from the Israeli military in order to build new pumping stations. Gaza used to pump their water from the Coastal Aquifer, but developments over the past 30 years have made that water inaccessible.
Prior to this war, the water situation in Gaza was already dire. The World Health Organization said that Gaza’s water supply was unable to meet the minimum requirement for daily per capita water consumption.
Gaza has some unregulated pumping stations that pull water up from the aquifer, but they’re not a major cause of the problem. The Coastal Aquifer extends from a town called Binyamina in Northern Israel to the Sinai Desert in Egypt. Just 2% of the total aquifer passes through Gaza. Through the late 1990s, it supplied drinkable tap water to most of Gaza’s residents. While it historically has provided 95% of their freshwater, it’s unusable now for a few reasons.
First, Gaza’s population growth rate is among the highest in the world, with almost half of the population under 18 years old in 2022. High population growth means the already scarce groundwater can no longer replenish fast enough to meet demand.
But there are deeper problems with the water’s quality. Seawater seeps into the aquifer since it’s so close to the coast and untreated wastewater has polluted the aquifer for decades to a point that it’s no longer safe to drink. In 2020, a study in the journal Water said that the quality of groundwater in the Coastal Aquifer had “deteriorated rapidly,” largely due to Israeli pumping.
“At least 95% of the freshwater (from the aquifer) is either inaccessible or not drinkable,” said Jordan Fischbach, director of planning and policy research at The Water Institute and author of a report on the public health impacts of Gaza’s water crisis in 2018.
As a result, the Coastal Aquifer — the primary source of Gaza’s water — is essentially out of commission. Residents of Gaza are now left with only about 20% of their needs filled.
But those sources have also proven to be unreliable.
The first are the pipelines, which were built with funding from international humanitarian aid. The pipelines run from Israel-controlled fresh aquifers and the water is paid for by the Palestinian National Authority (PA) in the West Bank. These are the pipelines that Israel stopped sending water from following Hamas’ attack on Israeli civilians.
But even in the best of times, the pipelines only supply around 10% of the water demand in Gaza. Attili from the Palestinian National Authority said that the water is combined with some of the unsafe brackish water in order to increase volume.
The second source of water are small-scale desalination plants, which turn seawater into potable water, but they rely on electricity to run.
Usually they provide another 10% of Gaza’s water, but when Israel halted the importation of fuel and shut down electricity transmission into Gaza, these plants stopped running too.
However, even when electricity and fuel are available, over one-third of plants are not monitored, maintained, or officially regulated. “A number of construction materials, fuel and other things you would need to build and power drinking and wastewater facilities are considered ‘dual use.’” said Fischbach, meaning they could also be used to build weapons. “These are types of materials that are restricted by both Egyptian and Israeli authorities.”
A 2021 study showed that 79% of desalination plants are unlicensed and 12% of water samples tested showed dangerous contamination levels.
“Desalination is necessary to get anything even close to drinking water quality and only a fraction of [desalination plants] are actually licensed and monitored” said Fischbach. “Many of them are producing water that we would still consider below drinking water quality.”
He added that most of them don’t run to their capacity anyways because they are so energy intensive and Gaza doesn’t have enough electricity.
Gaza also gets water from water trucks controlled by humanitarian aid or delivered by the Palestinian National Authority. This water passes directly through Israeli land, which means Israel was able to easily halt deliveries in the wake of the Hamas attacks.
In recent weeks, some residents of Gaza have resorted to drinking sea water or brackish water directly from the Coastal Aquifer. Not only are these not sources of freshwater, they are also further polluted by untreated sewage running through the region.
Israel’s decision to cut electricity to Gaza also meant that the wastewater treatment plants can’t run. Treated wastewater is used for showering and other sanitation uses. But when it’s not processed through a plant, wastewater runs into the aquifer and groundwater, further polluting what’s left of their drinking sources.
While the situation is worse due to the lack of electricity from the war, Gaza has never had ample wastewater treatment plants.
“For two decades now Palestinians have been prevented from building and maintaining the infrastructures that keep wastewater out of the aquifer,” says Sophia Stamatopoulou-Robbins, a cultural anthropologist and professor at Bard College. She is the author of Waste Siege: the Life and Infrastructure of Palestine.
In the West Bank, the aquifer is deep, carrying around 340 million cubic meters of water every year, so wastewater that has been somewhat treated can be further cleaned by soil and rock as it seeps through the aquifer. But Gaza’s aquifer is very shallow — its estimated to carry only about 55 million cubic meters per year —, and therefore cannot clean the water. Instead, it needs extensive infrastructure.
“In Gaza, you would need an incredibly high sophistication of technology to permit the wastewater to go safely into the ground,” says Stamatopoulou-Robbins. “Even the kind of concrete containers that would hold wastewater are not permitted to be maintained or built.”
In addition to the plants themselves, you would need piping to connect buildings to the wastewater treatment plants, she adds. “So all of the conveyance technology and infrastructure which is expensive anywhere in the world, all of that is subject to Israeli controls and tends to be prevented.”
As is the case with desalination plants, neither Israel nor Egypt allows the necessary materials into Gaza for building wastewater treatment plants because those materials are also considered dual-use materials.
Even as Israel turned the water and electricity back on, there are questions around how many of these desalination and wastewater treatment plants have been bombed and are no longer running.
As far as logistically turning off these resources, it’s fairly straightforward. “The ability to shut off electricity transmission is quite easy,” said Fischbach. “It’s just flipping a switch — the same way with a rolling blackout. Fuel imports are also easy. Nothing is going into Gaza. As far as drinking water lines, you can just not pump that water. So the logistics are easy.”
Several reports of hygiene related diseases spreading through cramped spaces are surfacing in recent days. Doctors in Gaza are saying that patients are showing signs of disease caused by overcrowding and poor sanitation. Children are suffering from diarrhea, lung infections, and rashes.
“The desalination plants are out of service because there’s no electricity, the sewage treatment plants are out of service because there is no electricity. And because our people now take refuge in shelters, there is a hygiene problem,” said Attili. “I have gone to so many conferences where we say water is a tool for cooperation, not conflict, and they all agree, but now the international community remains silent.”
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A new scientific report on the state of the industry shows a growing gap between what we can do and what we need to do.
The gap between the world’s current capacity to remove carbon dioxide from the atmosphere and the amount we’ll need to remove to materially address climate change is so large, it's hard to fathom crossing it. Now, a new report warns that the chasm is widening.
The third State of Carbon Dioxide Removal report, published on Tuesday, finds that while carbon removal research and deployment has advanced significantly in the past two years, it is still not growing quickly enough to reach the scale required to support the Paris Agreement temperature limits. Carbon emissions, meanwhile, have continued to rise globally, raising the amount of carbon removal required in turn.
“We’re seeing a lot of signs that there’s still growth happening,” Morgan Edwards, an assistant professor of public affairs at the University of Wisconsin, Madison, and one of the authors, told me. “But we need to see a step change in both early indicators like investment and also actual deployments” between now and 2030, in addition to serious emission reductions, she said.
The State of Carbon Dioxide Removal is a project between researchers at the University of Wisconsin, Madison, the University of Maryland, the University of Oxford, the Potsdam Institute for Climate Impact Research, and the German Institute for International and Security Affairs. The latest report collates a wide range of indicators to assemble a detailed portrait of progress in the sector, from the number of research papers and patents published, to project deployments, costs, and investment, to voluntary purchases and policies.
The world currently removes approximately 2.2 billion tons of carbon from the atmosphere each year through intentional human activity, the authors found, which is equivalent to about 5% of annual global carbon dioxide emissions. Nearly all of that carbon removal happens through what the authors deem “conventional” methods, which include planting trees, improved forest management, soil sequestration on farms and grasslands, and coastal wetland restoration.
Less than 1% of the 2.2 billion tons comes from “novel” methods such as direct air capture, bioenergy with carbon capture, enhanced weathering, and biochar, the most common method. Novel carbon removal increased from 1.4 million tons in 2023 to 2 million tons in 2025, with biochar responsible for most of that. In total, novel forms of carbon removal have to grow to 70 million by 2030 and 360 million by 2035 for the world to achieve net zero and begin to reverse warming back down to 1.5 degrees Celsius this century, the authors found. And that’s assuming the emissions curve starts to bend dramatically downward.
“The gap will continue to grow if we do not pursue immediate and ambitious emissions reductions today,” Edwards said. Though the Paris Agreement’s 1.5-degree goal looks to be receding further out of reach, she stressed that net-zero emissions implies significant carbon removal, regardless of what temperature target you’re aiming for.
No matter how you look at it, getting to 70 million tons by 2030 would require a major shift. Right now, the most optimistic expectation for how much the carbon removal industry will grow by that point, based on corporate announcements, is about 42 million tons per year by 2030, according to the report. The capacity in the pipeline from projects that are under construction, however, amounts to just 8.4 million by 2030. At the country level, only about a third of national climate strategies even mention novel carbon removal methods, and overall carbon removal ambition among countries would have to double to close the 2030 gap.
This isn’t impossible — other technologies have achieved comparable growth rates. The report’s authors estimate that carbon removal would have to scale at speeds similar to solar power and electric vehicles. Unlike those singular solutions, however, carbon removal consists of many different technologies that intersect with a range of industries — oil and gas drilling, farming, forestry, mining — and therefore may not scale as linearly. Also, unlike EVs and solar, carbon removal isn’t a useful product with an obvious market. It’s a public good, like waste management — and an expensive one, at that.
Carbon removal funding is also highly concentrated, the authors warn, making the industry vulnerable to sudden shifts in policy and investment appetite. For example, Microsoft alone has made more than 80% of carbon removal purchases to date; then in April it confirmed it was pausing procurements, leaving behind major uncertainty over who, if anyone, will fill its role in the market. Similarly, most government funding for pilot projects to date has concentrated in three countries — the U.S., Sweden, and Denmark — but more recently the U.S. has dismantled much of its support.
The industry is also concentrated in terms of deployment. Biochar and bioenergy with carbon capture account for almost all of the 2 million tons of novel removals the authors identified. Direct air capture facilities removed just 1,500 tons in 2025, according to the report. All of that came from Climeworks’ two facilities in Iceland — Orca and Mammoth — and it’s significantly less than the roughly 40,000 tons these facilities were designed to capture each year. (While there are a few other direct air capture plants operating, they have not yet had any removals certified by a third party, and so were not included in the estimate.)
There are some bright spots in the report. Research funding, scientific publications, demonstration projects, public policies, and private investment in carbon removal are all trending up. It’s just that the results of these efforts — in terms of patents, projects under construction, and the amount of carbon being removed — are uneven.
While the report is a valiant effort to assess how far carbon removal has come, the overall picture remains deeply uncertain. That word, “uncertain,” appears over and over, applying to such questions as:
The authors emphasize the need for more research, public policy, and funding to narrow these uncertainties — especially on the demand side of the equation.
“Both demand and supply side policies are important for innovation, but much of the policy we’ve seen for CDR today has been more supply-side focused,” said Edwards. “There’s a need for a strong signal to companies who are developing these technologies and implementing CDR on the ground that the demand will be there.”
On Anthropic’s IPO, home energy rebates, and French rare earths
Current conditions: The most powerful storm to hit Western Australia in 49 years has deluged the capital of Perth • Temperatures in the Arizonan metropolis of Phoenix are climbing to 103 degrees Fahrenheit today, and will stay around that level all week • South Georgia Island, a British overseas territory near Antarctica in the Atlantic, is bracing for heavy snow.
Anthropic, the artificial intelligence giant behind the chatbot Claude, filed the first documents to the Securities and Exchange Commission to make its stock market debut. The company submitted a confidential S-1, meaning that — unlike the recent SpaceX filing — the details aren’t yet publicly available. By doing so, Anthropic has “the option to go public after the SEC completes its review,” the company wrote Monday in a blog post. The number of shares to be offered and the price “have not yet been set.” The IPO could have big energy implications. Unlike some hyperscalers, who have pushed back against the public blowback to data centers, Anthropic vowed three months ago to pay to offset electricity price hikes from its server farms, as I previously wrote. Coupled with the news yesterday morning that Iran had broken off negotiations with the U.S. to end the conflict blocking the Strait of Hormuz, Monday offered clear evidence of what Heatmap’s Robinson Meyer described as the electricity economy “having its moment.”
Here are a couple more data points: Later on Monday, Berkshire Hathaway, the investment company formerly run by Warren Buffett, announced plans to invest $80 billion into Google owner Alphabet’s data center buildout. Meanwhile, Mike Schroepfer, the former chief technology officer of Facebook parent Meta Platforms, raised $250 million for his climate-tech venture capital firm Gigascale, Bloomberg reported.
On Monday, the Department of Energy released its long-awaited guidance on how to use the remaining home rebate programs left intact after Republicans repealed broad swaths of the Inflation Reduction Act. Unsurprisingly, the program — which had a complicated rollout — initially meant to support deployment of electric heating is now no longer available for homeowners hoping to switch from gas to electric.
“Make no mistake: This is part of a coordinated strategy to boost fossil fuel profits at the expense of working families,” Tony Sirna, the deputy policy director of buildings at the progressive climate group Evergreen Action, said in a statement. “These home electrification rebates were a lifeline for families who otherwise could not afford to upgrade their homes and escape rising energy costs. Gutting them ensures millions of households remain captive customers of greedy gas utilities now poised to saddle ratepayers with up to $1.4 trillion in costs for pipelines that will ultimately be underused or entirely unnecessary.”
Allow me to break with journalistic convention and lead with the dog-bites-man story: China, already the world leader in building its own nuclear reactors, just installed the containment dome on its latest reactor at the Lianjiang nuclear power plant in Guangdong province, World Nuclear News reported. This is a vital step toward completing construction, though not unusual in a country with a whopping three dozen commercial fission reactors underway.
And now for the man-bites-dog. The United Kingdom, whose nuclear industry has long suffered the same anemia as that in the United States, just reached a major milestone on its long-delayed Hinkley Point C nuclear site in southwest England. On Monday, NucNet reported that the second reactor pressure vessel had been lifted into place by the world’s largest crane.
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A federal judge in Denver halted the Trump administration’s effort to carve up Boulder’s National Center for Atmospheric Research by handing over a supercomputing center to the University of Wyoming. The 38-page injunction, detailed in the Colorado Sun, called the move by the National Science Foundation to divest from the supercomputing center “arbitrary, capricious, an abuse of discretion, or otherwise not in accordance with law.” Senior U.S. District Judge R. Brooke Jackson argued that his decision was necessary because a lawsuit filed in March by the University Corporation for Atmospheric Research was likely to succeed, and “too much damage had already been done to the supercomputing center’s operations.”
The U.S. wants to quit Chinese minerals. But mining all those metals domestically is virtually impossible. As a result, one of the two big rare earths champions in which the Trump administration took an equity stake is now looking to Europe. On Monday, USA Rare Earth announced plans to invest more than $204 million into producing rare earths and magnets made from them. The deal, per Mining.com, builds off a previous agreement to acquire a stake in the French rare-earth processor Carester for $47 million.
France isn’t the only country netting some green investment. On Monday, Italian oil giant Eni announced its own bet on battery manufacturing. The company reached a deal for a joint venture with Seri Industrial Group to develop an integrated industrial supply chain for lithium-iron-phosphate batteries. The deal will close by the end of this week. Eni said the deal “adds another piece to the puzzle of completing the supply chain from critical minerals to the production of energy storage.”
Rob gets into the latest state-level policy developments with Heatmap’s own Emily Pontecorvo.
When New York passed its first major climate law in 2019, climate advocates hailed the work as a milestone: The Empire State vowed to cut its carbon emissions by 40% by 2030, as compared to their 1990 levels, giving it some of the world’s most ambitious subnational climate policy. But last week, Governor Kathy Hochul and the state legislature moved to rewrite key provisions in that law, weakening deadlines and redefining its emissions math.
What happened? And would New York have ever been able to hit its 2030 goal? On this episode of Shift Key, Rob is joined by Emily Pontecorvo, a founding staff writer at Heatmap. They discuss how New York has changed its targets, why it has altered its approach to natural gas, and whether state-level climate goals can survive an age of affordability politics.
Shift Key is hosted by Robinson Meyer, the founding executive editor of Heatmap News.
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Here is an excerpt from their conversation:
Robinson Meyer: The other thing they did was this accounting change around how the state law considers methane. Can you talk a little bit about that?
Emily Pontecorvo: So, one of the things that made the New York climate law especially ambitious was they created in the law this rule that they were going to account for methane very differently than the way that almost any other state and most of the rest of the world does. And I’m sure listeners know, but methane is another greenhouse gas. It’s much more powerful than carbon dioxide, but it doesn’t stay in the atmosphere as long. It breaks down more quickly.
And so when you’re trying to kind of convert all greenhouse gases into one number, a carbon dioxide equivalent, there’s different ways to do that. You can measure methane on its effect on the atmosphere on warming over a 20-year period, which will make it look very, very strong because it’s strongest during that period. Or you can measure it over a 100-year period. These are the two common ways of doing it. And while much of the rest of the world uses the 100-year global warming potential of methane, New York was using the 20-year, which meant that all of New York’s methane emissions from landfills, from natural gas, those emissions had a much bigger effect on the state’s overall emissions. So it made the overall emissions seem higher on paper than if New York had used this other, 100-year global warming potential.
And there was actually a second thing that New York did that was unique, which is the state said, we’re not just going to account for the methane emissions that happen within our economy, within our borders. We’re also going to take ownership and take responsibility for methane from upstream from the natural gas that we use. So New York gets a lot of its natural gas from Pennsylvania, from West Virginia. And so New York is keeping on its own books the methane that’s leaks out of the drilling and pipelines and other infrastructure in those other states.
And so the big change in the budget deal was one, that New York was no longer going to include those emissions upstream in its own ledger. And two, that it’s going to switch to this 100-year accounting global warming potential. And so those two things combined, it really just takes a lot of carbon dioxide equivalent, or it takes a lot of methane off of New York’s books and makes the distance between now and the 2030 goal look a lot smaller.
Meyer: Stepping back, methane, as we’ve been saying, is a short-lived greenhouse gas. It’s extremely potent when it’s first released into the atmosphere, and then it quickly breaks down into carbon dioxide. And what’s interesting about it is that if you look at a molecule of methane, it is actually going to trap far more heat.
So methane, CH4, it will eventually oxidize down and break down into CO2. A singular molecule, the carbon in a molecule of methane, is going to trap more heat over its lifetime as an emission in the atmosphere in its CO2 form than in its CH4 form. And that’s because CO2 is extremely long-lived in the atmosphere. Basically, methane lasts 20 years in the atmosphere or so. It has this somewhat unstable and changing rate of decay in the atmosphere, but it’s not going to last longer than 100 years. And then CO2 will last roughly 1,000 years in the atmosphere. It essentially has a geological time scale in the atmosphere.
So methane’s going to matter way more later on as CO2. But as the U.S. energy system has come to rely more on natural gas, and therefore, as methane emissions have gone up, because methane is the largest component of natural gas, there was an effort to basically ... I don’t want to say make the methane emissions look worse, but like, try to capture — I think the counterargument here was that a lot of short-term warming seems to be coming from methane, and so therefore we should make methane look worse in the accounting than it might if we took a totally kind of apolitical, long-termist, geological accounting scale.
You can find a full transcript of the episode here.
Mentioned:
How New York Is Weakening Its Climate Law, by Emily Pontecorvo
LA Times: After heated debate, California updates key climate limit. Critics say it’s a retreat
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