This is today’s edition of The Download, our weekday newsletter that provides a daily dose of what’s going on in the world of technology.

On the ground in Ukraine’s largest Starlink repair shop

Starlink is absolutely critical to Ukraine’s ability to continue in the fight against Russia. It’s how troops in battle zones stay connected with faraway HQs; it’s how many of the drones essential to Ukraine’s survival hit their targets; it’s even how soldiers stay in touch with spouses and children back home.

However, Donald Trump’s fickle foreign policy and reports suggesting Elon Musk might remove Ukraine’s access to the services have cast the technology’s future in the country into doubt.

For now Starlink access largely comes down to the unofficial community of users and engineers, including the expert “Dr. Starlink”—famous for his creative ways of customizing the systems—who have kept Ukraine in the fight, both on and off the front line. Together, they have repaired and customized more than 15,000 terminals since the war began.

Despite the pressure, the chance that they may lose access to Starlink was not worrying volunteers at the time of my visit; in our conversations, it was clear they had more pressing concerns than the whims of a foreign tech mogul. Russia continues to launch frequent aerial bombardments of Ukrainian cities, sometimes sending more than 500 drones in a single night. 

The threat of involuntary mobilization to the front line looms on every street corner. How can one plan for a hypothetical future crisis when crisis defines every minute of one’s day? Read the full story.

—Charlie Metcalfe

This story is from our forthcoming print issue, which is all about security. If you haven’t already, subscribe now to receive future issues once they land.

This article is also part of the Big Story series: MIT Technology Review’s most important, ambitious reporting. The stories in the series take a deep look at the technologies that are coming next and what they will mean for us and the world we live in. Check out the rest of them here.

NASA’s new AI model can predict when a solar storm may strike

NASA and IBM have released a new open-source machine learning model to help scientists better understand and predict the physics and weather patterns of the sun. Surya, trained on over a decade’s worth of NASA solar data, should help give scientists an early warning when a dangerous solar flare is likely to hit Earth.

Solar storms occur when the sun erupts energy and particles into space. They can produce solar flares and slower-moving coronal mass ejections that can disrupt radio signals, flip computer bits onboard satellites, and endanger astronauts with bursts of radiation. 

While there’s no way to prevent these sorts of effects, being able to predict when a large solar flare will occur could let people work around them. Read the full story.

—Peter Hall

Why recycling isn’t enough to address the plastic problem

I remember using a princess toothbrush when I was little. The handle was purple, teal, and sparkly. Like most of the other pieces of plastic that have ever been made, it’s probably still out there somewhere, languishing in a landfill. (I just hope it’s not in the ocean.)

I’ve been thinking about that toothbrush again this week after UN talks about a plastic treaty broke down on Friday. Nations had gotten together to try and write a binding treaty to address plastic waste, but negotiators left without a deal.

Plastic is widely recognized as a huge source of environmental pollution—again, I’m wondering where that toothbrush is—but the material is also a contributor to climate change. Let’s dig into why talks fell apart and how we might address emissions from plastic.

—Casey Crownhart

This article is from The Spark, MIT Technology Review’s weekly climate newsletter. To receive it in your inbox every Wednesday, sign up here.

The must-reads

I’ve combed the internet to find you today’s most fun/important/scary/fascinating stories about technology.

1 Google is betting that AI can help you take better photos

So long as you don’t try zooming in on someone’s face, that is. (WP $)
+ Gemini is getting a new audio model capable of detecting tone. (TechCrunch)
+ Google’s AI efforts are certainly outpacing those of its hardware rival Apple. (Bloomberg $)

2 Meta’s AI hiring spree is on pause
Investors are increasingly concerned by the mad sums being bandied about. (WSJ $)

3 China is preparing to show off its hypersonic missiles
The world will be watching its military parade closely next month. (FT $)
+ Meanwhile, India has tested a missile that could hit deep into China. (The Guardian)
+ Taiwan’s “silicon shield” could be weakening. (MIT Technology Review)

4 RFK Jr. wants to send you MAHA food boxes
But concrete details are light on the ground. (The Atlantic $)
+ How MAHA is shaking up packaged goods’ supply chains. (Fortune $)

5 Extreme heat is driving cases of Legionnaire’s disease in NYC
Older air conditioning infrastructure is helping to spread dangerous bacteria. (Vox)
+ A fifth person has died in connection with the current outbreak. (ABC News)

6 What it’s like to vibecode for a massive startup
Managing AI coding apps is a whole lot like herding interns, supposedly. (Wired $)
+ What is vibe coding, exactly? (MIT Technology Review)

7 Starship’s rocket launch could delay flights in Florida
Even after the launch is completed. (TechCrunch)

8 This app will help you find the sunniest spots in Paris ☀
The community-driven Jveuxdusoleil is updated in real time. (The Guardian)

9 The world’s only public diamond mine is in Arkansas 💎
Visitors have unearthed more than 35,000 precious gems since it opened. (Ars Technica)

10 It turns out Uranus had a hidden moon all along
And many more may be discovered in the future. (NYT $)
+ It’s the 29th known satellite to orbit the planet. (Scientific American $)
+ The moon is just the beginning for this waterless concrete. (MIT Technology Review)

Quote of the day

“It jumbles my freaking nugget that people can look at a squat and not understand how it’s supposed to look. You don’t need AI to do that.”

—Andrew Hiller, a CrossFit coach and critic of poorly-executed squats, tells the New York Times why doing away with vigilant human judges for the popular fitness race Hyrox would be a mistake.

One more thing

Are friends electric?

Thankfully, the difference between humans and machines in the real world is easy to discern, at least for now. While machines tend to excel at things adults find difficult—playing world-champion-level chess, say, or multiplying really big numbers—they find it hard to accomplish stuff a five-year-old can do with ease, such as catching a ball or walking around a room without bumping into things.

This fundamental tension—what is hard for humans is easy for machines, and what’s hard for machines is easy for humans—is at the heart of three new books delving into our complex and often fraught relationship with robots, AI, and automation. They force us to reimagine the nature of everything from friendship and love to work, health care, and home life. Read the full story.

—Bryan Gardiner

We can still have nice things

A place for comfort, fun and distraction to brighten up your day. (Got any ideas? Drop me a line or skeet ’em at me.)

+ Take a minute out of your day to admire these stunning images of the night sky.
+ The remarkable story of how Sweden managed to transport an entire church five kilometers down the road.
+ Are you a proud ugly shoe owner? (Birkenstock hive rise up)
+ We have ways of making you talk, Stretch Armstrong.

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Google has just released a technical report detailing how much energy its Gemini apps use for each query. In total, the median prompt—one that falls in the middle of the range of energy demand—consumes 0.24 watt-hours of electricity, the equivalent of running a standard microwave for about one second. The company also provided average estimates for the water consumption and carbon emissions associated with a text prompt to Gemini.

It’s the most transparent estimate yet from a Big Tech company with a popular AI product, and the report includes detailed information about how the company calculated its final estimate. As AI has become more widely adopted, there’s been a growing effort to understand its energy use. But public efforts attempting to directly measure the energy used by AI have been hampered by a lack of full access to the operations of a major tech company. 

Earlier this year, MIT Technology Review published a comprehensive series on AI and energy, at which time none of the major AI companies would reveal their per-prompt energy usage. Google’s new publication, at last, allows for a peek behind the curtain that researchers and analysts have long hoped for.

The study focuses on a broad look at energy demand, including not only the power used by the AI chips that run models but also by all the other infrastructure needed to support that hardware. 

“We wanted to be quite comprehensive in all the things we included,” said Jeff Dean, Google’s chief scientist, in an exclusive interview with MIT Technology Review about the new report.

That’s significant, because in this measurement, the AI chips—in this case, Google’s custom TPUs, the company’s proprietary equivalent of GPUs—account for just 58% of the total electricity demand of 0.24 watt-hours. 

Another large portion of the energy is used by equipment needed to support AI-specific hardware: The host machine’s CPU and memory account for another 25% of the total energy used. There’s also backup equipment needed in case something fails—these idle machines account for 10% of the total. The final 8% is from overhead associated with running a data center, including cooling and power conversion. 

This sort of report shows the value of industry input to energy and AI research, says Mosharaf Chowdhury, a professor at the University of Michigan and one of the heads of the ML.Energy leaderboard, which tracks energy consumption of AI models. 

Estimates like Google’s are generally something that only companies can produce, because they run at a larger scale than researchers are able to and have access to behind-the-scenes information. “I think this will be a keystone piece in the AI energy field,” says Jae-Won Chung, a PhD candidate at the University of Michigan and another leader of the ML.Energy effort. “It’s the most comprehensive analysis so far.”

Google’s figure, however, is not representative of all queries submitted to Gemini: The company handles a huge variety of requests, and this estimate is calculated from a median energy demand, one that falls in the middle of the range of possible queries.

So some Gemini prompts use much more energy than this: Dean gives the example of feeding dozens of books into Gemini and asking it to produce a detailed synopsis of their content. “That’s the kind of thing that will probably take more energy than the median prompt,” Dean says. Using a reasoning model could also have a higher associated energy demand because these models take more steps before producing an answer.

This report was also strictly limited to text prompts, so it doesn’t represent what’s needed to generate an image or a video. (Other analyses, including one in MIT Technology Review’s Power Hungry series earlier this year, show that these tasks can require much more energy.)

The report also finds that the total energy used to field a Gemini query has fallen dramatically over time. The median Gemini prompt used 33 times more energy in May 2024 than it did in May 2025, according to Google. The company points to advancements in its models and other software optimizations for the improvements.  

Google also estimates the greenhouse gas emissions associated with the median prompt, which they put at 0.03 grams of carbon dioxide. To get to this number, the company multiplied the total energy used to respond to a prompt by the average emissions per unit of electricity.

Rather than using an emissions estimate based on the US grid average, or the average of the grids where Google operates, the company instead uses a market-based estimate, which takes into account electricity purchases that the company makes from clean energy projects. The company has signed agreements to buy over 22 gigawatts of power from sources including solar, wind, geothermal, and advanced nuclear projects since 2010. Because of those purchases, Google’s emissions per unit of electricity on paper are roughly one-third of those on the average grid where it operates.

AI data centers also consume water for cooling, and Google estimates that each prompt consumes 0.26 milliliters of water, or about five drops. 

The goal of this work was to provide users a window into the energy use of their interactions with AI, Dean says. 

“People are using [AI tools] for all kinds of things, and they shouldn’t have major concerns about the energy usage or the water usage of Gemini models, because in our actual measurements, what we were able to show was that it’s actually equivalent to things you do without even thinking about it on a daily basis,” he says, “like watching a few seconds of TV or consuming five drops of water.”

The publication greatly expands what’s known about AI’s resource usage. It follows recent increasing pressure on companies to release more information about the energy toll of the technology. “I’m really happy that they put this out,” says Sasha Luccioni, an AI and climate researcher at Hugging Face. “People want to know what the cost is.”

This estimate and the supporting report contain more public information than has been available before, and it’s helpful to get more information about AI use in real life, at scale, by a major company, Luccioni adds. However, there are still details that the company isn’t sharing in this report. One major question mark is the total number of queries that Gemini gets each day, which would allow estimates of the AI tool’s total energy demand. 

And ultimately, it’s still the company deciding what details to share, and when and how. “We’ve been trying to push for a standardized AI energy score,” Luccioni says, a standard for AI similar to the Energy Star rating for appliances. “This is not a replacement or proxy for standardized comparisons.”

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I remember using a princess toothbrush when I was little. The handle was purple, teal, and sparkly. Like most of the other pieces of plastic that have ever been made, it’s probably still out there somewhere, languishing in a landfill. (I just hope it’s not in the ocean.)

I’ve been thinking about that toothbrush again this week after UN talks about a plastic treaty broke down on Friday. Nations had gotten together to try and write a binding treaty to address plastic waste, but negotiators left without a deal.

Plastic is widely recognized as a huge source of environmental pollution—again, I’m wondering where that toothbrush is—but the material is also a contributor to climate change. Let’s dig into why talks fell apart and how we might address emissions from plastic.

I’ve defended plastic before in this newsletter (sort of). It’s a wildly useful material, integral in everything from glasses lenses to IV bags.

But the pace at which we’re producing and using plastic is absolutely bonkers. Plastic production has increased at an average rate of 9% every year since 1950. Production hit 460 million metric tons in 2019. And an estimated 52 million metric tons are dumped into the environment or burned each year.

So, in March 2022, the UN Environment Assembly set out to develop an international treaty to address plastic pollution. Pretty much everyone should agree that a bunch of plastic waste floating in the ocean is a bad thing. But as we’ve learned over the past few years, as these talks developed, opinions diverge on what to do about it and how any interventions should happen.

One phrase that’s become quite contentious is the “full life cycle” of plastic. Basically, some groups are hoping to go beyond efforts to address just the end of the plastic life cycle (collecting and recycling it) by pushing for limits on plastic production. There was even talk at the Assembly of a ban on single-use plastic.

Petroleum-producing nations strongly opposed production limits in the talks. Representatives from Saudi Arabia and Kuwait told the Guardian that they considered limits to plastic production outside the scope of talks. The US reportedly also slowed down talks and proposed to strike a treaty article that references the full life cycle of plastics.

Petrostates have a vested interest because oil, natural gas, and coal are all burned for energy used to make plastic, and they’re also used as raw materials. This stat surprised me: 12% of global oil demand and over 8% of natural gas demand is for plastic production.  

That translates into a lot of greenhouse gas emissions. One report from Lawrence Berkeley National Lab found that plastics production accounted for 2.24 billion metric tons of carbon dioxide emissions in 2019—that’s roughly 5% of the global total.  

And looking into the future, emissions from plastics are only set to grow. Another estimate, from the Organisation for Economic Co-operation and Development, projects that emissions from plastics could swell from about 2 billion metric tons to 4 billion metric tons by 2060.

This chart is what really strikes me and makes the conclusion of the plastic treaty talks such a disappointment.

Recycling is a great tool, and new methods could make it possible to recycle more plastics and make it easier to do so. (I’m particularly interested in efforts to recycle a mix of plastics, cutting down on the slow and costly sorting process.)

But just addressing plastic at its end of life won’t be enough to address the climate impacts of the material. Most emissions from plastic come from making it. So we need new ways to make plastic, using different ingredients and fuels to take oil and gas out of the equation. And we need to be smarter about the volume of plastic we produce.  

One positive note here: The plastic treaty isn’t dead, just on hold for the moment. Officials say that there’s going to be an effort to revive the talks.

Less than 10% of plastic that’s ever been produced has been recycled. Whether it’s a water bottle, a polyester shirt you wore a few times, or a princess toothbrush from when you were a kid, it’s still out there somewhere in a landfill or in the environment. Maybe you already knew that. But also consider this: The greenhouse gases emitted to make the plastic are still in the atmosphere, too, contributing to climate change. 

This article is from The Spark, MIT Technology Review’s weekly climate newsletter. To receive it in your inbox every Wednesday, sign up here.

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Oleh Kovalskyy thinks that Starlink terminals are built as if someone assembled them with their feet. Or perhaps with their hands behind their back. 

To demonstrate this last image, Kovalskyy—a large, 47-year-old Ukrainian, clad in sweatpants and with tattoos stretching from his wrists up to his neck—leans over to wiggle his fingers in the air behind him, laughing as he does. Components often detach, he says through bleached-white teeth, and they’re sensitive to dust and moisture. “It’s terrible quality. Very terrible.” 

But even if he’s not particularly impressed by the production quality, he won’t dispute how important the satellite internet service has been to his country’s defense. 

Starlink is absolutely critical to Ukraine’s ability to continue in the fight against Russia: It’s how troops in battle zones stay connected with faraway HQs; it’s how many of the drones essential to Ukraine’s survival hit their targets; it’s even how soldiers stay in touch with spouses and children back home. 

At the time of my visit to Kovalskyy in March 2025, however, it had begun to seem like this vital support system may suddenly disappear. Reuters had just broken news that suggested Musk, who was then still deeply enmeshed in Trump world, would remove Ukraine’s access to the service should its government fail to toe the line in US-led peace negotiations. Musk denied the allegations shortly afterward, but given Trump’s fickle foreign policy and inconsistent support of Ukrainian president Volodymyr Zelensky, the uncertainty of the technology’s future had become—and remains—impossible to ignore.  

a view down at the back of a volunteer working in a corner workbench. Tools and components are piled on every bit of the surface as well as the shelves in front of him.
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a carboard box stuffed with grey cylinders
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Kovalskyy’s unofficial Starlink repair shop may be the biggest of its kind in the world. Ordered chaos is the best way to describe it.

The stakes couldn’t be higher: Another Reuters report in late July revealed that Musk had ordered the restriction of Starlink in parts of Ukraine during a critical counteroffensive back in 2022. “Ukrainian troops suddenly faced a communications blackout,” the story explains. “Soldiers panicked, drones surveilling Russian forces went dark, and long-range artillery units, reliant on Starlink to aim their fire, struggled to hit targets.”

None of this is lost on Kovalskyy—and for now Starlink access largely comes down to the unofficial community of users and engineers of which Kovalskyy is just one part: Narodnyi Starlink.

The group, whose name translates to “The People’s Starlink,” was created back in March 2022 by a tech-savvy veteran of the previous battles against Russia-backed militias in Ukraine’s east. It started as a Facebook group for the country’s infant yet burgeoning community of Starlink users—a forum to share guidance and swap tips—but it very quickly emerged as a major support system for the new war effort. Today, it has grown to almost 20,000 members, including the unofficial expert “Dr. Starlink”—famous for his creative ways of customizing the systems—and other volunteer engineers like Kovalskyy and his men. It’s a prime example of the many informal, yet highly effective, volunteer networks that have kept Ukraine in the fight, both on and off the front line.

A repaired and mounted Starlink terminal standing on a cobbled road
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a Starlink unit mounted to the roof of a vehicle with pink tinted windows
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Kovalskyy and his crew of eight volunteers have repaired or customized more than 15,000 terminals since the war began in February 2022. Here, they test repaired units in a nearby parking lot.

Kovalskyy gave MIT Technology Review exclusive access to his unofficial Starlink repair workshop in the city of Lviv, about 300 miles west of Kyiv. Ordered chaos is the best way to describe it: Spread across a few small rooms in a nondescript two-story building behind a tile shop, sagging cardboard boxes filled with mud-splattered Starlink casings form alleyways among the rubble of spare parts. Like flying buttresses, green circuit boards seem to prop up the walls, and coils of cable sprout from every crevice.

Those acquainted with the workshop refer to it as the biggest of its kind in Ukraine—and, by extension, maybe the world. Official and unofficial estimates suggest that anywhere from 42,000 to 160,000 Starlink terminals operate in the country. Kovalskyy says he and his crew of eight volunteers have repaired or customized more than 15,000 terminals since the war began.

a surface scattered with pieces of used blue tape of various colors and sizes. Two ziploc bags with small metal parts are also taped up.
The informal, accessible nature of the Narodnyi Starlink community has been critical to its success. One military communications officer was inspired by Kovalskyy to set up his own repair workshop as part of Ukraine’s armed forces, but he says that official processes can be slower than private ones by a factor of 10.
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Despite the pressure, the chance that they may lose access to Starlink was not worrying volunteers like Kovalskyy at the time of my visit; in our conversations, it was clear they had more pressing concerns than the whims of a foreign tech mogul. Russia continues to launch frequent aerial bombardments of Ukrainian cities, sometimes sending more than 500 drones in a single night. The threat of involuntary mobilization to the front line looms on every street corner. How can one plan for a hypothetical future crisis when crisis defines every minute of one’s day?


Almost every inch of every axis of the battlefield in Ukraine is enabled by Starlink. It connects pilots near the trenches with reconnaissance drones soaring kilometers above them. It relays the video feeds from those drones to command centers in rear positions. And it even connects soldiers, via encrypted messaging services, with their family and friends living far from the front.  

Although some soldiers and volunteers, including members of Narodnyi Starlink, refer to Starlink as a luxury, the reality is that it’s an essential utility; without it, Ukrainian forces would need to rely on other, often less effective means of communication. These include wired-line networks, mobile internet, and older geostationary satellite technology—all of which provide connectivity that is either slower, more vulnerable to interference, or more difficult for untrained soldiers to set up. 

“If not for Starlink, we would already be counting rubles in Kyiv,” Kovalskyy says.

close up of a Starlink unit on the lap of a volunteer, who is writing notes in a gridded notebook
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a hand holding pieces of shrapnel
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The workshop’s crew has learned to perform adjustments to terminals, especially in adapting them for battlefield conditions. At right, a volunteer engineer shows the fragments of shrapnel he has extracted from the terminals.

Despite being designed primarily for commercial use, Starlink provides a fantastic battlefield solution. The low-latency, high-bandwidth connection its terminals establish with its constellation of low-Earth-orbit satellites can transmit large streams of data while remaining very difficult for the enemy to jam—in part because the satellites, unlike geostationary ones, are in constant motion. 

It’s also fairly easy to use, so that soldiers with little or no technical knowledge can connect in minutes. And the system costs much less than other military technology; while the US and Polish governments pay business rates for many of Ukraine’s Starlink systems, individual soldiers or military units can purchase the hardware at the private rate of about $500, and subscribe for just $50 per month.

No alternatives match Starlink for cost, ease of use, or coverage—and none will in the near future. Its constellation of 8,000 satellites dwarfs that of its main competitor, a service called OneWeb sold by the French satellite operator Eutelsat, which has only 630 satellites. OneWeb’s hardware costs about 20 times more, and a subscription can run significantly higher, since OneWeb targets business customers. Amazon’s Project Kuiper, the most likely future competitor, started putting satellites in space only this year. 


Volodymyr Stepanets, a 51-year-old Ukrainian self-described “geek,” had been living in Krakow, Poland, with his family when Russia invaded in 2022. But before that, he had volunteered for several years on the front lines of the war against Russian-supported paramilitaries that began in 2014. 

He recalls, in those early months in eastern Ukraine, witnessing troops coordinating an air strike with rulers and a calculator; the whole process took them between 30 and 40 minutes. “All these calculations can be done in one minute,” he says he told them. “All we need is a very stupid computer and very easy software.” (The Ukrainian military declined to comment on this issue.)

Stepanets subsequently committed to helping this brigade, the 72nd, integrate modern technology into its operations. He says that within one year, he had taught them how to use modern communication platforms, positioning devices, and older satellite communication systems that predate Starlink. 

a Starlink terminal with leaves inside the housing, seen lit in silhouette and numbered 5566
Narodnyi Starlink members ask each other for advice about how to adapt the systems: how to camouflage them from marauding Russian drones or resolve glitches in the software, for example.
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So after Russian tanks rolled across the border, Stepanets was quick to see how Starlink’s service could provide an advantage to Ukraine’s armed forces. He also recognized that these units, as well as civilian users, would need support in utilizing the new technology. And that’s how he came up with the idea for Narodnyi Starlink, an open Facebook group he launched on March 21, just a few weeks after the full invasion began and the Ukrainian government requested the activation of Starlink.

Over the past few years, the Narodnyi Starlink digital community has grown to include volunteer engineers, resellers, and military service members interested in the satellite comms service. The group’s members post roughly three times per day, often sharing or asking for advice about adaptations, or seeking volunteers to fix broken equipment. A user called Igor Semenyak recently asked, for example, whether anyone knew how to mask his system from infrared cameras. “How do you protect yourself from heat radiation?” he wrote, to which someone suggested throwing special heat-proof fabric over the terminal.

Its most famous member is probably a man widely considered the brains of the group: Oleg Kutkov, a 36-year-old software engineer otherwise known to some members as “Dr. Starlink.” Kutkov had been privately studying Starlink technology from his home in Kyiv since 2021, having purchased a system to tinker with when service was still unavailable in the country; he believes that he may have been the country’s first Starlink user. Like Stepanets, he saw the immense potential for Starlink after Russia broke traditional communication lines ahead of its attack.

“Our infrastructure was very vulnerable because we did not have a lot of air defense,” says Kutkov, who still works full time as an engineer at the US networking company Ubiquiti’s R&D center in Kyiv. “Starlink quickly became a crucial part of our survival.”

Stepanets contacted Kutkov after coming across his popular Twitter feed and blog, which had been attracting a lot of attention as early Starlink users sought help. Kutkov still publishes the results of his own research there—experiments he performs in his spare time, sometimes staying up until 3 a.m. to complete them. In May, for example, he published a blog post explaining how users can physically move a user account from one terminal to another when the printed circuit board in one is “so severely damaged that repair is impossible or impractical.” 

“Oleg Kutkov is the coolest engineer I’ve met in my entire life,” Kovalskyy says.

a volunteer holding a Starlink vertically to pry it open
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two volunteers at workbenches repairing terminals
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When the fighting is at its worst, the workshop may receive 500 terminals to repair every month. The crew lives and sometimes even sleeps there.

Supported by Kutkov’s technical expertise and Stepanets’s organizational prowess, Kovalskyy’s warehouse became the major repair hub (though other volunteers also make repairs elsewhere). Over time, Kovalskyy—who co-owned a regional internet service provider before the war—and his crew have learned to perform adjustments to Starlink terminals, especially to adapt them for battlefield conditions. For example, they modified them to receive charge at the right voltage directly from vehicles, years before Starlink released a proprietary car adapter. They’ve also switched out Starlink’s proprietary SPX plugs—which Kovalskyy criticized as vulnerable to moisture and temperature changes—with standard ethernet ports. 

Together, the three civilians—Kutkov, Stepanets, and Kovalskyy—effectively lead Narodnyi Starlink. Along with several other members who wished to remain anonymous, they hold meetings every Monday over Zoom to discuss their activities, including recent Starlink-related developments on the battlefield, as well as information security. 

While the public group served as a suitable means of disseminating information in the early stages of the war when speed was critical, they have had to move a lot of their communications to private channels after discovering Russian surveillance; Stepanets says that at least as early as 2024, Russians had translated a 300-page educational document they had produced and shared online. Now, as administrators of the Facebook group, the three men block the publication of any posts deemed to reveal information that might be useful to Russian forces. 

Stepanets believes the threat extends beyond the group’s intel to its members’ physical safety. When we talked, he brought up the attempted assassination of the Ukrainian activist and volunteer Serhii Sternenko in May this year. Although Sternenko was unaffiliated with Narodnyi Starlink, the event served as a clear reminder of the risks even civilian volunteers undertake in wartime Ukraine. “The Russian FSB and other [security] services still understand the importance of participation in initiatives like [Narodnyi Starlink],” Stepanets says. He stresses that the group is not an organization with a centralized chain of command, but a community that would continue operating if any of its members were no longer able to perform their roles. 

closeup of a Starlink board with light shining through the holes
“We have extremely professional engineers who are extremely intelligent,” Kovalskyy told me. “Repairing Starlink terminals for them is like shooting ducks with HIMARS [a vehicle-borne GPS-guided rocket launcher].”
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The informal, accessible nature of this community has been critical to its success. Operating outside official structures has allowed Narodnyi Starlink to function much more efficiently than state channels. Yuri Krylach, a military communications officer who was inspired by Kovalskyy to set up his own repair workshop as part of Ukraine’s armed forces, says that official processes can be slower than private ones by a factor of 10; his own team’s work is often interrupted by other tasks that commanders deem more urgent, whereas members of the Narodnyi Starlink community can respond to requests quickly and directly. (The military declined to comment on this issue, or on any military connections with Narodnyi Starlink.)


Most of the Narodnyi Starlink members I spoke to, including active-duty soldiers, were unconcerned about the report that Musk might withdraw access to the service in Ukraine. They pointed out that doing so would involve terminating state contracts, including those with the US Department of Defense and Poland’s Ministry of Digitalization. Losing contracts worth hundreds of millions of dollars (the Polish government claims to pay $50 million per year in subscription fees), on top of the private subscriptions, would cost the company a significant amount of revenue. “I don’t really think that Musk would cut this money supply,” Kutkov says. “It would be quite stupid.” Oleksandr Dolynyak, an officer in the 103rd Separate Territorial Defense Brigade and a Narodnyi Starlink member since 2022, says: “As long as it is profitable for him, Starlink will work for us.”

Stepanets does believe, however, that Musk’s threats exposed an overreliance on the technology that few had properly considered. “Starlink has really become one of the powerful tools of defense of Ukraine,” he wrote in a March Facebook post entitled “Irreversible Starlink hegemony,” accompanied by an image of the evil Darth Sidious from Star Wars. “Now, the issue of the country’s dependence on the decisions of certain eccentric individuals … has reached [a] melting point.”

Even if telecommunications experts both inside and outside the military agree that Starlink has no direct substitute, Stepanets believes that Ukraine needs to diversify its portfolio of satellite communication tools anyway, integrating additional high-speed satellite communication services like OneWeb. This would relieve some of the pressure caused by Musk’s erratic, unpredictable personality and, he believes, give Ukraine some sense of control over its wartime communications. (SpaceX did not respond to a request for comment.) 

The Ukrainian military seems to agree with this notion. In late March, at a closed-door event in Kyiv, the country’s then-deputy minister of defense Kateryna Chernohorenko announced the formation of a special Space Policy Directorate “to consolidate internal and external capabilities to advance Ukraine’s military space sector.” The announcement referred to the creation of a domestic “satellite constellation,” which suggests that reliance on foreign services like Starlink had been a catalyst. “Ukraine needs to transition from the role of consumer to that of a full-fledged player in the space sector,” a government blog post stated. (Chernohorenko did not respond to a request for comment.)

Ukraine isn’t alone in this quandary. Recent discussions about a potential Starlink deal with the Italian government, for example, have stalled as a result of Musk’s behavior. And as Juliana Süss, an associate fellow at the UK’s Royal United Services Institute, points out, Taiwan chose SpaceX’s competitor Eutelsat when it sought a satellite communications partner in 2023.

“I think we always knew that SpaceX is not always the most reliable partner,” says Süss, who also hosts RUSI’s War in Space podcast, citing Musk’s controversial comments about the country’s status. “The Taiwan problems are a good example for how the rest of the world might be feeling about this.”

Nevertheless, Ukraine is about to become even more deeply enmeshed with Starlink; the country’s leading mobile operator Kyivstar announced in July that Ukraine will soon become the first European nation to offer Starlink direct-to-mobile services. Süss is cautious about placing too much emphasis on this development though. “This step does increase dependency,” she says. “But that dependency is already there.” Adding an additional channel of communications as a possible backup is otherwise a logical action for a country at war, she says.


These issues can feel far away for the many Ukrainians who are just trying to make it through to the next day. Despite its location in the far west of Ukraine, Lviv, home to Kovalskyy’s shop, is still frequently hit by Russian kamikaze drones, and local military-affiliated sites are popular targets. 

Still, during our time together, Kovalskyy was far more worried by the prospect of his team’s possible mobilization. In March, the Ministry of Defense had removed the special status that had otherwise protected his people from involuntary conscription given the nature of their volunteer activities. They’re now at risk of being essentially picked up off the street by Ukraine’s dreaded military recruitment teams, known as the TCK, whenever they leave the house.

A room with walls covered by a grid of patches and Ukrainian flags, and stacks of grey boxes on the floor
The repair shop displays patches from many different Ukrainian military units—each given as a gift for their services. “We sometimes perform miracles with Starlinks,” Kovalskyy said.
COURTESY OF THE AUTHOR

This is true even though there’s so much demand for the workshop’s services that during my visit, Kovalskyy expressed frustration at the vast amount of time they’ve had to dedicate solely to basic repairs. “We have extremely professional engineers who are extremely intelligent,” he told me. “Repairing Starlink terminals for them is like shooting ducks with HIMARS [a vehicle-borne GPS-guided rocket launcher].” 

At least the situation seemed to have become better on the front over the winter, Kovalskyy added, handing me a Starlink antenna whose flat, white surface had been ripped open by shrapnel. When the fighting is at its worst, the team might receive 500 terminals to repair every month, and the crew lives in the workshop, sometimes even sleeping there. But at that moment in time, it was receiving only a couple of hundred.

We ended our morning at the workshop by browsing its vast collection of varied military patches, pinned to the wall on large pieces of Velcro. Each had been given as a gift by a different unit as thanks for the services of Kovalskyy and his team, an indication of the diversity and size of Ukraine’s military: almost 1 million soldiers protecting a 600-mile front line. At the same time, it’s a physical reminder that they almost all rely on a single technology with just a few production factories located on another continent nearly 6,000 miles away.

“We sometimes perform miracles with Starlinks,” Kovalskyy says. 

He and his crew can only hope that they will still be able to for the foreseeable future—or, better yet, that they won’t need to at all.  

Charlie Metcalfe is a British journalist. He writes for magazines and newspapers including Wired, the Guardian, and MIT Technology Review.

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