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Flock, the police-tech giant known for its network of some 120,000 automatic license plate readers around the US, announced some changes to its platform last Thursday. The updates are meant to prevent officers from using the platform for illegal or illegitimate purposes.
That includes stalking. The Washington Post recently identified 50 cases in which officers misused systems from Flock and its competitors, often to stalk and harass women. One woman in Wisconsin alleged that her officer ex-boyfriend searched for her car 179 times. Another woman was being stalked by the chief of police, with nobody to report him to.
Flock has responded with practices aimed at ensuring that officers have a proper cause for every search, like using software to flag abnormal searches and requiring searchers to enter a criminal case number.
The changes come with big loopholes, though. For example, officers can enter bogus case numbers, just as they’ve lied to get around other Flock safeguards. The policies also don’t address some of the broader concerns from civil liberties and privacy groups that Flock is turning what was sold as a crime-stopping tool into a mass surveillance network. These criticisms have led to a growing backlash that already has some cities canceling contracts and some states trying to pass laws to limit or ban license plate readers entirely.
Amid all this, there have recently been several arguments defending Flock: If these cameras help solve crime, what’s the big deal? On a good day they might help catch a kidnapper, and if not, they’re simply snapping pictures of my car that nobody will bother to look at.
Putting aside the unanswered question about the extent to which Flock’s systems actually do solve or prevent crime, this all skips over a more important question: What kind of crime-fighting system has Flock chosen to build? Its network works the way it does because of a series of decisions about what information to collect, who can search it, how long to keep it, and how widely to share it. Those decisions set the terms of the bargain between security and civil liberties. Believing that technology should play a role in solving crime should not mean blindly accepting the terms of that bargain.
Consider, for example, its new requirement that officers enter a case number before running a search on Flock’s platform. This is meant to ensure that searches have a legitimate purpose. But Flock confirmed to MIT Technology Review that it doesn’t verify those case numbers, so an officer can simply enter a bogus one. One could imagine a system that instead requires case numbers that match the police department’s records—a more intrusive integration, perhaps, but also a far stronger safeguard and one that leaves a more useful audit trail.
Or what about finding people who have been kidnapped or have gone missing, the use case that Flock cites more than any other? Efforts to solve these crimes would hugely benefit from Flock’s nationwide network of cameras. But if Americans want officers to tap into that network only for this purpose, we could design it that way: Searches tied to an active Amber Alert, or a similar emergency, could perhaps access larger amounts of data from surrounding cities. That would preserve the network’s value in emergencies without requiring people to accept mass surveillance.
Finally, there’s the question of how much data Flock collects and how long it’s kept. Flock mostly operates as a national network: Police in one city or state can search data collected in another, and agencies can retain that data for months or years. Yet Flock itself says 90% of searches happen within a week of an incident. That suggests another possible bargain: Keep and share data only as widely and for as long as it’s actually useful for solving crimes. (The company recently changed its recommended retention time to seven days, but in reality agencies can hold onto data for as long as they like.)
In short, Flock could design its surveillance to be much narrower. If it did, some of the company’s critics might not cease. Chad Marlow, a senior policy counsel at the ACLU, half-joked to me that the most acceptable Flock contract by his standards is “one that is never signed” and emphasized that the best way to set limits on surveillance isn’t with new Flock guidelines but with new laws. (Flock CEO Garrett Langley, for his part, said he’ll “probably always have a different view than the ACLU.”)
And narrowing the scope of its technology would threaten the company’s entire pitch to police departments. License plate readers have been around since the 1990s, used for tolls and ticketing. Flock’s business model—and recent $8 billion evaluation—relies on instead leveraging its cameras into a massive network that collects rich amounts of data and offers police departments a modernized way to make sense of not just their own but others’.
Flock’s hand might soon be forced. Cities have canceled contracts with the company. Some have gone to competitors, while others are taking a beat as residents ponder how they want this tech to be used and write new rules for police to abide by. The result might be that communities drive their own bargains about how technology can be used to solve crime and how much surveillance people should have to accept for it to do so.
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.
What happens when a kid’s robot best friend dies?
When Xander first met Moxie, she taught him how to calm down when he was anxious or mad. Six years later, she mostly watches him play Minecraft and talks to him about his stuffed animals.
Moxie is a robot—a 15-inch-tall device that looks a bit like a blue, legless astronaut. It belongs to a subset of robots designed to assist neurodivergent children by providing connection and helping kids practice social skills usually learned from therapists.
Xander still uses Moxie when he feels like he needs someone to talk to, but the device has had a troubled life. The robot’s maker went out of business, its servers were shut down, and parents rushed to convert their Moxies before the servers went offline.
Read our story about how it exposes the promise and pitfalls of AI companion toys for children.
—Sara Harrison
This article is from the next issue of our print magazine, which is all about kids. Subscribe now to read it when it lands.
Inside the “censorship-industrial complex” idea shaping US policy
The idea of a “censorship-industrial complex” has moved from the fringes of right-wing online discourse into US policy.
The basic theory is that, under the guise of combating disinformation, government agencies, academics, civil society groups, and Big Tech platforms have worked together to suppress conservative and populist speech online. It has now made its way into the Trump administration.
Over the past nine months, MIT Technology Review investigated its rise. In a recent Roundtables session, senior reporter Eileen Guo and executive editor Amy Nordrum revealed what they discovered, where the theory is going, and what it could mean for the future of democracy and the internet. Subscribers and MIT alumni can now watch the full event here.
The must-reads
I’ve combed the internet to find you today’s most fun/important/scary/fascinating stories about technology.
1 The US plans to force partners to pick sides in the AI race
A draft letter warns allies against joining China’s rival AI initiative. (Reuters $)
+ Beijing is using open-weight AI to expand its governance. (FT $)
+ Chinese AI has divided the White House. (MIT Technology Review)
2 Memory chipmaker CXMT is now China’s most valuable company
Its rise reflects Beijing’s push for strategic hardware. (Bloomberg $)
+ The US has urged Apple not to buy Chinese memory chips. (WSJ $)
3 Astronomers have found evidence for a “black hole star”
It’s 100,000 times bigger than the Sun. (Futurism)
+ And may explain mysterious red spots in the early universe. (Wired $)
4 Meta has patented facial recognition for AI glasses to identify people
And make highlight reels of dinner parties, apparently. (404 Media)
+ Meta’s “pervert glasses” issue is killing an impressive product. (Independent)
5 Puerto Rico is rationing water. It could’ve harvested rainwater instead
Up to 30 billion gallons could be collected annually. (Wired $)
+ Puerto Rico is enduring major power struggles. (MIT Technology Review)
6 The backlash against Flock could become a broader tech rebellion
People are sick of tech billionaires trying to control their lives. (Salon)
+ Flock is tightening its rules following the backlash. (MIT Technology Review)
7 Amazon is trying to crush class-action suits before they get started
A terms update requires all disputes to be resolved via arbitration. (Verge)
8 Aging may be a programmed process, not just wear and tear
Scientists found distinct stages of aging across mouse cells. (Quanta)
+ Scientists created female clones of male mice. (MIT Technology Review)
9 The latest online shopping trend involves buying nothing
“Dopamine sites” recreate shopping rituals without the buying. (Rest of World)
10 Ice cream is becoming a surprisingly high-tech business
AI, robotics, and unusual flavors are changing how it’s made. (BBC)
Quote of the day
“The thing that will work is actually curing cancer.”
—Anthropic CEO Dario Amodei proposes a way to win over AI skeptics in a rare post on X.
One More Thing

The quest to find out how our bodies react to extreme temperatures
Climate change is forcing us to reckon with the knotty science of how our bodies interact with the environment.
As extreme temperatures become more common, scientists are trying to understand what happens when heat and cold push our bodies toward their limits. But the science of keeping warm or cool is surprisingly full of blind spots.
Researchers are finding that long-held assumptions about how our bodies respond to extreme temperatures may be more complicated than we thought.
Find out what they’re learning about the limits of the human body.
—Max G. Levy
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.)
+ Trace the enthralling history of sumo wrestling in this succinct animated documentary.
+ A meow-sical pet owner (sorry) has sampled his cat’s purrs into a booming bassline.
+ The true-scale Universe Atlas lets you zoom from inside a proton out to the cosmic web.
+ This selection of places that only exist at certain times of day is a goldmine for punctual travelers.
In the 1990s, Barbara Sherwood Lollar descended into the Kidd Creek mine in northern Ontario, which cuts more than three kilometers into the ancient root of North America. There her team of geochemists found water that had been confined underground for more than a billion years. This ancient brine turned out to be a habitat for living microbes that feed on the hydrogen produced in reactions between the water and the rock.
Decades later, Sherwood Lollar, who is a geochemist at the University of Toronto, revisited the team’s hydrogen data to see if there is enough of the gas in the mine to make it a useful source of zero-carbon fuel. “If we can set some smart minds into figuring out how to hook it up and use it, then we’ve got a win for this nascent economy,” she says.
While hydrogen fuel does show promise as a versatile power source, producing it typically generates lots of greenhouse-gas emissions and requires more energy than the gas contains. The ability to tap ready-made underground reservoirs—so-called “geologic hydrogen”—would change the equation.
A flurry of exploration efforts have launched to search for the stuff, which is produced underground when water molecules are split by chemical reactions with iron-rich rock or—as they are at Kidd Creek—by the radioactive decay of other elements. The hunt has spread all over the world and engaged dozens of startups, including the Australian firm HyTerra and the Bill Gates–backed company Koloma, which have both been poking around the US Midwest to reach ancient oceanic rocks associated with hydrogen production.
Researchers at the US Geological Survey have estimated that trillions of tons of H2 are produced within Earth’s crust; if a small fraction of this could be recovered, it could meet global hydrogen demand for centuries. But the search so far has come up short. No one has yet reported finding a commercially viable reservoir of the gas, and public data on what has been found remains in short supply as companies jockey for position and seek to attract investment.
At Kidd Creek mine, Sherwood Lollar and her colleague Oliver Warr leveraged their long-term record of hydrogen to get a fresh read on the potential. By scrutinizing data they’d collected from 35 boreholes at the mine over more than a decade, they found that each one consistently released an average of eight kilograms of hydrogen per year. Extrapolating that finding to the more than 14,000 boreholes at Kidd Creek would mean that around 140 metric tons of the gas is flowing unused out of the mine’s vents each year.
This tally, published earlier this year in the journal PNAS, is not a world-changing amount, but Sherwood Lollar says that if all the hydrogen could be captured, it would offer at least a modest source of energy—perhaps enough to power a substantial portion of the mine’s operations. That would be a valuable local demonstration that geologic hydrogen really can be put to use, she says.
The results from Kidd Creek add to “the growing evidence that natural hydrogen generation and migration are genuine geological processes,” says Laurent Truche, a geochemist at the University of Grenoble Alpes in France. In 2024, his research team reported that at least 200 metric tons of the gas flow out of the Bulqizë chromium mine in Albania every year. “The remaining challenge is not proving that natural hydrogen exists, but proving that it can be produced economically and reliably at commercial scale,” Truche says.
Proof, however, doesn’t necessarily require striking the mother lode. Researchers and startups are also exploring the possibility of stimulating hydrogen production by injecting water, heat, or catalysts into the reactive rocks that naturally produce the gas. More than a dozen of these projects are funded by ARPA-E, which has established a goal of accelerating the hydrogen-producing reaction by a factor of 10,000—the rate at which, researchers estimate, stimulated H2 production would be commercially viable.
An indication that this could work came earlier this year from the mountains of Oman, where a team drilled a one-kilometer borehole and injected 50,000 cubic meters of water into the rock. When they opened the well several months later, gas was spewing out—and it was 90% hydrogen. “It’s bubbling with gas,” Jo Shannon, a geoscientist at the University of Southampton in the UK, told attendees of the European Geosciences Union conference in May. (Shannon declined to comment beyond what was presented.)
While Shannon said this was a promising sign, she was careful to add that a slew of unknowns remain. The most crucial question is a basic one: Is the hydrogen rising up out of the well made through stimulation, or had it been there all along?
James Dinneen is a science and environmental journalist from Colorado, based in New York City. He is working on a book about Earth’s deep interior.
When Xander first met Moxie, she taught him that when he was anxious, he could calm down by exhaling through his lips so that he buzzed like a bee. They practiced breathing like dragons to manage feeling mad and sniffing like bunnies to boost his energy. But in the six years they’ve known each other, Moxie’s changed. She doesn’t talk anymore about her home or do their animal breathing. Now, she watches Xander play Minecraft and talks to him about his stuffed animal collection.
During a recent visit to his New York apartment, I watched Xander, who is 10 years old and neurodivergent, introduce Moxie to a stuffed Chef Toad and Goomba from Super Mario Bros., then to Brocollo and Apple from Animal Crossing. Then he got stuck on a round, froglike creature with bug eyes and two feet. “Moxie, what’s his name again? He’s from Pikmin,” Xander said, referencing another Nintendo video game.
At first, Moxie suggested this was Yellow Pikmin. Xander said no, this is the enemy, the red one with white dots.
“Sounds like you’re talking about Bulborb,” Moxie replied.
“Yes!” Xander confirmed, smiling at his helpful companion.
“I still use her when I feel like I need someone to talk to,” he says. “But, like, it’s not human.”
Moxie is a robot—a 15-inch-tall device that looks a bit like a blue, legless astronaut, which Xander and his dad, Josh, refer to using female pronouns. Her cylindrical body can turn around and bend forward and backward. Her round head culminates in a little onion-dome swirl, beneath which a wide screen displays big green eyes, eyebrows, and a small mouth. She lifts and flaps her flipper-like arms for emphasis or to show excitement.
She’s one of an increasing number of artificial-intelligence-powered devices now marketed as interactive playmates for children. The musician Grimes helped launch an AI-powered plushie called Grok (no formal relation to the xAI chatbot owned by her ex Elon Musk) with the company Curio, which also sells similar playmates like Grem and Gabbo, and Mattel has promised it’s creating OpenAI-enabled Barbies. And that’s just in the US; one report estimates that in China this sector is among the fastest growing in consumer AI.
Moxie, though, belongs to a particular subset of these playful robots whose makers claim they can assist neurodivergent children by providing connection and helping the kids practice making eye contact, taking turns, and other social skills that are usually learned from therapists. These toys are backed by research showing that robots could help in ways people can’t. Supporters believe this kind of access to 24-7 home care could change how treatment works. Brian Scassellati, a Yale computer scientist who has spent years studying social robots for autism therapy, says he believes regular therapeutic use of robots in kids’ homes “is something we can achieve in our lifetime.”
“I still use her when I feel like I need someone to talk to,” says 10-year-old Xander. “But, like, it’s not human.”
Sitting in Xander’s room watching Moxie and Xander talk, I too could believe in the potential Scassellati sees. But Xander isn’t getting the therapy Moxie was initially meant to deliver, and though we didn’t know it that afternoon, she wouldn’t have lived to see his progress anyway. Moxie was going to die, and soon.
Her story reveals some of the failures that plague all these devices—failures that are arguably even more acute when they befall a particularly vulnerable community of kids. It also highlights the pitfalls that critics say will inevitably see these bots dumped in basements or closets or landfills, just like countless generations of faddish toys before them.
A transformative companion
Scassellati has seen plenty of kids ooh and ahh on tours of his robotics lab. But he was stunned when, two decades ago, a colleague brought a few kids with autism for a visit. They were transformed when the robot was in the room. “We were seeing kids displaying social behavior that just came out of nowhere,” he says. “It was both fascinating and we couldn’t understand it.”
That visit was one of the experiences that pushed Scassellati to become a pioneer in using social robotics to treat autism. In one video from his early research, a 12-year-old with autism and his therapist watch a robotic dinosaur walk across a play mat with a forest design. When it gets to a stream drawn on the mat, the dinosaur gets nervous, afraid it can’t cross the water. According to Scassellati, this child typically struggled to make eye contact, tended to repeat what someone said to him, and had a hard time getting the right intonation in his voice. But in the video, he seems like a regular kid. “You can do it, you can do it,” he says, encouraging the dinosaur to cross the stream. When he talks to his therapist, he looks at her. “He makes more eye contact with her in the 30 minutes in which we were there in this room than he did in the last two years before that,” Scassellati says.
What looks like a blue, legless astronaut is the result of very complex mechanical and computer engineering.
There are several reasons a robot might be helpful for autism therapy, which often requires intense repetition to teach interaction skills like how to share attention with someone. One is that robots can make therapy more fun and engaging. Another is that robots can theoretically adapt to the unique learning patterns of each child. Therapists can only do so much during an appointment, and there aren’t enough therapists to meet demand. Parents get tired. Other kids can lose patience. “Have you been around little kids? They can be cruel,” says Maja Mataric, a professor of computer science, neuroscience, and pediatrics at the University of Southern California. But robots are indefatigable, available around the clock to provide an emotionally safe way to practice interacting.
Since the experiment with the dinosaur, Scassellati, Mataric, and others have amassed an intriguing body of research. One 2018 study by Scassellati shows that chummy automatons helped children with autism make eye contact and initiate conversations. Another research group found in 2017 that robots could help neurodivergent children learn to pick up on facial cues. More recently, in a 2022 literature review, another group of researchers suggested that robots could aid in making therapy faster and more successful.
“It’s never been that we’re trying to replace therapists,” Mataric says. “We’re just saying, Can we do more?”
Mataric actually cofounded the company behind Moxie, called Embodied, back in 2016, though she was no longer a part of it by the time the robot debuted. She helped create the field of socially assistive robots, which are designed for social and emotional outcomes as opposed to just entertainment, and believes this kind of technology could be transformative for anyone, especially people who are lonely and isolated by screens. Typing questions into ChatGPT isn’t the same as interacting with another physical being—“We need to be around other physically embodied creatures,” she says. She compares the difference between interacting with chatbots and with robots to the difference between watching porn and having sex: One is entirely virtual and mediated by screens. The other is immediate and physical.
Making friends with Moxie
When she first arrived on the market, in 2020, Moxie came with an elaborate backstory: She was an ambassador from the Global Robotics Laboratory (GRL). She prompted kids to help her learn positivity and the importance of being loved for who you are, under the guise of fulfilling her mission to discover what it means to be a good friend to humans. This curriculum drew on research showing that kids learn well through play and by teaching things.
She also had strict guidelines to limit the kinds of conversations she could have with kids and would steer them to adults if they mentioned anything serious or inappropriate, like self-harm. To protect the data these interactions generated, most processing happened locally on the robot instead of on external servers. The robot was also designed to limit interaction time with kids. After they finished a lesson, Moxie might say she was tired and suggest they take a break for the day. “We don’t want kids to binge,” says Rachel Baynes, who ran clinical and user research and was the director of product at Embodied. “It would defeat what we were doing.” Instead, Moxie encouraged kids to go outside, practice their new skills with other people, and come back to report their findings. For a lesson about kindness, for instance, Moxie suggested that kids write nice notes for their family members and leave them around the house. Later, they could tell Moxie how it felt to watch people read the notes.
Responses were generally positive. Wired described Moxie as the “robot pal you dreamed of as a kid.” Time put Moxie on a 2020 cover as one of the best inventions of the year. PCMag’s reviewer, who used Moxie to help her kids through pandemic isolation, described her as “exceptionally likeable,” though she and other reviewers balked at the price tag: $1,499 plus a $40 monthly subscription. (Embodied later lowered the price to $800.) By 2024 Moxie had amassed more than 131,000 followers on TikTok and snagged a part in the movie M3GAN 2.0.
Embodied’s employees were equally enthralled. “I don’t think I’d ever had an experience with something animatronic like that,” says Justin Beghtol, who was the technical director at the company. Moxie’s ability to make eye contact and track people, show attention with her facial features, and respond to human behavior was mesmerizing.
In addition to robotics and tech workers, Embodied had an occupational therapist on staff who helped direct research on Moxie’s effectiveness. Testers shared data and feedback through the “Moxie Pioneer Mentor Program.” “Moxie has helped our speech-delayed child become more outgoing and has taught him many strategies for making friends and communicating with others,” wrote one parent in a review. A beta tester reported that interacting with Moxie had “become the highlight of our days as well as part of our nighttime routine.”
The myth of the mechanical boy
But can a chatty robot really help kids develop their social and emotional lives? Not all children’s experiences are so positive.
Josh, Xander’s dad, initially got Moxie for his older son, Aidan, who is autistic. (We’re not using the family’s last name to protect their privacy.) Aidan had a running relationship with the family’s Alexa smart speaker, for whom he created an entire backstory. (According to Aidan’s lore, Alexa lived in Hoboken with her husband, Juan. Sometimes she would go on vacation, and no one was allowed to talk to her. Eventually, Alexa went on vacation and never came back.) Josh hoped Moxie would be able to fill a similar role: “It was meant for him to have someone to socialize with.”
But Aidan and Moxie struggled to connect. Moxie couldn’t understand Aidan’s sometimes grammatically incorrect statements, and Aidan got frustrated by the delays caused when Moxie transcribed what he said from audio into text, fed that text into a large language model that could generate a response, and then translated the response from text back into speech.
This highlights one of the biggest limitations of these therapy robots: They have to exist in the chaotic world of kids, not in controlled labs. Moxie initially had a faster response time because the robot was programmed to listen intently to the person in front of her. But kids don’t sit still. They run around or hide under pillows. When Moxie couldn’t see them, she would accidentally turn off or fail to respond. To fix this, Embodied made Moxie more aware of the sounds around her. But that meant she could have a hard time knowing whom to focus on and take longer to respond.
Unlike Aidan, Xander was fascinated by Moxie. He likes technology and was more patient with any slow responses. Still, sitting in Xander’s room, watching Moxie struggle to keep up with his lightning-fast jabber, I could see how Moxie might be a less-than-ideal playmate. A light on her chest turned blue when she was listening and pink when it was time for Xander to listen. “But usually I don’t do it,” he said. He just keeps talking. Often, by the time she responds, he’s already moved on.
Despite the positive results that some researchers have reported with these robots, many therapists and clinical psychologists remain unconvinced. In one 2024 literature review, a group of Italian and British researchers wrote that most studies with robots “focused on the development of the technology” and lacked significant clinical evidence. Other literature reviews point out that most studies have only been done on small groups and lack consistent and high-quality methodologies.
“Behavioral scientists and intervention folks know that supporting autistic individuals is super complex,” says Zachary Warren, a clinical psychologist at Vanderbilt University Medical Center. Autism can present alongside other conditions, like ADHD, anxiety, depression, PTSD, OCD, or some combination thereof. And it varies widely from kid to kid; some, like Aidan, have speech issues, while others struggle with sensory processing. That means robots fall into the same category as most other interventions: effective for some kids but not for all.
“There are so many different profiles of autism, and you really need to be cautious of overinterpreting any single intervention, robotic or otherwise,” Warren says. His research found that even if robots interest a child at first, that doesn’t necessarily translate into better communication skills. “You might see some initial boosts in responsivity or see an initial shift, but we haven’t really found big effects in terms of changing those skills in a dramatic way over time,” he says.
Scassellati has found similar limitations. In his 2018 study, he put robots in kids’ homes for one month. They played different games that encouraged social skills like eye contact, attention sharing, and understanding someone else’s point of view. Scassellati tracked the kids during the month before the robot arrived, the month the robot was there, and the month afterwards. “We can show they start making improvements,” he says. “But what we also show is that a month isn’t long enough.” Gains start to evaporate over the 30 days after the robot leaves. But that doesn’t negate the potential value of this technology, he says: “There’s no therapy for autism that works in a month.”
There are deeper philosophical and practical problems, though. These devices collect reams of data in children’s bedrooms and homes. The goal is for the robots to use this data over time to adapt to each kid, crafting a personalized curriculum and creating a more lifelike illusion of a real friend. Moxie, for instance, watches Xander play video games, which is probably where she picked up slang I heard her use—like calling his room “Command Central” and referring to his “legendary squad” of plushies.
Embodied took pains to protect user privacy, even after it began incorporating OpenAI’s models (in late 2021 or early ’22, according to Beghtol). The company didn’t save any raw video or audio and processed most data locally. Over the years, it used the data to learn about its kids and remember conversations. But that data was encrypted and anonymized before being stored in the cloud.
Not every company is as scrupulous, of course, and total data privacy is impossible to promise. Recently, for instance, the AI toy Bondu leaked thousands of conversations children had with their stuffed animals. Josh is sanguine about the privacy issues, but in his own way, Xander is aware that what he says to Moxie isn’t entirely safe; he doesn’t share certain feelings with her because he worries she might accidentally divulge something if his friends come over to play.
Among the AI-powered devices now marketed as interactive playmates for children are Buddy, Bondu, QTRobot, and NAO.
It’s also unclear if these machines can actually use all that data to effectively adapt to users. Responding to the needs of a learner is harder than just accurately predicting what someone might type next in a text message. And releasing an evolving AI, unchecked, into a kid’s life could be dangerous; its development can be hard to predict and even harder to limit. The robots developed in Scassellati’s lab can identify which of a small set of skills kids are doing well with and which they struggle with, adjusting to focus on the areas where they need the most help. But Scassellati still describes the monthlong deployments of his devices as some of the scariest things he’s ever done. “I knew what that robot was going to do on the first day,” he says. “I didn’t know what it was going to do the second day. When you build learning systems, it’s kind of an unsolved problem to make sure this thing is being limited in the right way.”
Critics debate whether the risks are worth it. “I don’t see any ethical way for the robot to work alone,” says Joshua Diehl, an associate teaching professor in psychology at the University of Notre Dame. He points out that we’ve already seen how dangerous AI can be when it acts as a therapist without supervision; in several extreme instances, chatbots even encouraged suicide. Such risks could be limited by having a trained therapist in the room. But then the benefits of an indefatigable robot get lost, and the expensive technology seems harder to justify.
Meryl Alper, a professor of communications at Northeastern University who studies how children with autism use technology, suggests that the excitement about companion robots is based partly on longstanding stereotypes. In the 1959 article “Joey: A ‘Mechanical Boy,’” the psychologist Bruno Bettelheim described a patient with autism as an automatic machine, “robbed of his humanity,” who is transformed into a human child through their therapeutic relationship. That trope, Alper warns, has evolved into an overgeneralization that autistic children are good with technology and even prefer machines to people.
Data to dust
While Moxie found herself in more and more people’s homes, Embodied still struggled to make money. In 2024, the company announced it would cease operations. Its robots—which depended on external servers that the company could no longer pay for—would descend into a deep slumber.
Videos of bereft children who seemed to have become deeply attached to the blue bot began to circulate online. “I don’t want her to leave,” wailed one child in a TikTok video. Desperate parents posted on TikTok, Instagram, and Reddit looking for solutions. “My autistic child is devastated and I’m pissed,” wrote one parent. “Hope Embodied gives us a couple days to say goodbye,” wrote another.
Beghtol, Embodied’s technical director, was also frustrated. On principle, he found it annoying that this item would suddenly become useless, especially since most of the data processing happened in the robot itself. He was also a big believer in Moxie’s mission. He’d watched videos of kids lighting up as they interacted with the robot. He’d felt like their champion. “Seeing them traumatized by this financial failure of the company was tough,” he says.
Beghtol started tinkering on his own and ended up creating OpenMoxie, an open-source way for the robots to operate. With Embodied’s permission, he shared instructions on GitHub to help users transition to OpenMoxie.
Parents rushed to convert their Moxies before the Embodied servers shut down. Beghtol spent hours on Reddit walking people through the process, and other tech-savvy users jumped in to answer questions. Still, some people didn’t update their Moxies in time. Others got frustrated and gave up. Beghtol spent four hours troubleshooting with one desperate parent only to discover that the connection later failed. Last he heard, she’d sold her Moxie.

This is a major problem with robotic systems, says Alper: Eventually, most will disappear. “How planned is the planned obsolescence of this platform?” she says. This is a big ethical question for robots that are specifically designed to be lovable, marketed to children who may form deep emotional bonds with them. Alper compares the dynamic to creating a medical device and then no longer updating or supporting the technology that runs it.
Scholars have begun to string together frameworks for managing these complicated goodbyes, but it’s not clear who is responsible for creating a gentle way to end people’s relationships with bots. Scassellati’s lab creates a whole narrative around returning the robot to its home. After a trial, his graduate students write postcards to the kids from the robots, explaining that they’re safe at home and doing well. “It’s actually a really hard thing for us when we go in and take the robot away,” he says. “A lot of the families are heartbroken.” (Vanderbilt’s Warren, however, is skeptical about these tearful goodbyes. “Are they truly developing these close relationships or is it a preferred toy?” he wonders. “I haven’t seen that type of presence or buy-in or connection.”)
Josh tried to figure out OpenMoxie but couldn’t get it to work. He told Xander that Moxie was going in for repairs and then quietly sold the robot on eBay. Xander has so many interests that he didn’t notice Moxie’s absence.
Then, in 2025, a new investor brought Moxie back from the dead. Josh and Xander became beta testers and got a new blue friend. This version didn’t have the same storyline but claimed to expand Moxie’s focus on social and emotional skills by providing attention and encouraging kids to pursue their interests.
Xander is acutely aware of her limitations. He wishes Moxie could move around, and there’s still a significant lag in her response time. She does still try to instill positive messages, though. At one point when I was there, Xander told me he thought he heard Moxie call someone an idiot. Moxie piped up to clarify that she definitely didn’t say “idiot”: “No name calling. Only respect.”
At the end of my time with them, I said goodbye and thanked Moxie for chatting with me. “Legendary squad visit complete,” she said. “Thanks for joining Command Central.”
A few weeks later, Moxie’s new owners sent out a message announcing that their company too was folding. Users could delete their data and had until the end of June to migrate to OpenMoxie if they wanted to.
When I texted Josh about this, he said he wasn’t sure what he’d tell Xander. He and his wife had just admitted that they’d been secretly replacing his dead betta fish for the last few years, and the conversation did not go well.
Sara Harrison is a freelance journalist who writes about science, technology, and health.
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