The propensity for AI systems to make mistakes and for humans to miss those mistakes has been on full display in the US legal system as of late. The follies began when lawyers—including some at prestigious firms—submitted documents citing cases that didn’t exist. Similar mistakes soon spread to other roles in the courts. In December, a Stanford professor submitted sworn testimony containing hallucinations and errors in a case about deepfakes, despite being an expert on AI and misinformation himself.

The buck stopped with judges, who—whether they or opposing counsel caught the mistakes—issued reprimands and fines, and likely left attorneys embarrassed enough to think twice before trusting AI again.

But now judges are experimenting with generative AI too. Some are confident that with the right precautions, the technology can expedite legal research, summarize cases, draft routine orders, and overall help speed up the court system, which is badly backlogged in many parts of the US. This summer, though, we’ve already seen AI-generated mistakes go undetected and cited by judges. A federal judge in New Jersey had to reissue an order riddled with errors that may have come from AI, and a judge in Mississippi refused to explain why his order too contained mistakes that seemed like AI hallucinations. 

The results of these early-adopter experiments make two things clear. One, the category of routine tasks—for which AI can assist without requiring human judgment—is slippery to define. Two, while lawyers face sharp scrutiny when their use of AI leads to mistakes, judges may not face the same accountability, and walking back their mistakes before they do damage is much harder.

Drawing boundaries

Xavier Rodriguez, a federal judge for the Western District of Texas, has good reason to be skeptical of AI. He started learning about artificial intelligence back in 2018, four years before the release of ChatGPT (thanks in part to the influence of his twin brother, who works in tech). But he’s also seen AI-generated mistakes in his own court. 

In a recent dispute about who was to receive an insurance payout, both the plaintiff and the defendant represented themselves, without lawyers (this is not uncommon—nearly a quarter of civil cases in federal court involve at least one unrepresented party). The two sides wrote their own filings and made their own arguments. 

“Both sides used AI tools,” Rodriguez says, and both submitted filings that referenced made-up cases. He had authority to reprimand them, but given that they were not lawyers, he opted not to. 

“I think there’s been an overreaction by a lot of judges on these sanctions. The running joke I tell when I’m on the speaking circuit is that lawyers have been hallucinating well before AI,” he says. Missing a mistake from an AI model is not wholly different, to Rodriguez, from failing to catch the error of a first-year lawyer. “I’m not as deeply offended as everybody else,” he says. 

In his court, Rodriguez has been using generative AI tools (he wouldn’t publicly name which ones, to avoid the appearance of an endorsement) to summarize cases. He’ll ask AI to identify key players involved and then have it generate a timeline of key events. Ahead of specific hearings, Rodriguez will also ask it to generate questions for attorneys based on the materials they submit.

These tasks, to him, don’t lean on human judgment. They also offer lots of opportunities for him to intervene and uncover any mistakes before they’re brought to the court. “It’s not any final decision being made, and so it’s relatively risk free,” he says. Using AI to predict whether someone should be eligible for bail, on the other hand, goes too far in the direction of judgment and discretion, in his view.

Erin Solovey, a professor and researcher on human-AI interaction at Worcester Polytechnic Institute in Massachusetts, recently studied how judges in the UK think about this distinction between rote, machine-friendly work that feels safe to delegate to AI and tasks that lean more heavily on human expertise. 

“The line between what is appropriate for a human judge to do versus what is appropriate for AI tools to do changes from judge to judge and from one scenario to the next,” she says.

Even so, according to Solovey, some of these tasks simply don’t match what AI is good at. Asking AI to summarize a large document, for example, might produce drastically different results depending on whether the model has been trained to summarize for a general audience or a legal one. AI also struggles with logic-based tasks like ordering the events of a case. “A very plausible-sounding timeline may be factually incorrect,” Solovey says. 

Rodriguez and a number of other judges crafted guidelines that were published in February by the Sedona Conference, an influential think tank that issues principles for particularly murky areas of the law. They outline a host of potentially “safe” uses of AI for judges, including conducting legal research, creating preliminary transcripts, and searching briefings, while warning that judges should verify outputs from AI and that “no known GenAI tools have fully resolved the hallucination problem.”

Dodging AI blunders

Judge Allison Goddard, a federal magistrate judge in California and a coauthor of the guidelines, first felt the impact that AI would have on the judiciary when she taught a class on the art of advocacy at her daughter’s high school. She was impressed by a student’s essay and mentioned it to her daughter. “She said, ‘Oh, Mom, that’s ChatGPT.’”

“What I realized very quickly was this is going to really transform the legal profession,” she says. In her court, Goddard has been experimenting with ChatGPT, Claude (which she keeps “open all day”), and a host of other AI models. If a case involves a particularly technical issue, she might ask AI to help her understand which questions to ask attorneys. She’ll summarize 60-page orders from the district judge and then ask the AI model follow-up questions about it, or ask it to organize information from documents that are a mess. 

“It’s kind of a thought partner, and it brings a perspective that you may not have considered,” she says.

Goddard also encourages her clerks to use AI, specifically Anthropic’s Claude, because by default it does not train on user conversations. But it has its limits. For anything that requires law-specific knowledge, she’ll use tools from Westlaw or Lexis, which have AI tools built specifically for lawyers, but she finds general-purpose AI models to be faster for lots of other tasks. And her concerns about bias have prevented her from using it for tasks in criminal cases, like determining if there was probable cause for an arrest.

In this, Goddard appears to be caught in the same predicament the AI boom has created for many of us. Three years in, companies have built tools that sound so fluent and humanlike they obscure the intractable problems lurking underneath—answers that read well but are wrong, models that are trained to be decent at everything but perfect for nothing, and the risk that your conversations with them will be leaked to the internet. Each time we use them, we bet that the time saved will outweigh the risks, and trust ourselves to catch the mistakes before they matter. For judges, the stakes are sky-high: If they lose that bet, they face very public consequences, and the impact of such mistakes on the people they serve can be lasting. 

“I’m not going to be the judge that cites hallucinated cases and orders,” Goddard says. “It’s really embarrassing, very professionally embarrassing.”

Still, some judges don’t want to get left behind in the AI age. With some in the AI sector suggesting that the supposed objectivity and rationality of AI models could make them better judges than fallible humans, it might lead some on the bench to think that falling behind poses a bigger risk than getting too far out ahead. 

A ‘crisis waiting to happen’

The risks of early adoption have raised alarm bells with Judge Scott Schlegel, who serves on the Fifth Circuit Court of Appeal in Louisiana. Schlegel has long blogged about the helpful role technology can play in modernizing the court system, but he has warned that AI-generated mistakes in judges’ rulings signal a “crisis waiting to happen,” one that would dwarf the problem of lawyers’ submitting filings with made-up cases. 

Attorneys who make mistakes can get sanctioned, have their motions dismissed, or lose cases when the opposing party finds out and flags the errors. “When the judge makes a mistake, that’s the law,” he says. “I can’t go a month or two later and go ‘Oops, so sorry,’ and reverse myself. It doesn’t work that way.”

Consider child custody cases or bail proceedings, Schlegel says: “There are pretty significant consequences when a judge relies upon artificial intelligence to make the decision,” especially if the citations that decision relies on are made-up or incorrect.

This is not theoretical. In June, a Georgia appellate court judge issued an order that relied partially on made-up cases submitted by one of the parties, a mistake that went uncaught. In July, a federal judge in New Jersey withdrew an opinion after lawyers complained it too contained hallucinations. 

Unlike lawyers, who can be ordered by the court to explain why there are mistakes in their filings, judges do not have to show much transparency, and there is little reason to think they’ll do so voluntarily. On August 4, a federal judge in Mississippi had to issue a new decision in a civil rights case after the original was found to contain incorrect names and serious errors. The judge did not fully explain what led to the errors even after the state asked him to do so. “No further explanation is warranted,” the judge wrote.

These mistakes could erode the public’s faith in the legitimacy of courts, Schlegel says. Certain narrow and monitored applications of AI—summarizing testimonies, getting quick writing feedback—can save time, and they can produce good results if judges treat the work like that of a first-year associate, checking it thoroughly for accuracy. But most of the job of being a judge is dealing with what he calls the white-page problem: You’re presiding over a complex case with a blank page in front of you, forced to make difficult decisions. Thinking through those decisions, he says, is indeed the work of being a judge. Getting help with a first draft from an AI undermines that purpose.

“If you’re making a decision on who gets the kids this weekend and somebody finds out you use Grok and you should have used Gemini or ChatGPT—you know, that’s not the justice system.”

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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.

This quantum radar could image buried objects

Physicists have created a new type of radar that could help improve underground imaging, using a cloud of atoms in a glass cell to detect reflected radio waves.

The radar is a type of quantum sensor, an emerging technology that uses the quantum-mechanical properties of objects as measurement devices. It’s still a prototype, but its intended use is to image buried objects in situations such as constructing underground utilities, drilling wells for natural gas, and excavating archaeological sites. Read the full story.

—Sophia Chen

If you’re interested in the potential of quantum, why not check out:

+ Why AI could eat quantum computing’s lunch. Rapid advances in applying artificial intelligence to simulations in physics and chemistry have some people questioning whether we will even need quantum computers at all. Read the full story.

+ This quantum computer built on server racks paves the way to bigger machines. Read the full story.

+ IBM aims to build the world’s first large-scale, error-corrected quantum computer by 2028. The company says it has cracked the code for error correction and is building a modular machine in New York state. Read the full story.

+ Amazon’s first quantum computing chip has made its debut. Read the full story.

The must-reads

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

1 Nvidia and AMD will pay the US 15% of their China AI chip sales
The unconventional deal is the latest in a string of agreements brokered by the US President. (NYT $)
+ The deal could equate to billions of dollars for the US government. (WSJ $)
+ China says Nvidia’s H20 chips aren’t safe. (Reuters)

2 OpenAI is restoring GPT-4o to ChatGPT
Users were furious after GPT-5’s launch forced them to switch models. (Gizmodo)
+ They complained that the new model made basic errors.(Bloomberg $)
+ GPT-5 is here. Now what? (MIT Technology Review)

3 The US Bureau of Labor Statistics is in turmoil
And we’re losing access to key economic data as a result. (WSJ $)
+ Collecting data is getting a lot tougher in the US. (FT $)
+ Sweeping tariffs could threaten the US manufacturing rebound. (MIT Technology Review)

4 Spain has more solar power than it knows what to do with
And that abundance has pushed its electricity grid to its limits. (FT $)
+ Did solar power cause Spain’s blackout? (MIT Technology Review)

5 Truth Social’s new chatbot keeps disagreeing with Donald Trump
It states that the 2020 election wasn’t stolen, and contradicts his stance on tariffs. (WP $)
+ It does seem to rely heavily on Fox News, though. (Wired $)

6 Tesla has applied for a license to supply power to British homes
If approved, it could start rivaling the UK’s energy firms as soon as next year. (BBC)
+ The business is likely to be called Tesla Electric. (The Guardian)
+ Sales of Tesla’s EVs are still slumping across Europe. (CNBC)

7 Canadians are taking up the offer of assisted dying
Demand for the procedure is outstripping clinician capacity. (The Atlantic $)
+ The messy morality of letting AI make life-and-death decisions. (MIT Technology Review)

8 Nvidia is full of nepo babies
But Jensen Huang doesn’t see anything wrong with that. (The Information $)

9 Silicon Valley’s young founders aren’t big drinkers
They’re all about the grind. (Insider $)

10 Farewell, AOL dial-up 💿
After 34 years, the company is finally ditching dial-up internet. (NBC News)
+ “You’ve got mail” no longer. (The Verge)

Quote of the day

“I just graduated with a computer science degree, and the only company that has called me for an interview is Chipotle.”

—Manasi Mishra, who recently graduated from Purdue University without a job offer, vents her frustration in a TikTok post, the New York Times reports.

One more thing

This sci-fi blockchain game could help create a metaverse that no one owns

Dark Forest is a vast universe, and most of it is shrouded in darkness. Your mission, should you choose to accept it, is to venture into the unknown, avoid being destroyed by opposing players who may be lurking in the dark, and build an empire of the planets you discover and can make your own.

But while the video game seemingly looks and plays much like other online strategy games, it doesn’t rely on the servers running other popular online strategy games. And it may point to something even more profound: the possibility of a metaverse that isn’t owned by a big tech company. Read the full story.

—Mike Orcutt

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.)

+ Fear FA 98 asks the question: what would happen if we crossed a soccer video game with horror classic Silent Hill?
+ Planning a ‘workation?’ These are the best spots to mix business with pleasure.
+ Liza Minnelli can’t stop, won’t stop!
+ Please—no more sequels.

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Physicists have created a new type of radar that could help improve underground imaging, using a cloud of atoms in a glass cell to detect reflected radio waves. The radar is a type of quantum sensor, an emerging technology that uses the quantum-mechanical properties of objects as measurement devices. It’s still a prototype, but its intended use is to image buried objects in situations such as constructing underground utilities, drilling wells for natural gas, and excavating archaeological sites.

Like conventional radar, the device sends out radio waves, which reflect off nearby objects. Measuring the time it takes the reflected waves to return makes it possible to determine where an object is. In conventional radar, the reflected waves are detected using a large antenna, among other receiver components. But in this new device, the reflected waves are registered by detecting the interactions between the returning waves and the atom cloud.

The current incarnation of the radar is still bulky, as the researchers have kept it connected to components on an optical table for ease of testing. But they think their quantum radar could be significantly smaller than conventional designs. “Instead of having this sizable metal structure to receive the signal, we now can use this small glass cell of atoms that can be about a centimeter in size,” says Matthew Simons, a physicist at the National Institute of Standards and Technology (NIST), who was a member of the research team. NIST also worked with the defense contractor RTX to develop the radar.  

The glass cell that serves as the radar’s quantum component is full of cesium atoms kept at room temperature. The researchers use lasers to get each individual cesium atom to swell to nearly the size of a bacterium, about 10,000 times bigger than the usual size. Atoms in this bloated condition are called Rydberg atoms. 

When incoming radio waves hit Rydberg atoms, they disturb the distribution of electrons around their nuclei. Researchers can detect the disturbance by shining lasers on the atoms, causing them to emit light; when the atoms are interacting with a radio wave, the color of their emitted light changes. Monitoring the color of this light thus makes it possible to use the atoms as a radio receiver. Rydberg atoms are sensitive to a wide range of radio frequencies without needing to change the physical setup, says Michał Parniak, a physicist at the University of Warsaw in Poland, who was not involved in the work. This means a single compact radar device could potentially work at the multiple frequency bands required for different applications.

Simons’s team tested the radar by placing it in a specially designed room with foam spikes on the floor, ceiling, and walls like stalactites and stalagmites. The spikes absorb, rather than reflect, nearly all the radio waves that hit them. This simulates the effect of a large open space, allowing the group to test the radar’s imaging capability without unwanted reflections off walls. 

radar setup in a room lined by dampening foam
MATT SIMONS, NIST

The researchers placed a radio wave transmitter in the room, along with their Rydberg atom receiver, which was hooked up to an optical table outside the room. They aimed radio waves at a copper plate about the size of a sheet of paper, some pipes, and a steel rod in the room, each placed up to five meters away. The radar allowed them to locate the objects to within 4.7 centimeters. The team posted a paper on the research to the arXiv preprint server in late June.

The work moves quantum radar closer to a commercial product. “This is really about putting elements together in a nice way,” says Parniak. While other researchers have previously demonstrated how Rydberg atoms can work as radio wave detectors, he says, this group has integrated the receiver with the rest of the device more sleekly than before. 

Other researchers have explored the use of Rydberg atoms for other radar applications. For example, Parniak’s team recently developed a Rydberg atom sensor for measuring radio frequencies to troubleshoot chips used in car radar. Researchers are also exploring whether radar using Rydberg-atom receivers could be used for measuring soil moisture.

This device is just one example of a quantum sensor, a type of technology that incorporates quantum components into conventional tools. For example, the US government has developed gyroscopes that use the wave properties of atoms for sensing rotation, which is useful for navigation. Researchers have also created quantum sensors using impurities in diamond to measure magnetic fields in, for example, biomedical applications.

One advantage of quantum sensors is the inherent consistency of their core components. Each cesium atom in their device is identical. In addition, the radio receiver relies on the fundamental structure of these atoms, which never changes. Properties of the atoms “can be linked directly to fundamental constants,” says Simons. For this reason, quantum sensors should require less calibration than their non-quantum counterparts. 

Governments worldwide have invested billions of dollars to develop quantum sensors and quantum computers, which share similar components. For example, researchers have built quantum computers using Rydberg atoms as qubits, the equivalent to bits in a conventional computer. Thus, advances in quantum sensing can potentially translate into advances into quantum computing, and vice versa. Parniak has recently adapted an error-correction technique from quantum computing to improve a Rydberg-atom-based sensor. 

Researchers still need to continue developing quantum radar before it can be made commercially viable. In the future, they need to work on improving the device’s sensitivity to fainter signals, which could involve improving the coatings for the glass cell. “We don’t see this replacing all radar applications,” says Simons. Instead, he thinks it will be useful for particular scenarios that require a compact device.

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