How AI Could Keep Young Workers From Getting the Skills They Need
Who will train them? Nobody, unless companies take steps now to eliminate the inevitable skills gap
Who will train them? Nobody, unless companies take steps now to eliminate the inevitable skills gap
Whenever people talk about the dangers AI holds for the workforce, they usually have one thing in mind: technology stealing jobs. But artificial intelligence poses a much more subtle threat than that—one that will have consequences for business unless we address it.
Simply put, the way we’re handling AI is keeping young workers from learning skills.
For more than 12 years, I have been studying how work changes as a result of intelligent technologies like robots and AI. Across a number of industries, I’ve seen the same thing over and over: This new, sophisticated technology makes it easier for experts to do their jobs. Seasoned surgeons can operate more quickly and efficiently, for instance, when they use robots in the operating room.
But the efficiency comes at a cost. The technology allows experts to do more, independently, so they don’t need younger, less-experienced workers to help them out anymore—so those novices are left without mentors to teach them the skills they need to do their job. Looking at operating rooms again, it takes two people to perform most complex procedures with traditional tools. The senior surgeon generally provides “exposure” by retracting tissue while the resident does what most of us think of as surgery—incisions, suturing and so on. Residents are on task the entire time. Focused. Learning.
Now the residents mostly sit around during operations and watch veteran surgeons get the job done thanks to help from a robot. Limited work. Limited learning.
As learning opportunities like these are lost throughout more industries, the results could be profound for both individual workers and the economy. We are sacrificing skill building and human bonds of mentoring on the altar of productivity. No matter our role, tenure, occupation or industry, if we can’t collaborate with someone who knows more, we’re not going to learn effectively, and we won’t be able to keep up. And our organisations will struggle where they might otherwise race ahead—because workers won’t have the deep knowledge they need to innovate and step into senior roles.
We have decades of research showing that this situation is the opposite of what we want. We build skill by collaborating across the expert/novice divide, so novices get to see the work, help out at the edges and earn the privilege of doing more next time.
Now that mechanism is being lost. My observations, combined with primary data from other field researchers, show a destructive dynamic at work, across a range of industries. In industrial-process engineering, I have seen experts use software to do modeling on their own, instead of involving a junior engineer. In warehousing, I’ve watched area managers rely on dashboard analytics to understand staffing and process flows, instead of uncovering those things collaboratively with less-experienced line leads and workers.
My collaborator Callen Anthony at New York University found that junior investment-banking analysts were being separated from senior partners as those partners started to use algorithms to help create company valuations for mergers and acquisitions. Junior analysts—instead of collaborating with the senior partners as they had before—essentially just pulled data for the algorithms to use in their valuations.
The rationale for this arrangement was twofold: reduce errors by junior people in sophisticated work and maximise senior partners’ efficiency. Explaining the work to junior staffers pulled partners away from higher-level analysis.
This setup produced short-run productivity improvement, but it moved junior analysts away from challenging, complex work, making it harder for them to learn the entire valuation process and diminishing the firm’s future capability. Junior bankers become senior bankers, after all.
One of the most striking examples of the widening skill gap is surgery. I observed hundreds of procedures at some of the top teaching hospitals in the country, where robots deeply reshaped how work was done. Surgery, as I said, used to take four hands; minimally invasive surgical robots can supply three, all controllable from a single console. They make things so much easier for surgeons that the million-dollar tools have become the de facto standard for many complex procedures.
Most important, robots make it possible for surgeons to perform operations solo, no residents needed. And, since residents are slower and make more mistakes than an experienced surgeon would, those surgeons are opting to cut residents out of the action. Before, residents might operate for four hours during a 4½-hour procedure. In my nationwide data, their robotic average time hovered in the 10- to 15-minute range. And residents got less operating time in 88% to 92% of cases.
In this situation, we end up with much-less-capable surgeons. My data shows that many newly minted surgeons struggle mightily when they get their first jobs—not just because they don’t have robotic skill, but because their failed quest to learn robotics took so much effort they lost key learning opportunities in other procedures and practice areas, from ureteroscopy to kidney stones to vasectomies, that they would be expected to handle in most new surgical jobs.
The consequences of poor training go beyond day-to-day competence. Consider what happens to the culture of a hospital when it loses healthy expert/novice collaborations. Less teaching and learning, to be sure, but also more-limited career advancement as experts advocate less for trainees. What about hospitals’ ability to innovate in surgical practices? Limits there, too, as discoveries made by colleagues get tamped down by increasingly focused, efficient, expert-driven surgical performance. The ability to service skyrocketing surgical demand? In the short run, you serve more patients, but in the medium term you scramble to keep up as the pool of new talent dwindles.
Of course, different organisations, industries and professions in different places will feel the pinch on different time scales. They will also compensate in different ways. But in general, organisations will not sense the problem directly: Instead, they will incrementally accumulate a larger cost base—in areas such as (re)training and reduced billable or applied time—and build a bureaucracy to manage this skills gap. At law firms, new attorneys might take longer to ramp up to normal caseloads, while senior attorneys would have to spend more non billable time to handhold them.
Now imagine the consequences of similar skills gap across all types of companies, throughout the economy. Without a firm, immediate correction, this is what we can expect. This is our trillion-dollar skills problem.
Solving the problem is vital, but how should we do it? My collaborator and I found evidence of one approach that can work.
Remember, the problem right now is that senior workers are learning new technologies, such as robotic surgery, that make junior workers unnecessary. In our research, though, we found cases where junior and senior workers teamed up to learn about new technologies together .
By working closely with seniors in this way, the juniors didn’t just learn about the new technologies, they ended up collaborating with seniors on other aspects of the job. Since the older and younger workers were figuring out how the tech worked, they also needed to figure out how to integrate it into vital day-to-day tasks. So, the novices got to see firsthand how those jobs were done while performing actual work.
For instance, in my research, I saw some residents and senior urologists team up to learn robotic techniques in live surgical procedures. In those cases, the residents got much more actual hands-on operating time than residents who mostly just watched robotic procedures—10 times more. And the quality of that time was far better: Expert and novice were jointly figuring out how to use the tech, just as they had a patient on the table.
Granted, this process isn’t easy. In our research, we found that these collaborations often failed. But when they did work, they were powerfully effective. We need more companies to take the chance and implement this strategy, to figure out how to make it most effective and serve as examples.
It will not only help close the skills gap, it will give old and new workers a new sense of purpose on the job—through strengthened relationships. Research shows very clearly that we get motivation for our work when it builds trust and respect with those who share our values. Progressing to more competence therefore involves questions of the heart, like, “Have I earned this expert’s trust and respect?” or “Does this novice look up to me?”
We often treat these issues as unconnected with hard-nosed skill and results, when they are a core part of why we try at all in the first place. They are the animating force for the journey.
Matthew Beane is an assistant professor at the University of California, Santa Barbara, and author of “ The Skill Code: How to Save Human Ability in an Age of Intelligent Machines.”
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The lunar flyby would be the deepest humans have traveled in space in decades.
It’s go time for the highest-stakes mission at NASA in more than 50 years.
On April 1, the agency is set to launch four astronauts around the moon, the deepest human spaceflight since the final Apollo lunar landing in 1972.
The launch window for Artemis II , as the mission is called, opens at 6:24 p.m. ET.
National Aeronautics and Space Administration teams have been preparing the vehicles to depart from Florida’s Kennedy Space Center on the planned roughly 10-day trip. Crew members have trained for years for this moment.
Reid Wiseman, the NASA astronaut serving as mission commander, said he doesn’t fear taking the voyage. A widower, he does worry at times about what he is putting his daughters through.
“I could have a very comfortable life for them,” Wiseman said in an interview last September.
“But I’m also a human, and I see the spirit in their eyes that is burning in my soul too. And so we’ve just got to never stop going.”
Wiseman’s crewmates on Artemis II are NASA’s Victor Glover and Christina Koch, as well as Canadian Space Agency astronaut Jeremy Hansen.

What are the goals for Artemis II?
The biggest one: Safely fly the crew on vehicles that have never carried astronauts before.
The towering Space Launch System rocket has the job of lofting a vehicle called Orion into space and on its way to the moon.
Orion is designed to carry the crew around the moon and back. Myriad systems on the ship—life support, communications, navigation—will be tested with the astronauts on board.
SLS and Orion don’t have much flight experience. The vehicles last flew in 2022, when the agency completed its uncrewed Artemis I mission .
How is the mission expected to unfold?
Artemis II will begin when SLS takes off from a launchpad in Florida with Orion stacked on top of it.
The so-called upper stage of SLS will later separate from the main part of the rocket with Orion attached, and use its engine to set up the latter vehicle for a push to the moon.
After Orion separates from the upper stage, it will conduct what is called a translunar injection—the engine firing that commits Orion to soaring out to the moon. It will fly to the moon over the course of a few days and travel around its far side.
Orion will face a tough return home after speeding through space. As it hits Earth’s atmosphere, Orion will be flying at 25,000 miles an hour and face temperatures of 5,000 degrees as it slows down. The capsule is designed to land under parachutes in the Pacific Ocean, not far from San Diego.

Is it possible Artemis II will be delayed?
Yes.
For safety reasons, the agency won’t launch if certain tough weather conditions roll through the Cape Canaveral, Fla., area. Delays caused by technical problems are possible, too. NASA has other dates identified for the mission if it doesn’t begin April 1.
Who are the astronauts flying on Artemis II?
The crew will be led by Wiseman, a retired Navy pilot who completed military deployments before joining NASA’s astronaut corps. He traveled to the International Space Station in 2014.
Two other astronauts will represent NASA during the mission: Glover, an experienced Navy pilot, and Koch, who began her career as an electrical engineer for the agency and once spent a year at a research station in the South Pole. Both have traveled to the space station before.
Hansen is a military pilot who joined Canada’s astronaut corps in 2009. He will be making his first trip to space.
Koch’s participation in Artemis II will mark the first time a woman has flown beyond orbits near Earth. Glover and Hansen will be the first African-American and non-American astronauts, respectively, to do the same.
What will the astronauts do during the flight?
The astronauts will evaluate how Orion flies, practice emergency procedures and capture images of the far side of the moon for scientific and exploration purposes (they may become the first humans to see parts of the far side of the lunar surface). Health-tracking projects of the astronauts are designed to inform future missions.
Those efforts will play out in Orion’s crew module, which has about two minivans worth of living area.
On board, the astronauts will spend about 30 minutes a day exercising, using a device that allows them to do dead lifts, rowing and more. Sleep will come in eight-hour stretches in hammocks.
There is a custom-made warmer for meals, with beef brisket and veggie quiche on the menu.
Each astronaut is permitted two flavored beverages a day, including coffee. The crew will hold one hourlong shared meal each day.
The Universal Waste Management System—that’s the toilet—uses air flow to pull fluid and solid waste away into containers.
What happens after Artemis II?
Assuming it goes well, NASA will march on to Artemis III, scheduled for next year. During that operation, NASA plans to launch Orion with crew members on board and have the ship practice docking with lunar-lander vehicles that Elon Musk’s SpaceX and Jeff Bezos’ Blue Origin have been developing. The rendezvous operations will occur relatively close to Earth.
NASA hopes that its contractors and the agency itself are ready to attempt one or more lunar landing missions in 2028. Many current and former spaceflight officials are skeptical that timeline is feasible.
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